cleared previously tracked gitignored files

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Kristjan Komlosi
2019-11-12 19:43:50 +01:00
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# Byte-compiled / optimized / DLL files
__pycache__/
*.py[cod]
*$py.class
# C extensions
*.so
# Distribution / packaging
.Python
build/
develop-eggs/
dist/
downloads/
eggs/
.eggs/
lib/
lib64/
parts/
sdist/
var/
wheels/
pip-wheel-metadata/
share/python-wheels/
*.egg-info/
.installed.cfg
*.egg
MANIFEST
# PyInstaller
# Usually these files are written by a python script from a template
# before PyInstaller builds the exe, so as to inject date/other infos into it.
*.manifest
*.spec
# Installer logs
pip-log.txt
pip-delete-this-directory.txt
# Unit test / coverage reports
htmlcov/
.tox/
.nox/
.coverage
.coverage.*
.cache
nosetests.xml
coverage.xml
*.cover
*.py,cover
.hypothesis/
.pytest_cache/
# Translations
*.mo
*.pot
# Django stuff:
*.log
local_settings.py
db.sqlite3
db.sqlite3-journal
# Flask stuff:
instance/
.webassets-cache
# Scrapy stuff:
.scrapy
# Sphinx documentation
docs/_build/
# PyBuilder
target/
# Jupyter Notebook
.ipynb_checkpoints
# IPython
profile_default/
ipython_config.py
# pyenv
.python-version
# pipenv
# According to pypa/pipenv#598, it is recommended to include Pipfile.lock in version control.
# However, in case of collaboration, if having platform-specific dependencies or dependencies
# having no cross-platform support, pipenv may install dependencies that don't work, or not
# install all needed dependencies.
#Pipfile.lock
# pyflow
__pypackages__/
# Celery stuff
celerybeat-schedule
celerybeat.pid
# SageMath parsed files
*.sage.py
# Environments
.env
.venv
env/
venv/
ENV/
env.bak/
venv.bak/
# Spyder project settings
.spyderproject
.spyproject
# Rope project settings
.ropeproject
# mkdocs documentation
/site
# mypy
.mypy_cache/
.dmypy.json
dmypy.json
# Pyre type checker
.pyre/
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[MASTER]
disable = c0103
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Copyright (c) 2018, 2019, Kristjan Komloši, Jakob Kosec, Juš Dolžan,
TeraHz development team
Permission to use, copy, modify, and/or distribute this software for any
purpose with or without fee is hereby granted, provided that the above
copyright notice and this permission notice appear in all copies.
THE SOFTWARE IS PROVIDED "AS IS" AND THE AUTHOR DISCLAIMS ALL WARRANTIES
WITH REGARD TO THIS SOFTWARE INCLUDING ALL IMPLIED WARRANTIES OF
MERCHANTABILITY AND FITNESS. IN NO EVENT SHALL THE AUTHOR BE LIABLE FOR ANY
SPECIAL, DIRECT, INDIRECT, OR CONSEQUENTIAL DAMAGES OR ANY DAMAGES
WHATSOEVER RESULTING FROM LOSS OF USE, DATA OR PROFITS, WHETHER IN AN ACTION
OF CONTRACT, NEGLIGENCE OR OTHER TORTIOUS ACTION, ARISING OUT OF OR IN
CONNECTION WITH THE USE OR PERFORMANCE OF THIS SOFTWARE.
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# TeraHz
[![Documentation Status](https://readthedocs.org/projects/terahz/badge/?version=latest)](https://terahz.readthedocs.io/en/latest/?badge=latest)
TeraHz is a low-cost spectrometer based on a Raspberry Pi 3 or 3 B+ and three sensors:
+ [__AS7265x__](https://www.tindie.com/products/onehorse/compact-as7265x-spectrometer/)
is a 18 channel spectrometer chipset that provides the device with spectral data
+ [__VEML6075__](https://www.sparkfun.com/products/15089) is an
UVA/UVB sensor
+ [__APDS-9301__](https://www.sparkfun.com/products/14350) is a calibrated illuminance (lux) meter that provides the device with reliable readings
## Why?
Because people and institutions could use an affordable and accurate light-analysing device that is also portable, easy to use and simple to assemble. TeraHz was started as an answer to our high school not being able to afford a commercially available solution. One TeraHz spectrometer costs around 150$ in parts, which makes it a competitive alternative to other solutions on the market today.
## Development team
Copyright 2018, 2019
- Kristjan "cls-02" Komloši (electronics, sensor drivers, backend)
- Jakob "D3m1j4ck" Kosec (frontend)
I would also like to thank Juš "ANormalPerson" Dolžan, who decided to leave the
team, but helped me a lot with backend development.
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# app.py - main backend program
'''Main TeraHz backend program'''
# All code in this file is licensed under the ISC license, provided in LICENSE.txt
from flask import Flask
import flask
import sensors
app = Flask(__name__)
@app.route('/data')
def sendData():
'''Responder function for /data route'''
s = sensors.Spectrometer(path='/dev/serial0', baudrate=115200, tout=1)
u = sensors.UVSensor()
l = sensors.LxMeter()
response = flask.jsonify([s.getData(), l.getData(), u.getABI()])
response.headers.add('Access-Control-Allow-Origin', '*')
return response
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#!/bin/bash
# run.sh - run the backend server
cd `dirname $0`
sudo gunicorn app:app -b 0.0.0.0:5000 &
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# sensors.py - a module for interfacing to the sensors
'''Module for interfacing with TeraHz sensors'''
# Copyright 2019 Kristjan Komloši
# All code in this file is licensed under the ISC license, provided in LICENSE.txt
import serial as ser
import pandas as pd
import smbus2
class Spectrometer:
'''Class representing the AS7265X specrometer'''
def initializeSensor(self):
'''confirm the sensor is responding and proceed\
with spectrometer initialization'''
try:
rstring = 'undefined' # just need it set to a value
self.setParameters({'gain': 0})
self.serialObject.write(b'AT\n')
rstring = self.serialObject.readline().decode()
if rstring == 'undefined':
raise Exception # sensor didn't respond
if rstring == 'OK':
pass # handshake passed
if rstring == 'ERROR':
raise Exception # sensor is in error state
except:
raise Exception(
'An exception ocurred when performing spectrometer handshake')
def setParameters(self, parameters):
'''applies the parameters like LED light and gain to the spectrometer'''
try:
if 'it_time' in parameters:
it_time = int(parameters['it_time'])
if it_time <= 0:
it_time = 1
self.serialObject.write(
'ATINTTIME={}\n'.format(str(it_time)).encode())
self.serialObject.readline()
if 'gain' in parameters:
gain = int(parameters['gain'])
if gain < 0 or gain > 3:
gain = 1
self.serialObject.write('ATGAIN={}\n'.format(gain).encode())
self.serialObject.readline()
if 'led' in parameters:
led = bool(parameters['led'])
if led:
led = 1
else:
led = 0
self.serialObject.write('ATLED3={}\n'.format(led).encode())
self.serialObject.readline()
except:
raise Exception(
'An exception occured during spectrometer initialization')
def getData(self):
'''Returns spectral data in a pandas DataFrame.'''
try:
self.serialObject.write(b'ATCDATA\n')
rawresp = self.serialObject.readline().decode()
except:
raise Exception(
'An exception occurred when polling for spectrometer data')
else:
responseorder = [i for i in 'RSTUVWGHIJKLABCDEF']
realorder = [i for i in 'ABCDEFGHRISJTUVWKL']
response = pd.Series(
[float(i) / 35.0 for i in rawresp[:-3].split(',')], index=responseorder)
return pd.DataFrame(response, index=realorder, columns=['uW/cm^2']).to_dict()['uW/cm^2']
def __init__(self, path='/dev/ttyUSB0', baudrate=115200, tout=1):
self.path = path
self.baudrate = baudrate
self.timeout = 1
try:
self.serialObject = ser.Serial(path, baudrate, timeout=tout)
except:
raise Exception(
'An exception occured when opening the serial port at {}'.format(path))
else:
self.initializeSensor()
class LxMeter:
'''Class representing the APDS-9301 digital photometer.'''
def __init__(self, busNumber=1, addr=0x39):
self.addr = addr
try:
# initialize the SMBus interface
self.bus = smbus2.SMBus(busNumber)
except:
raise Exception(
'An exception occured opening the SMBus {}'.format(self.bus))
try:
self.bus.write_byte_data(
self.addr, 0xa0, 0x03) # enable the sensor
self.setGain(16)
except:
raise Exception('An exception occured when enabling lux meter')
def setGain(self, gain):
'''Set the sensor gain. Either 1 or 16.'''
if gain == 1:
try:
temp = self.bus.read_byte_data(self.addr, 0xa1)
self.bus.write_byte_data(self.addr, 0xa1, 0xef & temp)
except:
raise Exception(
'An exception occured when setting lux meter gain')
if gain == 16:
try:
temp = self.bus.read_byte_data(self.addr, 0xa1)
self.bus.write_byte_data(self.addr, 0xa1, 0x10 | temp)
except:
raise Exception(
'An exception occured when setting lux meter gain')
else:
raise Exception('Invalid gain')
def getGain(self):
'''Get the gain from the sensor.'''
try:
if self.bus.read_byte_data(self.addr, 0xa1) & 0x10 == 0x10:
return 16
if self.bus.read_byte_data(self.addr, 0xa1) & 0x10 == 0x00:
return 1
raise Exception('An error occured when getting lux meter gain')
# Under normal conditions, this raise is unreachable.
except:
raise Exception('An error occured when getting lux meter gain')
def setIntTime(self, time):
'''Set the lux sensor integration time. 0 to including 2'''
if time < 0 or time > 2:
raise Exception('Invalid integration time')
try:
temp = self.bus.read_byte_data(self.addr, 0xa1)
self.bus.write_byte_data(self.addr, 0xa1, (temp & 0xfc) | time)
except:
raise Exception(
'An exception occured setting lux integration time')
def getIntTime(self):
'''Get the lux sensor integration time.'''
try:
return self.bus.read_byte_data(self.addr, 0xa1) & 0x03
except:
raise Exception(
'An exception occured getting lux integration time')
def getData(self):
'''return the calculated lux value'''
try:
chA = self.bus.read_word_data(self.addr, 0xac)
chB = self.bus.read_word_data(self.addr, 0xae)
except:
raise Exception('An exception occured fetching lux channels')
# scary computations ahead! refer to the apds-9301 datasheet!
if chB / chA <= 0.5 and chB / chA > 0:
lux = 0.0304 * chA - 0.062 * chA * (chB / chA)**1.4
elif chB / chA <= 0.61 and chB / chA > 0.5:
lux = 0.0224 * chA - 0.031 * chB
elif chB / chA <= 0.8 and chB / chA > 0.61:
lux = 0.0128 * chA - 0.0153 * chB
elif chB / chA <= 1.3 and chB / chA > 0.8:
lux = 0.00146 * chA - 0.00112 * chB
else:
lux = 0
return lux
class UVSensor:
'''Class representing VEML6075 UVA/B meter'''
def __init__(self, bus=1, addr=0x10):
self.addr = addr
try:
self.bus = smbus2.SMBus(bus)
except:
raise Exception(
'An exception occured opening SMBus {}'.format(bus))
try:
# enable the sensor and set the integration time
self.bus.write_byte_data(self.addr, 0x00, 0b00010000)
except:
raise Exception(
'An exception occured when initalizing the UV Sensor')
def getABI(self):
'''Calculates the UVA and UVB irradiances,
along with UV index. Returns [a,b,i]'''
try:
# read the raw UVA, UVB and compensation values from the sensor
aRaw = self.bus.read_word_data(self.addr, 0x07)
bRaw = self.bus.read_word_data(self.addr, 0x09)
c1 = self.bus.read_word_data(self.addr, 0x0a)
c2 = self.bus.read_word_data(self.addr, 0x0b)
except:
raise Exception('An exception occured when fetching raw UV data')
# scary computations ahead! refer to Vishay app note 84339 and Sparkfun
# VEML6075 documentation.
# compensate for visible and IR noise
aCorr = aRaw - 2.22 * c1 - 1.33 * c2
bCorr = bRaw - 2.95 * c1 - 1.74 * c2
# convert values into irradiances
a = aCorr * 1.06
b = bCorr * 0.48
# zero out negative results (readings with no uv)
if a < 0:
a = 0
if b < 0:
b = 0
# last, calculate the UV index
i = (a + b) / 2
return [a, b, i]
def getA(self):
'''Returns UVA value. A getABI() wrapper.'''
return self.getABI()[0]
def getB(self):
'''Returns UVB value. A getABI() wrapper.'''
return self.getABI()[1]
def getI(self):
'''Returns UV index. A getABI() wrapper.'''
return self.getABI()[2]
def on(self):
'''Turns the UV sensor on after shutdown.'''
try:
# write the default value for power on
# no configurable params = no bitmask
self.bus.write_byte_data(self.addr, 0x00, 0x10)
except:
raise Exception(
'An exception occured when turning the UV sensor on')
def off(self):
'''Shuts the UV sensor down.'''
try:
# write the default value + the shutdown bit
# no configurable params = no bitmask
self.bus.write_byte_data(self.addr, 0x00, 0x11)
except:
raise Exception(
'An exception occured when shutting the UV sensor down')
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# storage.py - storage backend for TeraHz
'''TeraHz storage backend'''
# Copyright Kristjan Komloši 2019
# All code in this file is licensed under the ISC license,
# provided in LICENSE.txt
import sqlite3
class jsonStorage:
'''Class for simple sqlite3 database of JSON entries'''
def __init__(self, dbFile):
'''Storage object constructor. Argument is filename'''
self.db = sqlite3.connect(dbFile)
def listJSONs(self):
'''Returns a list of all existing entries.'''
c = self.db.cursor()
c.execute('SELECT * FROM storage')
result = c.fetchall()
c.close()
return result
def storeJSON(self, jsonString, comment):
'''Stores a JSON entry along with a timestamp and a comment.'''
c = self.db.cursor()
c.execute(('INSERT INTO storage VALUES (datetime'
'(\'now\', \'localtime\'), ?, ?)'), (comment, jsonString))
c.close()
self.db.commit()
def retrieveJSON(self, timestamp):
'''Retrieves a JSON entry. Takes a timestamp string'''
c = self.db.cursor()
c.execute('SELECT * FROM storage WHERE timestamp = ?', (timestamp,))
result = c.fetchall()
c.close()
return result
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#!/usr/bin/python3
# Minimal flup configuration for Flask
from flup.server.fcgi import WSGIServer
from app import app
if __name__ == '__main__':
WSGIServer(app, bindAddress='/var/www/api/terahz.sock').run()
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# TeraHz build guide
In its early development phase, TeraHz was hard and time-consuming to compile and install.
This is not case now, as the more optimized DietPi Linux distribution allows
better performance and simpler configuration than formerly used Raspbian.
## Downloading the preconfigured image
DietPi needs some initial configuration to support TeraHz. To shorten the process,
Preconfigured SD card images are available for download under the release tab in
the Github repository
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# Development-stable dependencies
The current development version of TeraHz has been verified to work with:
- Raspbian Stretch (9)
- Python 3.6.8 (built from source code and altinstall'd)
- Module versions (direct `pip3.6 list` output):
```
Package Version
--------------- ---------
Click 7.0
Flask 1.0.3
itsdangerous 1.1.0
Jinja2 2.10.1
MarkupSafe 1.1.1
numpy 1.16.4
pandas 0.24.2
pip 18.1
pyserial 3.4
python-dateutil 2.8.0
pytz 2019.1
setuptools 40.6.2
six 1.12.0
smbus 1.1.post2
Werkzeug 0.15.4
```
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# TeraHz developer's guide
This document explains how TeraHz works. It's a good starting point for developers
and an interesting read for the curious.
# Hardware
TeraHz was developed on and for the Raspberry Pi 3 Model B+. Compatibility with
other Raspberries can probably be achieved by tweaking the device paths in the
`app.py` file, but isn't confirmed at this point. Theoretically, 3 Model B and
Zero W should work out of the box, but models without Wi-Fi will need an
external Wi-Fi adapter if Wi-Fi functionality is desired. The practicality of
compiling Python on the first generation of Raspberry Pis is also very
questionable.
Sensors required for operation are:
+ AS7265x
+ VEML6075
+ APDS-9301
They provide the spectrometry data, UV data and illuminance data, respectively.
They all support I2C, AS7265x supports UART in addition.
The sensors leech power from the GPIO connector, thus eliminating the need for a
separate power supply. The necessary power for the whole system is delivered through
the Raspberry's USB port. This also allows for considerable versatility, as it
enables the resulting device to be either wall-powered or battery-powered.
In a portable configuration, I used a one-cell power bank, which allowed for
about 45 minutes of continuous operation.
## AS7265x chipset
_[Datasheet][1ds] [Buy breakout board][1]_
This chipset supports either I2C or UART. Because transferring large amounts of
data over I2C is rather cumbersome, TeraHz uses AS7265x in UART mode.
This chipset consists of three rather small surface-mounted chips and requires
an EEPROM. To lower the complexity of assembly for the end-user, I recommend
using a breakout board.
The serial UART connection operates at 115200 baud, which seems to be the
standard for most recent embedded peripherals. As with most serial hardware,
the TxD and RxD lines must be crossed over when connecting to the processor.
Communication with the sensor is simple and clear through AT commands. There's
a lot of them, all documented inside the datasheet, but the most important one
is `ATGETCDATA`, which returns the calibrated spectral data from the sensors.
The data is returned in the form of a comma-separated list of floating point
values, ending with a newline. The order is alphabetical, which is __different
from wavelength order__. See the datasheet for more information.
## VEML6075
_[Datasheet][2ds] [Buy breakout board][2]_
This chip communicates through I2C and provides TeraHz with UVA and UVB
irradiance readings. It's not an ideal chip for this task, as it's been marked
End-of-Life by Vishay and it'll have to be replaced with a better one in future
hardware versions of TeraHz.
The chip resides at the I2C address `0x10`. There's not a lot of communication
required: at initialization, the integration time has to be set and after that,
the sensor is ready to go.
16-bit UV values lie in two two-byte registers, `0x07` for UVA and `0x09` for
UVB. For correct result conversion, there are also two correction registers,
UVCOMP_1 and 2, located at `0x0A` and `0x0B`, respectively.
To convert these four values into irradiances, they must be multiplied by
certain constants, somewhat loosely defined in the sensor datasheet. Keep in
mind that the way of computing the "irradiance" is very much experimentally
derived, and even Vishay's tech support doesn't know how exactly to calculate
the irradiance.
## APDS-9301
_[Datasheet][3ds] [Buy breakout board][3]_
This chip measures illuminance in luxes and like the VEML6075, connects through
I2C. Unlike the VEML6075, this chip is very good at its job, providing accurate
and fast results without undefined mathematics or required calibration.
At power-on, it needs to be enabled and the sensor gain set to the high setting,
as the formula for Lux calculation is only defined for that setting. This
initialization is handled by the sensors module.
The lux reading is derived from two channels, descriptively called CH0 and CH1,
residing in respective 16-bit registers at addresses `0xAC` and `0xAE`. After a
successful read of both data registers, the lux value can be derived using the
formula in the sensor's datasheet.
[1]: https://www.tindie.com/products/onehorse/compact-as7265x-spectrometer/
[2]: https://www.sparkfun.com/products/15089
[3]: https://www.sparkfun.com/products/14350
[1ds]: sensor-docs/AS7265x.pdf
[2ds]: sensor-docs/veml6075.pdf
[3ds]: sensor-docs/APDS-9301.pdf
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# TeraHz Electrical Guide
This section briefly explains the neccessary electrical connections between the
Raspberry Pi and the sensors you'll need to make to ensure correct and safe
operation.
As mentioned before, TeraHz requires 3 sensors to operate. The simpler UVA/UVB
sensor and the ambient light analyzer connect to the Raspberry's SMBus (I2C)
bus, while the spectrometer connects via high-speed UART.
![pinout](imgs/raspi-pinout.png)
## PCBs vs breakout boards & jumpers
The Raspberry Pi GPIO port includes enough power pins to require only jumper
cables to connect the sensors to the Raspberry Pi. However, this is not a great
idea. During development, jumper cables have repeatedly been proven to be an
unreliable nuisance, and their absolute lack of rigidity helped me fry one of my
development Raspberry Pis. For this reason, I wholeheartedly recommend using a
simple PCB to route the connections from the Pi to the sensors. At this time,
there is no official TeraHz PCB, but it shall be announced and included in the
project when basic testing will be done.
GPIO can be routed to the PCB with a standard old IDE disk cable, and terminated
with another 40-pin connector at the PCB. Sensor breakouts should be mounted
<<<<<<< HEAD
through standard 0.1" connectors, male on the sensor breakout and female on the
PCB. A shitty add-on header and a shitty add-on header v1.69bis can't hurt, either.
=======
through standard 0.1" connectors, male on the sensor brakout and female on the
PCB. A shitty addon header and a shitty addon header v1.69bis can't hurt, either.
>>>>>>> fd1f07d40dace3e003e49377d4771de53f8bdeb8
## SMBus sensors
SMBus is a well-defined version of the well-known I2C bus, widely used
in computer motherboards for low-band bandwidth communication with various ICs,
especially sensors and power-supply related devices. This bus is broken out on
the Raspberry Pi GPIO port as the "I2C1" bus (see picture).
Pins are familiarly marked as SDA and SCL, the same as with classic I2C. They
connect to the SDA and SCL pins on the VEML6075 and APDS-9301 sensor.
## UART sensor
<<<<<<< HEAD
Spectral sensor attaches through the UART port on the Raspberry pi (see picture).
=======
Spectrometry sensor attaches through the UART port on the Raspberry pi (see picture).
>>>>>>> fd1f07d40dace3e003e49377d4771de53f8bdeb8
The Tx and Rx lines must cross over, connecting the sensor's Tx line to the
computer's Rx line and vice versa.
## Power supply
As the sensors require only a small amount of power, they can be powered directly from the Raspberry Pi itself, leeching power from the 3.3V lines.
## Ground
There's not a lot to say here, connect sensor GND to Pi's GND.
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<img alt="TeraHz logo" src="imgs/logo-sq.png" width="200px">
# TeraHz documentation - index
This is the starting point of TeraHz documentation.
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interface=wlan0
dhcp-range=192.168.1.10,192.168.1.100,255.255.255.0,24h
address=/terahz.site/192.168.1.1
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#!/bin/bash
# edit_ssid.sh - edits hostapd.conf and sets a MAC address-based SSID
cd `dirname $0`
ssid=`ip link | awk '/wlan0/ {getline; print $2}' | awk -v FS=':' '{printf("TeraHz_%s%s%s\n", $4, $5, $6)}'`
sed "/ssid=.*/s/ssid=.*/ssid=$ssid/" hostapd.conf > newconf
mv newconf hostapd.conf
-9
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@@ -1,9 +0,0 @@
interface=wlan0
hw_mode=g
channel=8
wpa=2
wpa_key_mgmt=WPA-PSK
wpa_pairwise=TKIP
rsn_pairwise=CCMP
ssid=TeraHz
wpa_passphrase=terahertz
-18
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@@ -1,18 +0,0 @@
# install.sh - install TeraHz onto a Raspbian or DietPi installation
apt -y update
apt -y full-upgrade
apt install -y python3 python3-pip lighttpd dnsmasq hostapd libatlas-base-dev
pip3 install numpy pandas flask smbus2 pyserial gunicorn
cp -R hostapd/ /etc
chmod +rx /etc/hostapd/edit_ssid.sh
cp dnsmasq.conf /etc
cp rc.local /etc
cp interfaces-terahz /etc/network/interfaces.d/
cp -R ../frontend/* /var/www/html
mkdir -p /usr/local/lib/terahz
cp -R ../backend/* /usr/local/lib/terahz
systemctl unmask dnsmasq hostapd lighttpd
systemctl enable dnsmasq hostapd lighttpd
-3
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@@ -1,3 +0,0 @@
iface wlan0 inet static
address 192.168.1.1
netmask 255.255.255.0
-27
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@@ -1,27 +0,0 @@
server.modules = (
"mod_access",
"mod_alias",
"mod_compress",
"mod_redirect"
)
server.document-root = "/var/www/html"
server.upload-dirs = ( "/var/cache/lighttpd/uploads" )
server.errorlog = "/var/log/lighttpd/error.log"
server.pid-file = "/var/run/lighttpd.pid"
server.username = "www-data"
server.groupname = "www-data"
server.port = 80
index-file.names = ( "index.php", "index.html", "index.lighttpd.html" )
url.access-deny = ( "~", ".inc" )
static-file.exclude-extensions = ( ".php", ".pl", ".fcgi" )
compress.cache-dir = "/var/cache/lighttpd/compress/"
compress.filetype = ( "application/javascript", "text/css", "text/html", "text/plain" )
# default listening port for IPv6 falls back to the IPv4 port
include_shell "/usr/share/lighttpd/use-ipv6.pl " + server.port
include_shell "/usr/share/lighttpd/create-mime.assign.pl"
include_shell "/usr/share/lighttpd/include-conf-enabled.pl"
-16
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@@ -1,16 +0,0 @@
#!/bin/sh -e
#
# rc.local
#
# This script is executed at the end of each multiuser runlevel.
# Make sure that the script will "exit 0" on success or any other
# value on error.
#
# In order to enable or disable this script just change the execution
# bits.
#
# By default this script does nothing.
/etc/hostapd/edit_ssid.sh &
/usr/local/lib/terahz/run.sh &
sleep 3
service hostapd restart # restart hostapd to prevent a weird startup race condition
-46
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@@ -1,46 +0,0 @@
// All code in this file is licensed under the ISC license, provided in LICENSE.txt
$('#update').click(function () {
updateData();
});
// jQuery event binder
function updateData () {
const url = 'http://' + window.location.hostname + ':5000/data';
$.ajax({ // spawn an AJAX request
url: url,
success: function (data, status) {
console.log(data);
graphSpectralData(data[0], 0);
fillTableData(data);
},
timeout: 2500 // this should be a pretty sane timeout
});
}
function graphSpectralData (obj, dom) {
// graph spectral data in obj into dom
var graphPoints = [];
var graphXTicks = [];
Object.keys(obj).forEach((element, index) => {
graphPoints.push([index, obj[element]]); // build array of points
graphXTicks.push([index, element]); // build array of axis labels
});
// console.log(graphPoints);
const options = {
grid: {color: 'white'},
xaxis: {ticks: graphXTicks}
};
$.plot('#graph', [graphPoints], options);
// flot expects an array of arrays (lines) of 2-element arrays (points)
}
function fillTableData (obj) {
// fill the obj data into HTML tables
Object.keys(obj[0])
.forEach((element) => { $('#' + element).text(obj[0][element]); });
$('#lx').text(obj[1]);
$('#uva').text(obj[2][0]);
$('#uvb').text(obj[2][1]);
$('#uvi').text(obj[2][2]);
}
-162
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<!DOCTYPE html>
<html>
<head>
<meta charset="utf8">
<link rel="stylesheet" href="lib/bootstrap.min.css">
<link rel="stylesheet" href="stylesheet.css">
<title>TeraHz</title>
</head>
<body>
<div class="container text-center">
<h1><img src="lib/logo-sq.png" height="64px">TeraHz</h1>
</div>
<div class="container">
<button id="update" class="btn btn-primary m-1 float-right">Get data</button>
<p id="debug">
</p>
<h3>Spectrogram</h3>
<div id="graph" style="height:480px;width:720px"></div>
<h3>Spectral readings</h3>
<table class="table table-dark table-sm" id="specter">
<thead class="thead-dark">
<tr>
<th>Band</th>
<th>Wavelength [nm]</th>
<th>Irradiance [μW/cm²]</th>
</tr>
</thead>
<tr>
<td>A</td>
<td>410 nm</td>
<td id="A">---</td>
</tr>
<tr>
<td>B</td>
<td>435 nm</td>
<td id="B">---</td>
</tr>
<tr>
<td>C</td>
<td>460 nm</td>
<td id="C">---</td>
</tr>
<tr>
<td>D</td>
<td>485 nm</td>
<td id="D">---</td>
</tr>
<tr>
<td>E</td>
<td>510 nm</td>
<td id="E">---</td>
</tr>
<tr>
<td>F</td>
<td>535 nm</td>
<td id="F">---</td>
</tr>
<tr>
<td>G</td>
<td>560 nm</td>
<td id="G">---</td>
</tr>
<tr>
<td>H</td>
<td>585 nm</td>
<td id="H">---</td>
</tr>
<tr>
<td>R</td>
<td>610 nm</td>
<td id="R">---</td>
</tr>
<tr>
<td>I</td>
<td>645 nm</td>
<td id="I">---</td>
</tr>
<tr>
<td>S</td>
<td>680 nm</td>
<td id="S">---</td>
</tr>
<tr>
<td>J</td>
<td>705 nm</td>
<td id="J">---</td>
</tr>
<tr>
<td>T</td>
<td>730 nm</td>
<td id="T">---</td>
</tr>
<tr>
<td>U</td>
<td>760 nm</td>
<td id="U">---</td>
</tr>
<tr class="table-secondary">
<td>V</td>
<td>810 nm</td>
<td id="V">---</td>
</tr>
<tr class="table-secondary">
<td>W</td>
<td>860 nm</td>
<td id="W">---</td>
</tr>
<tr class="table-secondary">
<td>K</td>
<td>900 nm</td>
<td id="K">---</td>
</tr>
<tr class="table-secondary">
<td>L</td>
<td>940 nm</td>
<td id="L">---</td>
</tr>
</table>
<br>
<h3>Lux and UV readings</h3>
<table class="table-dark table" id="luxuv">
<thead class="thead-dark">
<tr>
<th>Parameter</th>
<th>Value</th>
</tr>
</thead>
<tr>
<td>Illuminance [lx]</td>
<td id="lx">---</td>
</tr>
<tr>
<td>UVA irradiance [μW/cm²]</td>
<td id="uva">---</td>
</tr>
<tr>
<td>UVB irradiance [μW/cm²]</td>
<td id="uvb">---</td>
</tr>
<tr>
<td>UVA/UVB average [μW/cm²]</td>
<td id="uvi">---</td>
</tr>
</table>
</div>
<script src="lib/bootstrap.bundle.min.js"></script>
<script src="lib/jquery-3.4.1.min.js"></script>
<script src="lib/flot/jquery.flot.js"></script>
<script src="frontend.js"></script>
<script src="lib/flot/jquery.canvaswrapper.js"></script>
<script src="lib/flot/jquery.colorhelpers.js"></script>
<script src="lib/flot/jquery.flot.js"></script>
<script src="lib/flot/jquery.flot.saturated.js"></script>
<script src="lib/flot/jquery.flot.browser.js"></script>
<script src="lib/flot/jquery.flot.drawSeries.js"></script>
<script src="lib/flot/jquery.flot.uiConstants.js"></script>
</body>
</html>
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-550
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/** ## jquery.flot.canvaswrapper
This plugin contains the function for creating and manipulating both the canvas
layers and svg layers.
The Canvas object is a wrapper around an HTML5 canvas tag.
The constructor Canvas(cls, container) takes as parameters cls,
the list of classes to apply to the canvas adnd the containter,
element onto which to append the canvas. The canvas operations
don't work unless the canvas is attached to the DOM.
### jquery.canvaswrapper.js API functions
*/
(function($) {
var Canvas = function(cls, container) {
var element = container.getElementsByClassName(cls)[0];
if (!element) {
element = document.createElement('canvas');
element.className = cls;
element.style.direction = 'ltr';
element.style.position = 'absolute';
element.style.left = '0px';
element.style.top = '0px';
container.appendChild(element);
// If HTML5 Canvas isn't available, throw
if (!element.getContext) {
throw new Error('Canvas is not available.');
}
}
this.element = element;
var context = this.context = element.getContext('2d');
this.pixelRatio = $.plot.browser.getPixelRatio(context);
// Size the canvas to match the internal dimensions of its container
var width = $(container).width();
var height = $(container).height();
this.resize(width, height);
// Collection of HTML div layers for text overlaid onto the canvas
this.SVGContainer = null;
this.SVG = {};
// Cache of text fragments and metrics, so we can avoid expensively
// re-calculating them when the plot is re-rendered in a loop.
this._textCache = {};
}
/**
- resize(width, height)
Resizes the canvas to the given dimensions.
The width represents the new width of the canvas, meanwhile the height
is the new height of the canvas, both of them in pixels.
*/
Canvas.prototype.resize = function(width, height) {
var minSize = 10;
width = width < minSize ? minSize : width;
height = height < minSize ? minSize : height;
var element = this.element,
context = this.context,
pixelRatio = this.pixelRatio;
// Resize the canvas, increasing its density based on the display's
// pixel ratio; basically giving it more pixels without increasing the
// size of its element, to take advantage of the fact that retina
// displays have that many more pixels in the same advertised space.
// Resizing should reset the state (excanvas seems to be buggy though)
if (this.width !== width) {
element.width = width * pixelRatio;
element.style.width = width + 'px';
this.width = width;
}
if (this.height !== height) {
element.height = height * pixelRatio;
element.style.height = height + 'px';
this.height = height;
}
// Save the context, so we can reset in case we get replotted. The
// restore ensure that we're really back at the initial state, and
// should be safe even if we haven't saved the initial state yet.
context.restore();
context.save();
// Scale the coordinate space to match the display density; so even though we
// may have twice as many pixels, we still want lines and other drawing to
// appear at the same size; the extra pixels will just make them crisper.
context.scale(pixelRatio, pixelRatio);
};
/**
- clear()
Clears the entire canvas area, not including any overlaid HTML text
*/
Canvas.prototype.clear = function() {
this.context.clearRect(0, 0, this.width, this.height);
};
/**
- render()
Finishes rendering the canvas, including managing the text overlay.
*/
Canvas.prototype.render = function() {
var cache = this._textCache;
// For each text layer, add elements marked as active that haven't
// already been rendered, and remove those that are no longer active.
for (var layerKey in cache) {
if (hasOwnProperty.call(cache, layerKey)) {
var layer = this.getSVGLayer(layerKey),
layerCache = cache[layerKey];
var display = layer.style.display;
layer.style.display = 'none';
for (var styleKey in layerCache) {
if (hasOwnProperty.call(layerCache, styleKey)) {
var styleCache = layerCache[styleKey];
for (var key in styleCache) {
if (hasOwnProperty.call(styleCache, key)) {
var val = styleCache[key],
positions = val.positions;
for (var i = 0, position; positions[i]; i++) {
position = positions[i];
if (position.active) {
if (!position.rendered) {
layer.appendChild(position.element);
position.rendered = true;
}
} else {
positions.splice(i--, 1);
if (position.rendered) {
while (position.element.firstChild) {
position.element.removeChild(position.element.firstChild);
}
position.element.parentNode.removeChild(position.element);
}
}
}
if (positions.length === 0) {
if (val.measured) {
val.measured = false;
} else {
delete styleCache[key];
}
}
}
}
}
}
layer.style.display = display;
}
}
};
/**
- getSVGLayer(classes)
Creates (if necessary) and returns the SVG overlay container.
The classes string represents the string of space-separated CSS classes
used to uniquely identify the text layer. It return the svg-layer div.
*/
Canvas.prototype.getSVGLayer = function(classes) {
var layer = this.SVG[classes];
// Create the SVG layer if it doesn't exist
if (!layer) {
// Create the svg layer container, if it doesn't exist
var svgElement;
if (!this.SVGContainer) {
this.SVGContainer = document.createElement('div');
this.SVGContainer.className = 'flot-svg';
this.SVGContainer.style.position = 'absolute';
this.SVGContainer.style.top = '0px';
this.SVGContainer.style.left = '0px';
this.SVGContainer.style.height = '100%';
this.SVGContainer.style.width = '100%';
this.SVGContainer.style.pointerEvents = 'none';
this.element.parentNode.appendChild(this.SVGContainer);
svgElement = document.createElementNS('http://www.w3.org/2000/svg', 'svg');
svgElement.style.width = '100%';
svgElement.style.height = '100%';
this.SVGContainer.appendChild(svgElement);
} else {
svgElement = this.SVGContainer.firstChild;
}
layer = document.createElementNS('http://www.w3.org/2000/svg', 'g');
layer.setAttribute('class', classes);
layer.style.position = 'absolute';
layer.style.top = '0px';
layer.style.left = '0px';
layer.style.bottom = '0px';
layer.style.right = '0px';
svgElement.appendChild(layer);
this.SVG[classes] = layer;
}
return layer;
};
/**
- getTextInfo(layer, text, font, angle, width)
Creates (if necessary) and returns a text info object.
The object looks like this:
```js
{
width //Width of the text's wrapper div.
height //Height of the text's wrapper div.
element //The HTML div containing the text.
positions //Array of positions at which this text is drawn.
}
```
The positions array contains objects that look like this:
```js
{
active //Flag indicating whether the text should be visible.
rendered //Flag indicating whether the text is currently visible.
element //The HTML div containing the text.
text //The actual text and is identical with element[0].textContent.
x //X coordinate at which to draw the text.
y //Y coordinate at which to draw the text.
}
```
Each position after the first receives a clone of the original element.
The idea is that that the width, height, and general 'identity' of the
text is constant no matter where it is placed; the placements are a
secondary property.
Canvas maintains a cache of recently-used text info objects; getTextInfo
either returns the cached element or creates a new entry.
The layer parameter is string of space-separated CSS classes uniquely
identifying the layer containing this text.
Text is the text string to retrieve info for.
Font is either a string of space-separated CSS classes or a font-spec object,
defining the text's font and style.
Angle is the angle at which to rotate the text, in degrees. Angle is currently unused,
it will be implemented in the future.
The last parameter is the Maximum width of the text before it wraps.
The method returns a text info object.
*/
Canvas.prototype.getTextInfo = function(layer, text, font, angle, width) {
var textStyle, layerCache, styleCache, info;
// Cast the value to a string, in case we were given a number or such
text = '' + text;
// If the font is a font-spec object, generate a CSS font definition
if (typeof font === 'object') {
textStyle = font.style + ' ' + font.variant + ' ' + font.weight + ' ' + font.size + 'px/' + font.lineHeight + 'px ' + font.family;
} else {
textStyle = font;
}
// Retrieve (or create) the cache for the text's layer and styles
layerCache = this._textCache[layer];
if (layerCache == null) {
layerCache = this._textCache[layer] = {};
}
styleCache = layerCache[textStyle];
if (styleCache == null) {
styleCache = layerCache[textStyle] = {};
}
var key = generateKey(text);
info = styleCache[key];
// If we can't find a matching element in our cache, create a new one
if (!info) {
var element = document.createElementNS('http://www.w3.org/2000/svg', 'text');
if (text.indexOf('<br>') !== -1) {
addTspanElements(text, element, -9999);
} else {
var textNode = document.createTextNode(text);
element.appendChild(textNode);
}
element.style.position = 'absolute';
element.style.maxWidth = width;
element.setAttributeNS(null, 'x', -9999);
element.setAttributeNS(null, 'y', -9999);
if (typeof font === 'object') {
element.style.font = textStyle;
element.style.fill = font.fill;
} else if (typeof font === 'string') {
element.setAttribute('class', font);
}
this.getSVGLayer(layer).appendChild(element);
var elementRect = element.getBBox();
info = styleCache[key] = {
width: elementRect.width,
height: elementRect.height,
measured: true,
element: element,
positions: []
};
//remove elements from dom
while (element.firstChild) {
element.removeChild(element.firstChild);
}
element.parentNode.removeChild(element);
}
info.measured = true;
return info;
};
function updateTransforms (element, transforms) {
element.transform.baseVal.clear();
if (transforms) {
transforms.forEach(function(t) {
element.transform.baseVal.appendItem(t);
});
}
}
/**
- addText (layer, x, y, text, font, angle, width, halign, valign, transforms)
Adds a text string to the canvas text overlay.
The text isn't drawn immediately; it is marked as rendering, which will
result in its addition to the canvas on the next render pass.
The layer is string of space-separated CSS classes uniquely
identifying the layer containing this text.
X and Y represents the X and Y coordinate at which to draw the text.
and text is the string to draw
*/
Canvas.prototype.addText = function(layer, x, y, text, font, angle, width, halign, valign, transforms) {
var info = this.getTextInfo(layer, text, font, angle, width),
positions = info.positions;
// Tweak the div's position to match the text's alignment
if (halign === 'center') {
x -= info.width / 2;
} else if (halign === 'right') {
x -= info.width;
}
if (valign === 'middle') {
y -= info.height / 2;
} else if (valign === 'bottom') {
y -= info.height;
}
y += 0.75 * info.height;
// Determine whether this text already exists at this position.
// If so, mark it for inclusion in the next render pass.
for (var i = 0, position; positions[i]; i++) {
position = positions[i];
if (position.x === x && position.y === y && position.text === text) {
position.active = true;
// update the transforms
updateTransforms(position.element, transforms);
return;
} else if (position.active === false) {
position.active = true;
position.text = text;
if (text.indexOf('<br>') !== -1) {
y -= 0.25 * info.height;
addTspanElements(text, position.element, x);
} else {
position.element.textContent = text;
}
position.element.setAttributeNS(null, 'x', x);
position.element.setAttributeNS(null, 'y', y);
position.x = x;
position.y = y;
// update the transforms
updateTransforms(position.element, transforms);
return;
}
}
// If the text doesn't exist at this position, create a new entry
// For the very first position we'll re-use the original element,
// while for subsequent ones we'll clone it.
position = {
active: true,
rendered: false,
element: positions.length ? info.element.cloneNode() : info.element,
text: text,
x: x,
y: y
};
positions.push(position);
if (text.indexOf('<br>') !== -1) {
y -= 0.25 * info.height;
addTspanElements(text, position.element, x);
} else {
position.element.textContent = text;
}
// Move the element to its final position within the container
position.element.setAttributeNS(null, 'x', x);
position.element.setAttributeNS(null, 'y', y);
position.element.style.textAlign = halign;
// update the transforms
updateTransforms(position.element, transforms);
};
var addTspanElements = function(text, element, x) {
var lines = text.split('<br>'),
tspan, i, offset;
for (i = 0; i < lines.length; i++) {
if (!element.childNodes[i]) {
tspan = document.createElementNS('http://www.w3.org/2000/svg', 'tspan');
element.appendChild(tspan);
} else {
tspan = element.childNodes[i];
}
tspan.textContent = lines[i];
offset = i * 1 + 'em';
tspan.setAttributeNS(null, 'dy', offset);
tspan.setAttributeNS(null, 'x', x);
}
}
/**
- removeText (layer, x, y, text, font, angle)
The function removes one or more text strings from the canvas text overlay.
If no parameters are given, all text within the layer is removed.
Note that the text is not immediately removed; it is simply marked as
inactive, which will result in its removal on the next render pass.
This avoids the performance penalty for 'clear and redraw' behavior,
where we potentially get rid of all text on a layer, but will likely
add back most or all of it later, as when redrawing axes, for example.
The layer is a string of space-separated CSS classes uniquely
identifying the layer containing this text. The following parameter are
X and Y coordinate of the text.
Text is the string to remove, while the font is either a string of space-separated CSS
classes or a font-spec object, defining the text's font and style.
*/
Canvas.prototype.removeText = function(layer, x, y, text, font, angle) {
var info, htmlYCoord;
if (text == null) {
var layerCache = this._textCache[layer];
if (layerCache != null) {
for (var styleKey in layerCache) {
if (hasOwnProperty.call(layerCache, styleKey)) {
var styleCache = layerCache[styleKey];
for (var key in styleCache) {
if (hasOwnProperty.call(styleCache, key)) {
var positions = styleCache[key].positions;
positions.forEach(function(position) {
position.active = false;
});
}
}
}
}
}
} else {
info = this.getTextInfo(layer, text, font, angle);
positions = info.positions;
positions.forEach(function(position) {
htmlYCoord = y + 0.75 * info.height;
if (position.x === x && position.y === htmlYCoord && position.text === text) {
position.active = false;
}
});
}
};
/**
- clearCache()
Clears the cache used to speed up the text size measurements.
As an (unfortunate) side effect all text within the text Layer is removed.
Use this function before plot.setupGrid() and plot.draw() if the plot just
became visible or the styles changed.
*/
Canvas.prototype.clearCache = function() {
var cache = this._textCache;
for (var layerKey in cache) {
if (hasOwnProperty.call(cache, layerKey)) {
var layer = this.getSVGLayer(layerKey);
while (layer.firstChild) {
layer.removeChild(layer.firstChild);
}
}
};
this._textCache = {};
};
function generateKey(text) {
return text.replace(/0|1|2|3|4|5|6|7|8|9/g, '0');
}
if (!window.Flot) {
window.Flot = {};
}
window.Flot.Canvas = Canvas;
})(jQuery);
-199
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@@ -1,199 +0,0 @@
/* Plugin for jQuery for working with colors.
*
* Version 1.1.
*
* Inspiration from jQuery color animation plugin by John Resig.
*
* Released under the MIT license by Ole Laursen, October 2009.
*
* Examples:
*
* $.color.parse("#fff").scale('rgb', 0.25).add('a', -0.5).toString()
* var c = $.color.extract($("#mydiv"), 'background-color');
* console.log(c.r, c.g, c.b, c.a);
* $.color.make(100, 50, 25, 0.4).toString() // returns "rgba(100,50,25,0.4)"
*
* Note that .scale() and .add() return the same modified object
* instead of making a new one.
*
* V. 1.1: Fix error handling so e.g. parsing an empty string does
* produce a color rather than just crashing.
*/
(function($) {
$.color = {};
// construct color object with some convenient chainable helpers
$.color.make = function (r, g, b, a) {
var o = {};
o.r = r || 0;
o.g = g || 0;
o.b = b || 0;
o.a = a != null ? a : 1;
o.add = function (c, d) {
for (var i = 0; i < c.length; ++i) {
o[c.charAt(i)] += d;
}
return o.normalize();
};
o.scale = function (c, f) {
for (var i = 0; i < c.length; ++i) {
o[c.charAt(i)] *= f;
}
return o.normalize();
};
o.toString = function () {
if (o.a >= 1.0) {
return "rgb(" + [o.r, o.g, o.b].join(",") + ")";
} else {
return "rgba(" + [o.r, o.g, o.b, o.a].join(",") + ")";
}
};
o.normalize = function () {
function clamp(min, value, max) {
return value < min ? min : (value > max ? max : value);
}
o.r = clamp(0, parseInt(o.r), 255);
o.g = clamp(0, parseInt(o.g), 255);
o.b = clamp(0, parseInt(o.b), 255);
o.a = clamp(0, o.a, 1);
return o;
};
o.clone = function () {
return $.color.make(o.r, o.b, o.g, o.a);
};
return o.normalize();
}
// extract CSS color property from element, going up in the DOM
// if it's "transparent"
$.color.extract = function (elem, css) {
var c;
do {
c = elem.css(css).toLowerCase();
// keep going until we find an element that has color, or
// we hit the body or root (have no parent)
if (c !== '' && c !== 'transparent') {
break;
}
elem = elem.parent();
} while (elem.length && !$.nodeName(elem.get(0), "body"));
// catch Safari's way of signalling transparent
if (c === "rgba(0, 0, 0, 0)") {
c = "transparent";
}
return $.color.parse(c);
}
// parse CSS color string (like "rgb(10, 32, 43)" or "#fff"),
// returns color object, if parsing failed, you get black (0, 0,
// 0) out
$.color.parse = function (str) {
var res, m = $.color.make;
// Look for rgb(num,num,num)
res = /rgb\(\s*([0-9]{1,3})\s*,\s*([0-9]{1,3})\s*,\s*([0-9]{1,3})\s*\)/.exec(str);
if (res) {
return m(parseInt(res[1], 10), parseInt(res[2], 10), parseInt(res[3], 10));
}
// Look for rgba(num,num,num,num)
res = /rgba\(\s*([0-9]{1,3})\s*,\s*([0-9]{1,3})\s*,\s*([0-9]{1,3})\s*,\s*([0-9]+(?:\.[0-9]+)?)\s*\)/.exec(str)
if (res) {
return m(parseInt(res[1], 10), parseInt(res[2], 10), parseInt(res[3], 10), parseFloat(res[4]));
}
// Look for rgb(num%,num%,num%)
res = /rgb\(\s*([0-9]+(?:\.[0-9]+)?)%\s*,\s*([0-9]+(?:\.[0-9]+)?)%\s*,\s*([0-9]+(?:\.[0-9]+)?)%\s*\)/.exec(str);
if (res) {
return m(parseFloat(res[1]) * 2.55, parseFloat(res[2]) * 2.55, parseFloat(res[3]) * 2.55);
}
// Look for rgba(num%,num%,num%,num)
res = /rgba\(\s*([0-9]+(?:\.[0-9]+)?)%\s*,\s*([0-9]+(?:\.[0-9]+)?)%\s*,\s*([0-9]+(?:\.[0-9]+)?)%\s*,\s*([0-9]+(?:\.[0-9]+)?)\s*\)/.exec(str);
if (res) {
return m(parseFloat(res[1]) * 2.55, parseFloat(res[2]) * 2.55, parseFloat(res[3]) * 2.55, parseFloat(res[4]));
}
// Look for #a0b1c2
res = /#([a-fA-F0-9]{2})([a-fA-F0-9]{2})([a-fA-F0-9]{2})/.exec(str);
if (res) {
return m(parseInt(res[1], 16), parseInt(res[2], 16), parseInt(res[3], 16));
}
// Look for #fff
res = /#([a-fA-F0-9])([a-fA-F0-9])([a-fA-F0-9])/.exec(str);
if (res) {
return m(parseInt(res[1] + res[1], 16), parseInt(res[2] + res[2], 16), parseInt(res[3] + res[3], 16));
}
// Otherwise, we're most likely dealing with a named color
var name = $.trim(str).toLowerCase();
if (name === "transparent") {
return m(255, 255, 255, 0);
} else {
// default to black
res = lookupColors[name] || [0, 0, 0];
return m(res[0], res[1], res[2]);
}
}
var lookupColors = {
aqua: [0, 255, 255],
azure: [240, 255, 255],
beige: [245, 245, 220],
black: [0, 0, 0],
blue: [0, 0, 255],
brown: [165, 42, 42],
cyan: [0, 255, 255],
darkblue: [0, 0, 139],
darkcyan: [0, 139, 139],
darkgrey: [169, 169, 169],
darkgreen: [0, 100, 0],
darkkhaki: [189, 183, 107],
darkmagenta: [139, 0, 139],
darkolivegreen: [85, 107, 47],
darkorange: [255, 140, 0],
darkorchid: [153, 50, 204],
darkred: [139, 0, 0],
darksalmon: [233, 150, 122],
darkviolet: [148, 0, 211],
fuchsia: [255, 0, 255],
gold: [255, 215, 0],
green: [0, 128, 0],
indigo: [75, 0, 130],
khaki: [240, 230, 140],
lightblue: [173, 216, 230],
lightcyan: [224, 255, 255],
lightgreen: [144, 238, 144],
lightgrey: [211, 211, 211],
lightpink: [255, 182, 193],
lightyellow: [255, 255, 224],
lime: [0, 255, 0],
magenta: [255, 0, 255],
maroon: [128, 0, 0],
navy: [0, 0, 128],
olive: [128, 128, 0],
orange: [255, 165, 0],
pink: [255, 192, 203],
purple: [128, 0, 128],
violet: [128, 0, 128],
red: [255, 0, 0],
silver: [192, 192, 192],
white: [255, 255, 255],
yellow: [255, 255, 0]
};
})(jQuery);
-212
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@@ -1,212 +0,0 @@
/*
Axis label plugin for flot
Derived from:
Axis Labels Plugin for flot.
http://github.com/markrcote/flot-axislabels
Original code is Copyright (c) 2010 Xuan Luo.
Original code was released under the GPLv3 license by Xuan Luo, September 2010.
Original code was rereleased under the MIT license by Xuan Luo, April 2012.
Permission is hereby granted, free of charge, to any person obtaining
a copy of this software and associated documentation files (the
"Software"), to deal in the Software without restriction, including
without limitation the rights to use, copy, modify, merge, publish,
distribute, sublicense, and/or sell copies of the Software, and to
permit persons to whom the Software is furnished to do so, subject to
the following conditions:
The above copyright notice and this permission notice shall be
included in all copies or substantial portions of the Software.
THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND,
EXPRESS OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF
MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE AND
NONINFRINGEMENT. IN NO EVENT SHALL THE AUTHORS OR COPYRIGHT HOLDERS BE
LIABLE FOR ANY CLAIM, DAMAGES OR OTHER LIABILITY, WHETHER IN AN ACTION
OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, OUT OF OR IN CONNECTION
WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE SOFTWARE.
*/
(function($) {
"use strict";
var options = {
axisLabels: {
show: true
}
};
function AxisLabel(axisName, position, padding, placeholder, axisLabel, surface) {
this.axisName = axisName;
this.position = position;
this.padding = padding;
this.placeholder = placeholder;
this.axisLabel = axisLabel;
this.surface = surface;
this.width = 0;
this.height = 0;
this.elem = null;
}
AxisLabel.prototype.calculateSize = function() {
var axisId = this.axisName + 'Label',
layerId = axisId + 'Layer',
className = axisId + ' axisLabels';
var info = this.surface.getTextInfo(layerId, this.axisLabel, className);
this.labelWidth = info.width;
this.labelHeight = info.height;
if (this.position === 'left' || this.position === 'right') {
this.width = this.labelHeight + this.padding;
this.height = 0;
} else {
this.width = 0;
this.height = this.labelHeight + this.padding;
}
};
AxisLabel.prototype.transforms = function(degrees, x, y, svgLayer) {
var transforms = [], translate, rotate;
if (x !== 0 || y !== 0) {
translate = svgLayer.createSVGTransform();
translate.setTranslate(x, y);
transforms.push(translate);
}
if (degrees !== 0) {
rotate = svgLayer.createSVGTransform();
var centerX = Math.round(this.labelWidth / 2),
centerY = 0;
rotate.setRotate(degrees, centerX, centerY);
transforms.push(rotate);
}
return transforms;
};
AxisLabel.prototype.calculateOffsets = function(box) {
var offsets = {
x: 0,
y: 0,
degrees: 0
};
if (this.position === 'bottom') {
offsets.x = box.left + box.width / 2 - this.labelWidth / 2;
offsets.y = box.top + box.height - this.labelHeight;
} else if (this.position === 'top') {
offsets.x = box.left + box.width / 2 - this.labelWidth / 2;
offsets.y = box.top;
} else if (this.position === 'left') {
offsets.degrees = -90;
offsets.x = box.left - this.labelWidth / 2;
offsets.y = box.height / 2 + box.top;
} else if (this.position === 'right') {
offsets.degrees = 90;
offsets.x = box.left + box.width - this.labelWidth / 2;
offsets.y = box.height / 2 + box.top;
}
offsets.x = Math.round(offsets.x);
offsets.y = Math.round(offsets.y);
return offsets;
};
AxisLabel.prototype.cleanup = function() {
var axisId = this.axisName + 'Label',
layerId = axisId + 'Layer',
className = axisId + ' axisLabels';
this.surface.removeText(layerId, 0, 0, this.axisLabel, className);
};
AxisLabel.prototype.draw = function(box) {
var axisId = this.axisName + 'Label',
layerId = axisId + 'Layer',
className = axisId + ' axisLabels',
offsets = this.calculateOffsets(box),
style = {
position: 'absolute',
bottom: '',
right: '',
display: 'inline-block',
'white-space': 'nowrap'
};
var layer = this.surface.getSVGLayer(layerId);
var transforms = this.transforms(offsets.degrees, offsets.x, offsets.y, layer.parentNode);
this.surface.addText(layerId, 0, 0, this.axisLabel, className, undefined, undefined, undefined, undefined, transforms);
this.surface.render();
Object.keys(style).forEach(function(key) {
layer.style[key] = style[key];
});
};
function init(plot) {
plot.hooks.processOptions.push(function(plot, options) {
if (!options.axisLabels.show) {
return;
}
var axisLabels = {};
var defaultPadding = 2; // padding between axis and tick labels
plot.hooks.axisReserveSpace.push(function(plot, axis) {
var opts = axis.options;
var axisName = axis.direction + axis.n;
axis.labelHeight += axis.boxPosition.centerY;
axis.labelWidth += axis.boxPosition.centerX;
if (!opts || !opts.axisLabel || !axis.show) {
return;
}
var padding = opts.axisLabelPadding === undefined
? defaultPadding
: opts.axisLabelPadding;
var axisLabel = axisLabels[axisName];
if (!axisLabel) {
axisLabel = new AxisLabel(axisName,
opts.position, padding,
plot.getPlaceholder()[0], opts.axisLabel, plot.getSurface());
axisLabels[axisName] = axisLabel;
}
axisLabel.calculateSize();
// Incrementing the sizes of the tick labels.
axis.labelHeight += axisLabel.height;
axis.labelWidth += axisLabel.width;
});
// TODO - use the drawAxis hook
plot.hooks.draw.push(function(plot, ctx) {
$.each(plot.getAxes(), function(flotAxisName, axis) {
var opts = axis.options;
if (!opts || !opts.axisLabel || !axis.show) {
return;
}
var axisName = axis.direction + axis.n;
axisLabels[axisName].draw(axis.box);
});
});
plot.hooks.shutdown.push(function(plot, eventHolder) {
for (var axisName in axisLabels) {
axisLabels[axisName].cleanup();
}
});
});
};
$.plot.plugins.push({
init: init,
options: options,
name: 'axisLabels',
version: '3.0'
});
})(jQuery);
-98
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@@ -1,98 +0,0 @@
/** ## jquery.flot.browser.js
This plugin is used to make available some browser-related utility functions.
### Methods
*/
(function ($) {
'use strict';
var browser = {
/**
- getPageXY(e)
Calculates the pageX and pageY using the screenX, screenY properties of the event
and the scrolling of the page. This is needed because the pageX and pageY
properties of the event are not correct while running tests in Edge. */
getPageXY: function (e) {
// This code is inspired from https://stackoverflow.com/a/3464890
var doc = document.documentElement,
pageX = e.clientX + (window.pageXOffset || doc.scrollLeft) - (doc.clientLeft || 0),
pageY = e.clientY + (window.pageYOffset || doc.scrollTop) - (doc.clientTop || 0);
return { X: pageX, Y: pageY };
},
/**
- getPixelRatio(context)
This function returns the current pixel ratio defined by the product of desktop
zoom and page zoom.
Additional info: https://www.html5rocks.com/en/tutorials/canvas/hidpi/
*/
getPixelRatio: function(context) {
var devicePixelRatio = window.devicePixelRatio || 1,
backingStoreRatio =
context.webkitBackingStorePixelRatio ||
context.mozBackingStorePixelRatio ||
context.msBackingStorePixelRatio ||
context.oBackingStorePixelRatio ||
context.backingStorePixelRatio || 1;
return devicePixelRatio / backingStoreRatio;
},
/**
- isSafari, isMobileSafari, isOpera, isFirefox, isIE, isEdge, isChrome, isBlink
This is a collection of functions, used to check if the code is running in a
particular browser or Javascript engine.
*/
isSafari: function() {
// *** https://stackoverflow.com/questions/9847580/how-to-detect-safari-chrome-ie-firefox-and-opera-browser
// Safari 3.0+ "[object HTMLElementConstructor]"
return /constructor/i.test(window.top.HTMLElement) || (function (p) { return p.toString() === "[object SafariRemoteNotification]"; })(!window.top['safari'] || (typeof window.top.safari !== 'undefined' && window.top.safari.pushNotification));
},
isMobileSafari: function() {
//isMobileSafari adapted from https://stackoverflow.com/questions/3007480/determine-if-user-navigated-from-mobile-safari
return navigator.userAgent.match(/(iPod|iPhone|iPad)/) && navigator.userAgent.match(/AppleWebKit/);
},
isOpera: function() {
// *** https://stackoverflow.com/questions/9847580/how-to-detect-safari-chrome-ie-firefox-and-opera-browser
//Opera 8.0+
return (!!window.opr && !!opr.addons) || !!window.opera || navigator.userAgent.indexOf(' OPR/') >= 0;
},
isFirefox: function() {
// *** https://stackoverflow.com/questions/9847580/how-to-detect-safari-chrome-ie-firefox-and-opera-browser
// Firefox 1.0+
return typeof InstallTrigger !== 'undefined';
},
isIE: function() {
// *** https://stackoverflow.com/questions/9847580/how-to-detect-safari-chrome-ie-firefox-and-opera-browser
// Internet Explorer 6-11
return /*@cc_on!@*/false || !!document.documentMode;
},
isEdge: function() {
// *** https://stackoverflow.com/questions/9847580/how-to-detect-safari-chrome-ie-firefox-and-opera-browser
// Edge 20+
return !browser.isIE() && !!window.StyleMedia;
},
isChrome: function() {
// *** https://stackoverflow.com/questions/9847580/how-to-detect-safari-chrome-ie-firefox-and-opera-browser
// Chrome 1+
return !!window.chrome && !!window.chrome.webstore;
},
isBlink: function() {
// *** https://stackoverflow.com/questions/9847580/how-to-detect-safari-chrome-ie-firefox-and-opera-browser
return (browser.isChrome() || browser.isOpera()) && !!window.CSS;
}
};
$.plot.browser = browser;
})(jQuery);
-202
View File
@@ -1,202 +0,0 @@
/* Flot plugin for plotting textual data or categories.
Copyright (c) 2007-2014 IOLA and Ole Laursen.
Licensed under the MIT license.
Consider a dataset like [["February", 34], ["March", 20], ...]. This plugin
allows you to plot such a dataset directly.
To enable it, you must specify mode: "categories" on the axis with the textual
labels, e.g.
$.plot("#placeholder", data, { xaxis: { mode: "categories" } });
By default, the labels are ordered as they are met in the data series. If you
need a different ordering, you can specify "categories" on the axis options
and list the categories there:
xaxis: {
mode: "categories",
categories: ["February", "March", "April"]
}
If you need to customize the distances between the categories, you can specify
"categories" as an object mapping labels to values
xaxis: {
mode: "categories",
categories: { "February": 1, "March": 3, "April": 4 }
}
If you don't specify all categories, the remaining categories will be numbered
from the max value plus 1 (with a spacing of 1 between each).
Internally, the plugin works by transforming the input data through an auto-
generated mapping where the first category becomes 0, the second 1, etc.
Hence, a point like ["February", 34] becomes [0, 34] internally in Flot (this
is visible in hover and click events that return numbers rather than the
category labels). The plugin also overrides the tick generator to spit out the
categories as ticks instead of the values.
If you need to map a value back to its label, the mapping is always accessible
as "categories" on the axis object, e.g. plot.getAxes().xaxis.categories.
*/
(function ($) {
var options = {
xaxis: {
categories: null
},
yaxis: {
categories: null
}
};
function processRawData(plot, series, data, datapoints) {
// if categories are enabled, we need to disable
// auto-transformation to numbers so the strings are intact
// for later processing
var xCategories = series.xaxis.options.mode === "categories",
yCategories = series.yaxis.options.mode === "categories";
if (!(xCategories || yCategories)) {
return;
}
var format = datapoints.format;
if (!format) {
// FIXME: auto-detection should really not be defined here
var s = series;
format = [];
format.push({ x: true, number: true, required: true, computeRange: true});
format.push({ y: true, number: true, required: true, computeRange: true });
if (s.bars.show || (s.lines.show && s.lines.fill)) {
var autoScale = !!((s.bars.show && s.bars.zero) || (s.lines.show && s.lines.zero));
format.push({ y: true, number: true, required: false, defaultValue: 0, computeRange: autoScale });
if (s.bars.horizontal) {
delete format[format.length - 1].y;
format[format.length - 1].x = true;
}
}
datapoints.format = format;
}
for (var m = 0; m < format.length; ++m) {
if (format[m].x && xCategories) {
format[m].number = false;
}
if (format[m].y && yCategories) {
format[m].number = false;
format[m].computeRange = false;
}
}
}
function getNextIndex(categories) {
var index = -1;
for (var v in categories) {
if (categories[v] > index) {
index = categories[v];
}
}
return index + 1;
}
function categoriesTickGenerator(axis) {
var res = [];
for (var label in axis.categories) {
var v = axis.categories[label];
if (v >= axis.min && v <= axis.max) {
res.push([v, label]);
}
}
res.sort(function (a, b) { return a[0] - b[0]; });
return res;
}
function setupCategoriesForAxis(series, axis, datapoints) {
if (series[axis].options.mode !== "categories") {
return;
}
if (!series[axis].categories) {
// parse options
var c = {}, o = series[axis].options.categories || {};
if ($.isArray(o)) {
for (var i = 0; i < o.length; ++i) {
c[o[i]] = i;
}
} else {
for (var v in o) {
c[v] = o[v];
}
}
series[axis].categories = c;
}
// fix ticks
if (!series[axis].options.ticks) {
series[axis].options.ticks = categoriesTickGenerator;
}
transformPointsOnAxis(datapoints, axis, series[axis].categories);
}
function transformPointsOnAxis(datapoints, axis, categories) {
// go through the points, transforming them
var points = datapoints.points,
ps = datapoints.pointsize,
format = datapoints.format,
formatColumn = axis.charAt(0),
index = getNextIndex(categories);
for (var i = 0; i < points.length; i += ps) {
if (points[i] == null) {
continue;
}
for (var m = 0; m < ps; ++m) {
var val = points[i + m];
if (val == null || !format[m][formatColumn]) {
continue;
}
if (!(val in categories)) {
categories[val] = index;
++index;
}
points[i + m] = categories[val];
}
}
}
function processDatapoints(plot, series, datapoints) {
setupCategoriesForAxis(series, "xaxis", datapoints);
setupCategoriesForAxis(series, "yaxis", datapoints);
}
function init(plot) {
plot.hooks.processRawData.push(processRawData);
plot.hooks.processDatapoints.push(processDatapoints);
}
$.plot.plugins.push({
init: init,
options: options,
name: 'categories',
version: '1.0'
});
})(jQuery);
@@ -1,330 +0,0 @@
/** ## jquery.flot.composeImages.js
This plugin is used to expose a function used to overlap several canvases and
SVGs, for the purpose of creating a snaphot out of them.
### When composeImages is used:
When multiple canvases and SVGs have to be overlapped into a single image
and their offset on the page, must be preserved.
### Where can be used:
In creating a downloadable snapshot of the plots, axes, cursors etc of a graph.
### How it works:
The entry point is composeImages function. It expects an array of objects,
which should be either canvases or SVGs (or a mix). It does a prevalidation
of them, by verifying if they will be usable or not, later in the flow.
After selecting only usable sources, it passes them to getGenerateTempImg
function, which generates temporary images out of them. This function
expects that some of the passed sources (canvas or SVG) may still have
problems being converted to an image and makes sure the promises system,
used by composeImages function, moves forward. As an example, SVGs with
missing information from header or with unsupported content, may lead to
failure in generating the temporary image. Temporary images are required
mostly on extracting content from SVGs, but this is also where the x/y
offsets are extracted for each image which will be added. For SVGs in
particular, their CSS rules have to be applied.
After all temporary images are generated, they are overlapped using
getExecuteImgComposition function. This is where the destination canvas
is set to the proper dimensions. It is then output by composeImages.
This function returns a promise, which can be used to wait for the whole
composition process. It requires to be asynchronous, because this is how
temporary images load their data.
*/
(function($) {
"use strict";
const GENERALFAILURECALLBACKERROR = -100; //simply a negative number
const SUCCESSFULIMAGEPREPARATION = 0;
const EMPTYARRAYOFIMAGESOURCES = -1;
const NEGATIVEIMAGESIZE = -2;
var pixelRatio = 1;
var browser = $.plot.browser;
var getPixelRatio = browser.getPixelRatio;
function composeImages(canvasOrSvgSources, destinationCanvas) {
var validCanvasOrSvgSources = canvasOrSvgSources.filter(isValidSource);
pixelRatio = getPixelRatio(destinationCanvas.getContext('2d'));
var allImgCompositionPromises = validCanvasOrSvgSources.map(function(validCanvasOrSvgSource) {
var tempImg = new Image();
var currentPromise = new Promise(getGenerateTempImg(tempImg, validCanvasOrSvgSource));
return currentPromise;
});
var lastPromise = Promise.all(allImgCompositionPromises).then(getExecuteImgComposition(destinationCanvas), failureCallback);
return lastPromise;
}
function isValidSource(canvasOrSvgSource) {
var isValidFromCanvas = true;
var isValidFromContent = true;
if ((canvasOrSvgSource === null) || (canvasOrSvgSource === undefined)) {
isValidFromContent = false;
} else {
if (canvasOrSvgSource.tagName === 'CANVAS') {
if ((canvasOrSvgSource.getBoundingClientRect().right === canvasOrSvgSource.getBoundingClientRect().left) ||
(canvasOrSvgSource.getBoundingClientRect().bottom === canvasOrSvgSource.getBoundingClientRect().top)) {
isValidFromCanvas = false;
}
}
}
return isValidFromContent && isValidFromCanvas && (window.getComputedStyle(canvasOrSvgSource).visibility === 'visible');
}
function getGenerateTempImg(tempImg, canvasOrSvgSource) {
tempImg.sourceDescription = '<info className="' + canvasOrSvgSource.className + '" tagName="' + canvasOrSvgSource.tagName + '" id="' + canvasOrSvgSource.id + '">';
tempImg.sourceComponent = canvasOrSvgSource;
return function doGenerateTempImg(successCallbackFunc, failureCallbackFunc) {
tempImg.onload = function(evt) {
tempImg.successfullyLoaded = true;
successCallbackFunc(tempImg);
};
tempImg.onabort = function(evt) {
tempImg.successfullyLoaded = false;
console.log('Can\'t generate temp image from ' + tempImg.sourceDescription + '. It is possible that it is missing some properties or its content is not supported by this browser. Source component:', tempImg.sourceComponent);
successCallbackFunc(tempImg); //call successCallback, to allow snapshot of all working images
};
tempImg.onerror = function(evt) {
tempImg.successfullyLoaded = false;
console.log('Can\'t generate temp image from ' + tempImg.sourceDescription + '. It is possible that it is missing some properties or its content is not supported by this browser. Source component:', tempImg.sourceComponent);
successCallbackFunc(tempImg); //call successCallback, to allow snapshot of all working images
};
generateTempImageFromCanvasOrSvg(canvasOrSvgSource, tempImg);
};
}
function getExecuteImgComposition(destinationCanvas) {
return function executeImgComposition(tempImgs) {
var compositionResult = copyImgsToCanvas(tempImgs, destinationCanvas);
return compositionResult;
};
}
function copyCanvasToImg(canvas, img) {
img.src = canvas.toDataURL('image/png');
}
function getCSSRules(document) {
var styleSheets = document.styleSheets,
rulesList = [];
for (var i = 0; i < styleSheets.length; i++) {
// CORS requests for style sheets throw and an exception on Chrome > 64
try {
// in Chrome, the external CSS files are empty when the page is directly loaded from disk
var rules = styleSheets[i].cssRules || [];
for (var j = 0; j < rules.length; j++) {
var rule = rules[j];
rulesList.push(rule.cssText);
}
} catch (e) {
console.log('Failed to get some css rules');
}
}
return rulesList;
}
function embedCSSRulesInSVG(rules, svg) {
var text = [
'<svg class="snapshot ' + svg.classList + '" width="' + svg.width.baseVal.value * pixelRatio + '" height="' + svg.height.baseVal.value * pixelRatio + '" viewBox="0 0 ' + svg.width.baseVal.value + ' ' + svg.height.baseVal.value + '" xmlns="http://www.w3.org/2000/svg">',
'<style>',
'/* <![CDATA[ */',
rules.join('\n'),
'/* ]]> */',
'</style>',
svg.innerHTML,
'</svg>'
].join('\n');
return text;
}
function copySVGToImgMostBrowsers(svg, img) {
var rules = getCSSRules(document),
source = embedCSSRulesInSVG(rules, svg);
source = patchSVGSource(source);
var blob = new Blob([source], {type: "image/svg+xml;charset=utf-8"}),
domURL = self.URL || self.webkitURL || self,
url = domURL.createObjectURL(blob);
img.src = url;
}
function copySVGToImgSafari(svg, img) {
// Use this method to convert a string buffer array to a binary string.
// Do so by breaking up large strings into smaller substrings; this is necessary to avoid the
// "maximum call stack size exceeded" exception that can happen when calling 'String.fromCharCode.apply'
// with a very long array.
function buildBinaryString (arrayBuffer) {
var binaryString = "";
const utf8Array = new Uint8Array(arrayBuffer);
const blockSize = 16384;
for (var i = 0; i < utf8Array.length; i = i + blockSize) {
const binarySubString = String.fromCharCode.apply(null, utf8Array.subarray(i, i + blockSize));
binaryString = binaryString + binarySubString;
}
return binaryString;
};
var rules = getCSSRules(document),
source = embedCSSRulesInSVG(rules, svg),
data,
utf8BinaryString;
source = patchSVGSource(source);
// Encode the string as UTF-8 and convert it to a binary string. The UTF-8 encoding is required to
// capture unicode characters correctly.
utf8BinaryString = buildBinaryString(new (TextEncoder || TextEncoderLite)('utf-8').encode(source));
data = "data:image/svg+xml;base64," + btoa(utf8BinaryString);
img.src = data;
}
function patchSVGSource(svgSource) {
var source = '';
//add name spaces.
if (!svgSource.match(/^<svg[^>]+xmlns="http:\/\/www\.w3\.org\/2000\/svg"/)) {
source = svgSource.replace(/^<svg/, '<svg xmlns="http://www.w3.org/2000/svg"');
}
if (!svgSource.match(/^<svg[^>]+"http:\/\/www\.w3\.org\/1999\/xlink"/)) {
source = svgSource.replace(/^<svg/, '<svg xmlns:xlink="http://www.w3.org/1999/xlink"');
}
//add xml declaration
return '<?xml version="1.0" standalone="no"?>\r\n' + source;
}
function copySVGToImg(svg, img) {
if (browser.isSafari() || browser.isMobileSafari()) {
copySVGToImgSafari(svg, img);
} else {
copySVGToImgMostBrowsers(svg, img);
}
}
function adaptDestSizeToZoom(destinationCanvas, sources) {
function containsSVGs(source) {
return source.srcImgTagName === 'svg';
}
if (sources.find(containsSVGs) !== undefined) {
if (pixelRatio < 1) {
destinationCanvas.width = destinationCanvas.width * pixelRatio;
destinationCanvas.height = destinationCanvas.height * pixelRatio;
}
}
}
function prepareImagesToBeComposed(sources, destination) {
var result = SUCCESSFULIMAGEPREPARATION;
if (sources.length === 0) {
result = EMPTYARRAYOFIMAGESOURCES; //nothing to do if called without sources
} else {
var minX = sources[0].genLeft;
var minY = sources[0].genTop;
var maxX = sources[0].genRight;
var maxY = sources[0].genBottom;
var i = 0;
for (i = 1; i < sources.length; i++) {
if (minX > sources[i].genLeft) {
minX = sources[i].genLeft;
}
if (minY > sources[i].genTop) {
minY = sources[i].genTop;
}
}
for (i = 1; i < sources.length; i++) {
if (maxX < sources[i].genRight) {
maxX = sources[i].genRight;
}
if (maxY < sources[i].genBottom) {
maxY = sources[i].genBottom;
}
}
if ((maxX - minX <= 0) || (maxY - minY <= 0)) {
result = NEGATIVEIMAGESIZE; //this might occur on hidden images
} else {
destination.width = Math.round(maxX - minX);
destination.height = Math.round(maxY - minY);
for (i = 0; i < sources.length; i++) {
sources[i].xCompOffset = sources[i].genLeft - minX;
sources[i].yCompOffset = sources[i].genTop - minY;
}
adaptDestSizeToZoom(destination, sources);
}
}
return result;
}
function copyImgsToCanvas(sources, destination) {
var prepareImagesResult = prepareImagesToBeComposed(sources, destination);
if (prepareImagesResult === SUCCESSFULIMAGEPREPARATION) {
var destinationCtx = destination.getContext('2d');
for (var i = 0; i < sources.length; i++) {
if (sources[i].successfullyLoaded === true) {
destinationCtx.drawImage(sources[i], sources[i].xCompOffset * pixelRatio, sources[i].yCompOffset * pixelRatio);
}
}
}
return prepareImagesResult;
}
function adnotateDestImgWithBoundingClientRect(srcCanvasOrSvg, destImg) {
destImg.genLeft = srcCanvasOrSvg.getBoundingClientRect().left;
destImg.genTop = srcCanvasOrSvg.getBoundingClientRect().top;
if (srcCanvasOrSvg.tagName === 'CANVAS') {
destImg.genRight = destImg.genLeft + srcCanvasOrSvg.width;
destImg.genBottom = destImg.genTop + srcCanvasOrSvg.height;
}
if (srcCanvasOrSvg.tagName === 'svg') {
destImg.genRight = srcCanvasOrSvg.getBoundingClientRect().right;
destImg.genBottom = srcCanvasOrSvg.getBoundingClientRect().bottom;
}
}
function generateTempImageFromCanvasOrSvg(srcCanvasOrSvg, destImg) {
if (srcCanvasOrSvg.tagName === 'CANVAS') {
copyCanvasToImg(srcCanvasOrSvg, destImg);
}
if (srcCanvasOrSvg.tagName === 'svg') {
copySVGToImg(srcCanvasOrSvg, destImg);
}
destImg.srcImgTagName = srcCanvasOrSvg.tagName;
adnotateDestImgWithBoundingClientRect(srcCanvasOrSvg, destImg);
}
function failureCallback() {
return GENERALFAILURECALLBACKERROR;
}
// used for testing
$.plot.composeImages = composeImages;
function init(plot) {
// used to extend the public API of the plot
plot.composeImages = composeImages;
}
$.plot.plugins.push({
init: init,
name: 'composeImages',
version: '1.0'
});
})(jQuery);
-202
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@@ -1,202 +0,0 @@
/* Flot plugin for showing crosshairs when the mouse hovers over the plot.
Copyright (c) 2007-2014 IOLA and Ole Laursen.
Licensed under the MIT license.
The plugin supports these options:
crosshair: {
mode: null or "x" or "y" or "xy"
color: color
lineWidth: number
}
Set the mode to one of "x", "y" or "xy". The "x" mode enables a vertical
crosshair that lets you trace the values on the x axis, "y" enables a
horizontal crosshair and "xy" enables them both. "color" is the color of the
crosshair (default is "rgba(170, 0, 0, 0.80)"), "lineWidth" is the width of
the drawn lines (default is 1).
The plugin also adds four public methods:
- setCrosshair( pos )
Set the position of the crosshair. Note that this is cleared if the user
moves the mouse. "pos" is in coordinates of the plot and should be on the
form { x: xpos, y: ypos } (you can use x2/x3/... if you're using multiple
axes), which is coincidentally the same format as what you get from a
"plothover" event. If "pos" is null, the crosshair is cleared.
- clearCrosshair()
Clear the crosshair.
- lockCrosshair(pos)
Cause the crosshair to lock to the current location, no longer updating if
the user moves the mouse. Optionally supply a position (passed on to
setCrosshair()) to move it to.
Example usage:
var myFlot = $.plot( $("#graph"), ..., { crosshair: { mode: "x" } } };
$("#graph").bind( "plothover", function ( evt, position, item ) {
if ( item ) {
// Lock the crosshair to the data point being hovered
myFlot.lockCrosshair({
x: item.datapoint[ 0 ],
y: item.datapoint[ 1 ]
});
} else {
// Return normal crosshair operation
myFlot.unlockCrosshair();
}
});
- unlockCrosshair()
Free the crosshair to move again after locking it.
*/
(function ($) {
var options = {
crosshair: {
mode: null, // one of null, "x", "y" or "xy",
color: "rgba(170, 0, 0, 0.80)",
lineWidth: 1
}
};
function init(plot) {
// position of crosshair in pixels
var crosshair = {x: -1, y: -1, locked: false, highlighted: false};
plot.setCrosshair = function setCrosshair(pos) {
if (!pos) {
crosshair.x = -1;
} else {
var o = plot.p2c(pos);
crosshair.x = Math.max(0, Math.min(o.left, plot.width()));
crosshair.y = Math.max(0, Math.min(o.top, plot.height()));
}
plot.triggerRedrawOverlay();
};
plot.clearCrosshair = plot.setCrosshair; // passes null for pos
plot.lockCrosshair = function lockCrosshair(pos) {
if (pos) {
plot.setCrosshair(pos);
}
crosshair.locked = true;
};
plot.unlockCrosshair = function unlockCrosshair() {
crosshair.locked = false;
crosshair.rect = null;
};
function onMouseOut(e) {
if (crosshair.locked) {
return;
}
if (crosshair.x !== -1) {
crosshair.x = -1;
plot.triggerRedrawOverlay();
}
}
function onMouseMove(e) {
var offset = plot.offset();
if (crosshair.locked) {
var mouseX = Math.max(0, Math.min(e.pageX - offset.left, plot.width()));
var mouseY = Math.max(0, Math.min(e.pageY - offset.top, plot.height()));
if ((mouseX > crosshair.x - 4) && (mouseX < crosshair.x + 4) && (mouseY > crosshair.y - 4) && (mouseY < crosshair.y + 4)) {
if (!crosshair.highlighted) {
crosshair.highlighted = true;
plot.triggerRedrawOverlay();
}
} else {
if (crosshair.highlighted) {
crosshair.highlighted = false;
plot.triggerRedrawOverlay();
}
}
return;
}
if (plot.getSelection && plot.getSelection()) {
crosshair.x = -1; // hide the crosshair while selecting
return;
}
crosshair.x = Math.max(0, Math.min(e.pageX - offset.left, plot.width()));
crosshair.y = Math.max(0, Math.min(e.pageY - offset.top, plot.height()));
plot.triggerRedrawOverlay();
}
plot.hooks.bindEvents.push(function (plot, eventHolder) {
if (!plot.getOptions().crosshair.mode) {
return;
}
eventHolder.mouseout(onMouseOut);
eventHolder.mousemove(onMouseMove);
});
plot.hooks.drawOverlay.push(function (plot, ctx) {
var c = plot.getOptions().crosshair;
if (!c.mode) {
return;
}
var plotOffset = plot.getPlotOffset();
ctx.save();
ctx.translate(plotOffset.left, plotOffset.top);
if (crosshair.x !== -1) {
var adj = plot.getOptions().crosshair.lineWidth % 2 ? 0.5 : 0;
ctx.strokeStyle = c.color;
ctx.lineWidth = c.lineWidth;
ctx.lineJoin = "round";
ctx.beginPath();
if (c.mode.indexOf("x") !== -1) {
var drawX = Math.floor(crosshair.x) + adj;
ctx.moveTo(drawX, 0);
ctx.lineTo(drawX, plot.height());
}
if (c.mode.indexOf("y") !== -1) {
var drawY = Math.floor(crosshair.y) + adj;
ctx.moveTo(0, drawY);
ctx.lineTo(plot.width(), drawY);
}
if (crosshair.locked) {
if (crosshair.highlighted) ctx.fillStyle = 'orange';
else ctx.fillStyle = c.color;
ctx.fillRect(Math.floor(crosshair.x) + adj - 4, Math.floor(crosshair.y) + adj - 4, 8, 8);
}
ctx.stroke();
}
ctx.restore();
});
plot.hooks.shutdown.push(function (plot, eventHolder) {
eventHolder.unbind("mouseout", onMouseOut);
eventHolder.unbind("mousemove", onMouseMove);
});
}
$.plot.plugins.push({
init: init,
options: options,
name: 'crosshair',
version: '1.0'
});
})(jQuery);
-663
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@@ -1,663 +0,0 @@
/**
## jquery.flot.drawSeries.js
This plugin is used by flot for drawing lines, plots, bars or area.
### Public methods
*/
(function($) {
"use strict";
function DrawSeries() {
function plotLine(datapoints, xoffset, yoffset, axisx, axisy, ctx, steps) {
var points = datapoints.points,
ps = datapoints.pointsize,
prevx = null,
prevy = null;
var x1 = 0.0,
y1 = 0.0,
x2 = 0.0,
y2 = 0.0,
mx = null,
my = null,
i = 0;
ctx.beginPath();
for (i = ps; i < points.length; i += ps) {
x1 = points[i - ps];
y1 = points[i - ps + 1];
x2 = points[i];
y2 = points[i + 1];
if (x1 === null || x2 === null) {
mx = null;
my = null;
continue;
}
if (isNaN(x1) || isNaN(x2) || isNaN(y1) || isNaN(y2)) {
prevx = null;
prevy = null;
continue;
}
if(steps){
if (mx !== null && my !== null) {
// if middle point exists, transfer p2 -> p1 and p1 -> mp
x2 = x1;
y2 = y1;
x1 = mx;
y1 = my;
// 'remove' middle point
mx = null;
my = null;
// subtract pointsize from i to have current point p1 handled again
i -= ps;
} else if (y1 !== y2 && x1 !== x2) {
// create a middle point
y2 = y1;
mx = x2;
my = y1;
}
}
// clip with ymin
if (y1 <= y2 && y1 < axisy.min) {
if (y2 < axisy.min) {
// line segment is outside
continue;
}
// compute new intersection point
x1 = (axisy.min - y1) / (y2 - y1) * (x2 - x1) + x1;
y1 = axisy.min;
} else if (y2 <= y1 && y2 < axisy.min) {
if (y1 < axisy.min) {
continue;
}
x2 = (axisy.min - y1) / (y2 - y1) * (x2 - x1) + x1;
y2 = axisy.min;
}
// clip with ymax
if (y1 >= y2 && y1 > axisy.max) {
if (y2 > axisy.max) {
continue;
}
x1 = (axisy.max - y1) / (y2 - y1) * (x2 - x1) + x1;
y1 = axisy.max;
} else if (y2 >= y1 && y2 > axisy.max) {
if (y1 > axisy.max) {
continue;
}
x2 = (axisy.max - y1) / (y2 - y1) * (x2 - x1) + x1;
y2 = axisy.max;
}
// clip with xmin
if (x1 <= x2 && x1 < axisx.min) {
if (x2 < axisx.min) {
continue;
}
y1 = (axisx.min - x1) / (x2 - x1) * (y2 - y1) + y1;
x1 = axisx.min;
} else if (x2 <= x1 && x2 < axisx.min) {
if (x1 < axisx.min) {
continue;
}
y2 = (axisx.min - x1) / (x2 - x1) * (y2 - y1) + y1;
x2 = axisx.min;
}
// clip with xmax
if (x1 >= x2 && x1 > axisx.max) {
if (x2 > axisx.max) {
continue;
}
y1 = (axisx.max - x1) / (x2 - x1) * (y2 - y1) + y1;
x1 = axisx.max;
} else if (x2 >= x1 && x2 > axisx.max) {
if (x1 > axisx.max) {
continue;
}
y2 = (axisx.max - x1) / (x2 - x1) * (y2 - y1) + y1;
x2 = axisx.max;
}
if (x1 !== prevx || y1 !== prevy) {
ctx.moveTo(axisx.p2c(x1) + xoffset, axisy.p2c(y1) + yoffset);
}
prevx = x2;
prevy = y2;
ctx.lineTo(axisx.p2c(x2) + xoffset, axisy.p2c(y2) + yoffset);
}
ctx.stroke();
}
function plotLineArea(datapoints, axisx, axisy, fillTowards, ctx, steps) {
var points = datapoints.points,
ps = datapoints.pointsize,
bottom = fillTowards > axisy.min ? Math.min(axisy.max, fillTowards) : axisy.min,
i = 0,
ypos = 1,
areaOpen = false,
segmentStart = 0,
segmentEnd = 0,
mx = null,
my = null;
// we process each segment in two turns, first forward
// direction to sketch out top, then once we hit the
// end we go backwards to sketch the bottom
while (true) {
if (ps > 0 && i > points.length + ps) {
break;
}
i += ps; // ps is negative if going backwards
var x1 = points[i - ps],
y1 = points[i - ps + ypos],
x2 = points[i],
y2 = points[i + ypos];
if (ps === -2) {
/* going backwards and no value for the bottom provided in the series*/
y1 = y2 = bottom;
}
if (areaOpen) {
if (ps > 0 && x1 != null && x2 == null) {
// at turning point
segmentEnd = i;
ps = -ps;
ypos = 2;
continue;
}
if (ps < 0 && i === segmentStart + ps) {
// done with the reverse sweep
ctx.fill();
areaOpen = false;
ps = -ps;
ypos = 1;
i = segmentStart = segmentEnd + ps;
continue;
}
}
if (x1 == null || x2 == null) {
mx = null;
my = null;
continue;
}
if(steps){
if (mx !== null && my !== null) {
// if middle point exists, transfer p2 -> p1 and p1 -> mp
x2 = x1;
y2 = y1;
x1 = mx;
y1 = my;
// 'remove' middle point
mx = null;
my = null;
// subtract pointsize from i to have current point p1 handled again
i -= ps;
} else if (y1 !== y2 && x1 !== x2) {
// create a middle point
y2 = y1;
mx = x2;
my = y1;
}
}
// clip x values
// clip with xmin
if (x1 <= x2 && x1 < axisx.min) {
if (x2 < axisx.min) {
continue;
}
y1 = (axisx.min - x1) / (x2 - x1) * (y2 - y1) + y1;
x1 = axisx.min;
} else if (x2 <= x1 && x2 < axisx.min) {
if (x1 < axisx.min) {
continue;
}
y2 = (axisx.min - x1) / (x2 - x1) * (y2 - y1) + y1;
x2 = axisx.min;
}
// clip with xmax
if (x1 >= x2 && x1 > axisx.max) {
if (x2 > axisx.max) {
continue;
}
y1 = (axisx.max - x1) / (x2 - x1) * (y2 - y1) + y1;
x1 = axisx.max;
} else if (x2 >= x1 && x2 > axisx.max) {
if (x1 > axisx.max) {
continue;
}
y2 = (axisx.max - x1) / (x2 - x1) * (y2 - y1) + y1;
x2 = axisx.max;
}
if (!areaOpen) {
// open area
ctx.beginPath();
ctx.moveTo(axisx.p2c(x1), axisy.p2c(bottom));
areaOpen = true;
}
// now first check the case where both is outside
if (y1 >= axisy.max && y2 >= axisy.max) {
ctx.lineTo(axisx.p2c(x1), axisy.p2c(axisy.max));
ctx.lineTo(axisx.p2c(x2), axisy.p2c(axisy.max));
continue;
} else if (y1 <= axisy.min && y2 <= axisy.min) {
ctx.lineTo(axisx.p2c(x1), axisy.p2c(axisy.min));
ctx.lineTo(axisx.p2c(x2), axisy.p2c(axisy.min));
continue;
}
// else it's a bit more complicated, there might
// be a flat maxed out rectangle first, then a
// triangular cutout or reverse; to find these
// keep track of the current x values
var x1old = x1,
x2old = x2;
// clip the y values, without shortcutting, we
// go through all cases in turn
// clip with ymin
if (y1 <= y2 && y1 < axisy.min && y2 >= axisy.min) {
x1 = (axisy.min - y1) / (y2 - y1) * (x2 - x1) + x1;
y1 = axisy.min;
} else if (y2 <= y1 && y2 < axisy.min && y1 >= axisy.min) {
x2 = (axisy.min - y1) / (y2 - y1) * (x2 - x1) + x1;
y2 = axisy.min;
}
// clip with ymax
if (y1 >= y2 && y1 > axisy.max && y2 <= axisy.max) {
x1 = (axisy.max - y1) / (y2 - y1) * (x2 - x1) + x1;
y1 = axisy.max;
} else if (y2 >= y1 && y2 > axisy.max && y1 <= axisy.max) {
x2 = (axisy.max - y1) / (y2 - y1) * (x2 - x1) + x1;
y2 = axisy.max;
}
// if the x value was changed we got a rectangle
// to fill
if (x1 !== x1old) {
ctx.lineTo(axisx.p2c(x1old), axisy.p2c(y1));
// it goes to (x1, y1), but we fill that below
}
// fill triangular section, this sometimes result
// in redundant points if (x1, y1) hasn't changed
// from previous line to, but we just ignore that
ctx.lineTo(axisx.p2c(x1), axisy.p2c(y1));
ctx.lineTo(axisx.p2c(x2), axisy.p2c(y2));
// fill the other rectangle if it's there
if (x2 !== x2old) {
ctx.lineTo(axisx.p2c(x2), axisy.p2c(y2));
ctx.lineTo(axisx.p2c(x2old), axisy.p2c(y2));
}
}
}
/**
- drawSeriesLines(series, ctx, plotOffset, plotWidth, plotHeight, drawSymbol, getColorOrGradient)
This function is used for drawing lines or area fill. In case the series has line decimation function
attached, before starting to draw, as an optimization the points will first be decimated.
The series parameter contains the series to be drawn on ctx context. The plotOffset, plotWidth and
plotHeight are the corresponding parameters of flot used to determine the drawing surface.
The function getColorOrGradient is used to compute the fill style of lines and area.
*/
function drawSeriesLines(series, ctx, plotOffset, plotWidth, plotHeight, drawSymbol, getColorOrGradient) {
ctx.save();
ctx.translate(plotOffset.left, plotOffset.top);
ctx.lineJoin = "round";
if (series.lines.dashes && ctx.setLineDash) {
ctx.setLineDash(series.lines.dashes);
}
var datapoints = {
format: series.datapoints.format,
points: series.datapoints.points,
pointsize: series.datapoints.pointsize
};
if (series.decimate) {
datapoints.points = series.decimate(series, series.xaxis.min, series.xaxis.max, plotWidth, series.yaxis.min, series.yaxis.max, plotHeight);
}
var lw = series.lines.lineWidth;
ctx.lineWidth = lw;
ctx.strokeStyle = series.color;
var fillStyle = getFillStyle(series.lines, series.color, 0, plotHeight, getColorOrGradient);
if (fillStyle) {
ctx.fillStyle = fillStyle;
plotLineArea(datapoints, series.xaxis, series.yaxis, series.lines.fillTowards || 0, ctx, series.lines.steps);
}
if (lw > 0) {
plotLine(datapoints, 0, 0, series.xaxis, series.yaxis, ctx, series.lines.steps);
}
ctx.restore();
}
/**
- drawSeriesPoints(series, ctx, plotOffset, plotWidth, plotHeight, drawSymbol, getColorOrGradient)
This function is used for drawing points using a given symbol. In case the series has points decimation
function attached, before starting to draw, as an optimization the points will first be decimated.
The series parameter contains the series to be drawn on ctx context. The plotOffset, plotWidth and
plotHeight are the corresponding parameters of flot used to determine the drawing surface.
The function drawSymbol is used to compute and draw the symbol chosen for the points.
*/
function drawSeriesPoints(series, ctx, plotOffset, plotWidth, plotHeight, drawSymbol, getColorOrGradient) {
function drawCircle(ctx, x, y, radius, shadow, fill) {
ctx.moveTo(x + radius, y);
ctx.arc(x, y, radius, 0, shadow ? Math.PI : Math.PI * 2, false);
}
drawCircle.fill = true;
function plotPoints(datapoints, radius, fill, offset, shadow, axisx, axisy, drawSymbolFn) {
var points = datapoints.points,
ps = datapoints.pointsize;
ctx.beginPath();
for (var i = 0; i < points.length; i += ps) {
var x = points[i],
y = points[i + 1];
if (x == null || x < axisx.min || x > axisx.max || y < axisy.min || y > axisy.max) {
continue;
}
x = axisx.p2c(x);
y = axisy.p2c(y) + offset;
drawSymbolFn(ctx, x, y, radius, shadow, fill);
}
if (drawSymbolFn.fill && !shadow) {
ctx.fill();
}
ctx.stroke();
}
ctx.save();
ctx.translate(plotOffset.left, plotOffset.top);
var datapoints = {
format: series.datapoints.format,
points: series.datapoints.points,
pointsize: series.datapoints.pointsize
};
if (series.decimatePoints) {
datapoints.points = series.decimatePoints(series, series.xaxis.min, series.xaxis.max, plotWidth, series.yaxis.min, series.yaxis.max, plotHeight);
}
var lw = series.points.lineWidth,
radius = series.points.radius,
symbol = series.points.symbol,
drawSymbolFn;
if (symbol === 'circle') {
drawSymbolFn = drawCircle;
} else if (typeof symbol === 'string' && drawSymbol && drawSymbol[symbol]) {
drawSymbolFn = drawSymbol[symbol];
} else if (typeof drawSymbol === 'function') {
drawSymbolFn = drawSymbol;
}
// If the user sets the line width to 0, we change it to a very
// small value. A line width of 0 seems to force the default of 1.
if (lw === 0) {
lw = 0.0001;
}
ctx.lineWidth = lw;
ctx.fillStyle = getFillStyle(series.points, series.color, null, null, getColorOrGradient);
ctx.strokeStyle = series.color;
plotPoints(datapoints, radius,
true, 0, false,
series.xaxis, series.yaxis, drawSymbolFn);
ctx.restore();
}
function drawBar(x, y, b, barLeft, barRight, fillStyleCallback, axisx, axisy, c, horizontal, lineWidth) {
var left = x + barLeft,
right = x + barRight,
bottom = b, top = y,
drawLeft, drawRight, drawTop, drawBottom = false,
tmp;
drawLeft = drawRight = drawTop = true;
// in horizontal mode, we start the bar from the left
// instead of from the bottom so it appears to be
// horizontal rather than vertical
if (horizontal) {
drawBottom = drawRight = drawTop = true;
drawLeft = false;
left = b;
right = x;
top = y + barLeft;
bottom = y + barRight;
// account for negative bars
if (right < left) {
tmp = right;
right = left;
left = tmp;
drawLeft = true;
drawRight = false;
}
}
else {
drawLeft = drawRight = drawTop = true;
drawBottom = false;
left = x + barLeft;
right = x + barRight;
bottom = b;
top = y;
// account for negative bars
if (top < bottom) {
tmp = top;
top = bottom;
bottom = tmp;
drawBottom = true;
drawTop = false;
}
}
// clip
if (right < axisx.min || left > axisx.max ||
top < axisy.min || bottom > axisy.max) {
return;
}
if (left < axisx.min) {
left = axisx.min;
drawLeft = false;
}
if (right > axisx.max) {
right = axisx.max;
drawRight = false;
}
if (bottom < axisy.min) {
bottom = axisy.min;
drawBottom = false;
}
if (top > axisy.max) {
top = axisy.max;
drawTop = false;
}
left = axisx.p2c(left);
bottom = axisy.p2c(bottom);
right = axisx.p2c(right);
top = axisy.p2c(top);
// fill the bar
if (fillStyleCallback) {
c.fillStyle = fillStyleCallback(bottom, top);
c.fillRect(left, top, right - left, bottom - top)
}
// draw outline
if (lineWidth > 0 && (drawLeft || drawRight || drawTop || drawBottom)) {
c.beginPath();
// FIXME: inline moveTo is buggy with excanvas
c.moveTo(left, bottom);
if (drawLeft) {
c.lineTo(left, top);
} else {
c.moveTo(left, top);
}
if (drawTop) {
c.lineTo(right, top);
} else {
c.moveTo(right, top);
}
if (drawRight) {
c.lineTo(right, bottom);
} else {
c.moveTo(right, bottom);
}
if (drawBottom) {
c.lineTo(left, bottom);
} else {
c.moveTo(left, bottom);
}
c.stroke();
}
}
/**
- drawSeriesBars(series, ctx, plotOffset, plotWidth, plotHeight, drawSymbol, getColorOrGradient)
This function is used for drawing series represented as bars. In case the series has decimation
function attached, before starting to draw, as an optimization the points will first be decimated.
The series parameter contains the series to be drawn on ctx context. The plotOffset, plotWidth and
plotHeight are the corresponding parameters of flot used to determine the drawing surface.
The function getColorOrGradient is used to compute the fill style of bars.
*/
function drawSeriesBars(series, ctx, plotOffset, plotWidth, plotHeight, drawSymbol, getColorOrGradient) {
function plotBars(datapoints, barLeft, barRight, fillStyleCallback, axisx, axisy) {
var points = datapoints.points,
ps = datapoints.pointsize,
fillTowards = series.bars.fillTowards || 0,
defaultBottom = fillTowards > axisy.min ? Math.min(axisy.max, fillTowards) : axisy.min;
for (var i = 0; i < points.length; i += ps) {
if (points[i] == null) {
continue;
}
// Use third point as bottom if pointsize is 3
var bottom = ps === 3 ? points[i + 2] : defaultBottom;
drawBar(points[i], points[i + 1], bottom, barLeft, barRight, fillStyleCallback, axisx, axisy, ctx, series.bars.horizontal, series.bars.lineWidth);
}
}
ctx.save();
ctx.translate(plotOffset.left, plotOffset.top);
var datapoints = {
format: series.datapoints.format,
points: series.datapoints.points,
pointsize: series.datapoints.pointsize
};
if (series.decimate) {
datapoints.points = series.decimate(series, series.xaxis.min, series.xaxis.max, plotWidth);
}
ctx.lineWidth = series.bars.lineWidth;
ctx.strokeStyle = series.color;
var barLeft;
var barWidth = series.bars.barWidth[0] || series.bars.barWidth;
switch (series.bars.align) {
case "left":
barLeft = 0;
break;
case "right":
barLeft = -barWidth;
break;
default:
barLeft = -barWidth / 2;
}
var fillStyleCallback = series.bars.fill ? function(bottom, top) {
return getFillStyle(series.bars, series.color, bottom, top, getColorOrGradient);
} : null;
plotBars(datapoints, barLeft, barLeft + barWidth, fillStyleCallback, series.xaxis, series.yaxis);
ctx.restore();
}
function getFillStyle(filloptions, seriesColor, bottom, top, getColorOrGradient) {
var fill = filloptions.fill;
if (!fill) {
return null;
}
if (filloptions.fillColor) {
return getColorOrGradient(filloptions.fillColor, bottom, top, seriesColor);
}
var c = $.color.parse(seriesColor);
c.a = typeof fill === "number" ? fill : 0.4;
c.normalize();
return c.toString();
}
this.drawSeriesLines = drawSeriesLines;
this.drawSeriesPoints = drawSeriesPoints;
this.drawSeriesBars = drawSeriesBars;
this.drawBar = drawBar;
};
$.plot.drawSeries = new DrawSeries();
})(jQuery);
-375
View File
@@ -1,375 +0,0 @@
/* Flot plugin for plotting error bars.
Copyright (c) 2007-2014 IOLA and Ole Laursen.
Licensed under the MIT license.
Error bars are used to show standard deviation and other statistical
properties in a plot.
* Created by Rui Pereira - rui (dot) pereira (at) gmail (dot) com
This plugin allows you to plot error-bars over points. Set "errorbars" inside
the points series to the axis name over which there will be error values in
your data array (*even* if you do not intend to plot them later, by setting
"show: null" on xerr/yerr).
The plugin supports these options:
series: {
points: {
errorbars: "x" or "y" or "xy",
xerr: {
show: null/false or true,
asymmetric: null/false or true,
upperCap: null or "-" or function,
lowerCap: null or "-" or function,
color: null or color,
radius: null or number
},
yerr: { same options as xerr }
}
}
Each data point array is expected to be of the type:
"x" [ x, y, xerr ]
"y" [ x, y, yerr ]
"xy" [ x, y, xerr, yerr ]
Where xerr becomes xerr_lower,xerr_upper for the asymmetric error case, and
equivalently for yerr. Eg., a datapoint for the "xy" case with symmetric
error-bars on X and asymmetric on Y would be:
[ x, y, xerr, yerr_lower, yerr_upper ]
By default no end caps are drawn. Setting upperCap and/or lowerCap to "-" will
draw a small cap perpendicular to the error bar. They can also be set to a
user-defined drawing function, with (ctx, x, y, radius) as parameters, as eg.
function drawSemiCircle( ctx, x, y, radius ) {
ctx.beginPath();
ctx.arc( x, y, radius, 0, Math.PI, false );
ctx.moveTo( x - radius, y );
ctx.lineTo( x + radius, y );
ctx.stroke();
}
Color and radius both default to the same ones of the points series if not
set. The independent radius parameter on xerr/yerr is useful for the case when
we may want to add error-bars to a line, without showing the interconnecting
points (with radius: 0), and still showing end caps on the error-bars.
shadowSize and lineWidth are derived as well from the points series.
*/
(function ($) {
var options = {
series: {
points: {
errorbars: null, //should be 'x', 'y' or 'xy'
xerr: {err: 'x', show: null, asymmetric: null, upperCap: null, lowerCap: null, color: null, radius: null},
yerr: {err: 'y', show: null, asymmetric: null, upperCap: null, lowerCap: null, color: null, radius: null}
}
}
};
function processRawData(plot, series, data, datapoints) {
if (!series.points.errorbars) {
return;
}
// x,y values
var format = [
{ x: true, number: true, required: true },
{ y: true, number: true, required: true }
];
var errors = series.points.errorbars;
// error bars - first X then Y
if (errors === 'x' || errors === 'xy') {
// lower / upper error
if (series.points.xerr.asymmetric) {
format.push({ x: true, number: true, required: true });
format.push({ x: true, number: true, required: true });
} else {
format.push({ x: true, number: true, required: true });
}
}
if (errors === 'y' || errors === 'xy') {
// lower / upper error
if (series.points.yerr.asymmetric) {
format.push({ y: true, number: true, required: true });
format.push({ y: true, number: true, required: true });
} else {
format.push({ y: true, number: true, required: true });
}
}
datapoints.format = format;
}
function parseErrors(series, i) {
var points = series.datapoints.points;
// read errors from points array
var exl = null,
exu = null,
eyl = null,
eyu = null;
var xerr = series.points.xerr,
yerr = series.points.yerr;
var eb = series.points.errorbars;
// error bars - first X
if (eb === 'x' || eb === 'xy') {
if (xerr.asymmetric) {
exl = points[i + 2];
exu = points[i + 3];
if (eb === 'xy') {
if (yerr.asymmetric) {
eyl = points[i + 4];
eyu = points[i + 5];
} else {
eyl = points[i + 4];
}
}
} else {
exl = points[i + 2];
if (eb === 'xy') {
if (yerr.asymmetric) {
eyl = points[i + 3];
eyu = points[i + 4];
} else {
eyl = points[i + 3];
}
}
}
// only Y
} else {
if (eb === 'y') {
if (yerr.asymmetric) {
eyl = points[i + 2];
eyu = points[i + 3];
} else {
eyl = points[i + 2];
}
}
}
// symmetric errors?
if (exu == null) exu = exl;
if (eyu == null) eyu = eyl;
var errRanges = [exl, exu, eyl, eyu];
// nullify if not showing
if (!xerr.show) {
errRanges[0] = null;
errRanges[1] = null;
}
if (!yerr.show) {
errRanges[2] = null;
errRanges[3] = null;
}
return errRanges;
}
function drawSeriesErrors(plot, ctx, s) {
var points = s.datapoints.points,
ps = s.datapoints.pointsize,
ax = [s.xaxis, s.yaxis],
radius = s.points.radius,
err = [s.points.xerr, s.points.yerr],
tmp;
//sanity check, in case some inverted axis hack is applied to flot
var invertX = false;
if (ax[0].p2c(ax[0].max) < ax[0].p2c(ax[0].min)) {
invertX = true;
tmp = err[0].lowerCap;
err[0].lowerCap = err[0].upperCap;
err[0].upperCap = tmp;
}
var invertY = false;
if (ax[1].p2c(ax[1].min) < ax[1].p2c(ax[1].max)) {
invertY = true;
tmp = err[1].lowerCap;
err[1].lowerCap = err[1].upperCap;
err[1].upperCap = tmp;
}
for (var i = 0; i < s.datapoints.points.length; i += ps) {
//parse
var errRanges = parseErrors(s, i);
//cycle xerr & yerr
for (var e = 0; e < err.length; e++) {
var minmax = [ax[e].min, ax[e].max];
//draw this error?
if (errRanges[e * err.length]) {
//data coordinates
var x = points[i],
y = points[i + 1];
//errorbar ranges
var upper = [x, y][e] + errRanges[e * err.length + 1],
lower = [x, y][e] - errRanges[e * err.length];
//points outside of the canvas
if (err[e].err === 'x') {
if (y > ax[1].max || y < ax[1].min || upper < ax[0].min || lower > ax[0].max) {
continue;
}
}
if (err[e].err === 'y') {
if (x > ax[0].max || x < ax[0].min || upper < ax[1].min || lower > ax[1].max) {
continue;
}
}
// prevent errorbars getting out of the canvas
var drawUpper = true,
drawLower = true;
if (upper > minmax[1]) {
drawUpper = false;
upper = minmax[1];
}
if (lower < minmax[0]) {
drawLower = false;
lower = minmax[0];
}
//sanity check, in case some inverted axis hack is applied to flot
if ((err[e].err === 'x' && invertX) || (err[e].err === 'y' && invertY)) {
//swap coordinates
tmp = lower;
lower = upper;
upper = tmp;
tmp = drawLower;
drawLower = drawUpper;
drawUpper = tmp;
tmp = minmax[0];
minmax[0] = minmax[1];
minmax[1] = tmp;
}
// convert to pixels
x = ax[0].p2c(x);
y = ax[1].p2c(y);
upper = ax[e].p2c(upper);
lower = ax[e].p2c(lower);
minmax[0] = ax[e].p2c(minmax[0]);
minmax[1] = ax[e].p2c(minmax[1]);
//same style as points by default
var lw = err[e].lineWidth ? err[e].lineWidth : s.points.lineWidth,
sw = s.points.shadowSize != null ? s.points.shadowSize : s.shadowSize;
//shadow as for points
if (lw > 0 && sw > 0) {
var w = sw / 2;
ctx.lineWidth = w;
ctx.strokeStyle = "rgba(0,0,0,0.1)";
drawError(ctx, err[e], x, y, upper, lower, drawUpper, drawLower, radius, w + w / 2, minmax);
ctx.strokeStyle = "rgba(0,0,0,0.2)";
drawError(ctx, err[e], x, y, upper, lower, drawUpper, drawLower, radius, w / 2, minmax);
}
ctx.strokeStyle = err[e].color
? err[e].color
: s.color;
ctx.lineWidth = lw;
//draw it
drawError(ctx, err[e], x, y, upper, lower, drawUpper, drawLower, radius, 0, minmax);
}
}
}
}
function drawError(ctx, err, x, y, upper, lower, drawUpper, drawLower, radius, offset, minmax) {
//shadow offset
y += offset;
upper += offset;
lower += offset;
// error bar - avoid plotting over circles
if (err.err === 'x') {
if (upper > x + radius) drawPath(ctx, [[upper, y], [Math.max(x + radius, minmax[0]), y]]);
else drawUpper = false;
if (lower < x - radius) drawPath(ctx, [[Math.min(x - radius, minmax[1]), y], [lower, y]]);
else drawLower = false;
} else {
if (upper < y - radius) drawPath(ctx, [[x, upper], [x, Math.min(y - radius, minmax[0])]]);
else drawUpper = false;
if (lower > y + radius) drawPath(ctx, [[x, Math.max(y + radius, minmax[1])], [x, lower]]);
else drawLower = false;
}
//internal radius value in errorbar, allows to plot radius 0 points and still keep proper sized caps
//this is a way to get errorbars on lines without visible connecting dots
radius = err.radius != null
? err.radius
: radius;
// upper cap
if (drawUpper) {
if (err.upperCap === '-') {
if (err.err === 'x') drawPath(ctx, [[upper, y - radius], [upper, y + radius]]);
else drawPath(ctx, [[x - radius, upper], [x + radius, upper]]);
} else if ($.isFunction(err.upperCap)) {
if (err.err === 'x') err.upperCap(ctx, upper, y, radius);
else err.upperCap(ctx, x, upper, radius);
}
}
// lower cap
if (drawLower) {
if (err.lowerCap === '-') {
if (err.err === 'x') drawPath(ctx, [[lower, y - radius], [lower, y + radius]]);
else drawPath(ctx, [[x - radius, lower], [x + radius, lower]]);
} else if ($.isFunction(err.lowerCap)) {
if (err.err === 'x') err.lowerCap(ctx, lower, y, radius);
else err.lowerCap(ctx, x, lower, radius);
}
}
}
function drawPath(ctx, pts) {
ctx.beginPath();
ctx.moveTo(pts[0][0], pts[0][1]);
for (var p = 1; p < pts.length; p++) {
ctx.lineTo(pts[p][0], pts[p][1]);
}
ctx.stroke();
}
function draw(plot, ctx) {
var plotOffset = plot.getPlotOffset();
ctx.save();
ctx.translate(plotOffset.left, plotOffset.top);
$.each(plot.getData(), function (i, s) {
if (s.points.errorbars && (s.points.xerr.show || s.points.yerr.show)) {
drawSeriesErrors(plot, ctx, s);
}
});
ctx.restore();
}
function init(plot) {
plot.hooks.processRawData.push(processRawData);
plot.hooks.draw.push(draw);
}
$.plot.plugins.push({
init: init,
options: options,
name: 'errorbars',
version: '1.0'
});
})(jQuery);
@@ -1,254 +0,0 @@
/* Flot plugin for computing bottoms for filled line and bar charts.
Copyright (c) 2007-2014 IOLA and Ole Laursen.
Licensed under the MIT license.
The case: you've got two series that you want to fill the area between. In Flot
terms, you need to use one as the fill bottom of the other. You can specify the
bottom of each data point as the third coordinate manually, or you can use this
plugin to compute it for you.
In order to name the other series, you need to give it an id, like this:
var dataset = [
{ data: [ ... ], id: "foo" } , // use default bottom
{ data: [ ... ], fillBetween: "foo" }, // use first dataset as bottom
];
$.plot($("#placeholder"), dataset, { lines: { show: true, fill: true }});
As a convenience, if the id given is a number that doesn't appear as an id in
the series, it is interpreted as the index in the array instead (so fillBetween:
0 can also mean the first series).
Internally, the plugin modifies the datapoints in each series. For line series,
extra data points might be inserted through interpolation. Note that at points
where the bottom line is not defined (due to a null point or start/end of line),
the current line will show a gap too. The algorithm comes from the
jquery.flot.stack.js plugin, possibly some code could be shared.
*/
(function ($) {
var options = {
series: {
fillBetween: null // or number
}
};
function init(plot) {
function findBottomSeries(s, allseries) {
var i;
for (i = 0; i < allseries.length; ++i) {
if (allseries[ i ].id === s.fillBetween) {
return allseries[ i ];
}
}
if (typeof s.fillBetween === "number") {
if (s.fillBetween < 0 || s.fillBetween >= allseries.length) {
return null;
}
return allseries[ s.fillBetween ];
}
return null;
}
function computeFormat(plot, s, data, datapoints) {
if (s.fillBetween == null) {
return;
}
format = datapoints.format;
var plotHasId = function(id) {
var plotData = plot.getData();
for (i = 0; i < plotData.length; i++) {
if (plotData[i].id === id) {
return true;
}
}
return false;
}
if (!format) {
format = [];
format.push({
x: true,
number: true,
computeRange: s.xaxis.options.autoScale !== 'none',
required: true
});
format.push({
y: true,
number: true,
computeRange: s.yaxis.options.autoScale !== 'none',
required: true
});
if (s.fillBetween !== undefined && s.fillBetween !== '' && plotHasId(s.fillBetween) && s.fillBetween !== s.id) {
format.push({
x: false,
y: true,
number: true,
required: false,
computeRange: s.yaxis.options.autoScale !== 'none',
defaultValue: 0
});
}
datapoints.format = format;
}
}
function computeFillBottoms(plot, s, datapoints) {
if (s.fillBetween == null) {
return;
}
var other = findBottomSeries(s, plot.getData());
if (!other) {
return;
}
var ps = datapoints.pointsize,
points = datapoints.points,
otherps = other.datapoints.pointsize,
otherpoints = other.datapoints.points,
newpoints = [],
px, py, intery, qx, qy, bottom,
withlines = s.lines.show,
withbottom = ps > 2 && datapoints.format[2].y,
withsteps = withlines && s.lines.steps,
fromgap = true,
i = 0,
j = 0,
l, m;
while (true) {
if (i >= points.length) {
break;
}
l = newpoints.length;
if (points[ i ] == null) {
// copy gaps
for (m = 0; m < ps; ++m) {
newpoints.push(points[ i + m ]);
}
i += ps;
} else if (j >= otherpoints.length) {
// for lines, we can't use the rest of the points
if (!withlines) {
for (m = 0; m < ps; ++m) {
newpoints.push(points[ i + m ]);
}
}
i += ps;
} else if (otherpoints[ j ] == null) {
// oops, got a gap
for (m = 0; m < ps; ++m) {
newpoints.push(null);
}
fromgap = true;
j += otherps;
} else {
// cases where we actually got two points
px = points[ i ];
py = points[ i + 1 ];
qx = otherpoints[ j ];
qy = otherpoints[ j + 1 ];
bottom = 0;
if (px === qx) {
for (m = 0; m < ps; ++m) {
newpoints.push(points[ i + m ]);
}
//newpoints[ l + 1 ] += qy;
bottom = qy;
i += ps;
j += otherps;
} else if (px > qx) {
// we got past point below, might need to
// insert interpolated extra point
if (withlines && i > 0 && points[ i - ps ] != null) {
intery = py + (points[ i - ps + 1 ] - py) * (qx - px) / (points[ i - ps ] - px);
newpoints.push(qx);
newpoints.push(intery);
for (m = 2; m < ps; ++m) {
newpoints.push(points[ i + m ]);
}
bottom = qy;
}
j += otherps;
} else {
// px < qx
// if we come from a gap, we just skip this point
if (fromgap && withlines) {
i += ps;
continue;
}
for (m = 0; m < ps; ++m) {
newpoints.push(points[ i + m ]);
}
// we might be able to interpolate a point below,
// this can give us a better y
if (withlines && j > 0 && otherpoints[ j - otherps ] != null) {
bottom = qy + (otherpoints[ j - otherps + 1 ] - qy) * (px - qx) / (otherpoints[ j - otherps ] - qx);
}
//newpoints[l + 1] += bottom;
i += ps;
}
fromgap = false;
if (l !== newpoints.length && withbottom) {
newpoints[ l + 2 ] = bottom;
}
}
// maintain the line steps invariant
if (withsteps && l !== newpoints.length && l > 0 &&
newpoints[ l ] !== null &&
newpoints[ l ] !== newpoints[ l - ps ] &&
newpoints[ l + 1 ] !== newpoints[ l - ps + 1 ]) {
for (m = 0; m < ps; ++m) {
newpoints[ l + ps + m ] = newpoints[ l + m ];
}
newpoints[ l + 1 ] = newpoints[ l - ps + 1 ];
}
}
datapoints.points = newpoints;
}
plot.hooks.processRawData.push(computeFormat);
plot.hooks.processDatapoints.push(computeFillBottoms);
}
$.plot.plugins.push({
init: init,
options: options,
name: "fillbetween",
version: "1.0"
});
})(jQuery);
-47
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@@ -1,47 +0,0 @@
/* Support for flat 1D data series.
A 1D flat data series is a data series in the form of a regular 1D array. The
main reason for using a flat data series is that it performs better, consumes
less memory and generates less garbage collection than the regular flot format.
Example:
plot.setData([[[0,0], [1,1], [2,2], [3,3]]]); // regular flot format
plot.setData([{flatdata: true, data: [0, 1, 2, 3]}]); // flatdata format
Set series.flatdata to true to enable this plugin.
You can use series.start to specify the starting index of the series (default is 0)
You can use series.step to specify the interval between consecutive indexes of the series (default is 1)
*/
/* global jQuery*/
(function ($) {
'use strict';
function process1DRawData(plot, series, data, datapoints) {
if (series.flatdata === true) {
var start = series.start || 0;
var step = typeof series.step === 'number' ? series.step : 1;
datapoints.pointsize = 2;
for (var i = 0, j = 0; i < data.length; i++, j += 2) {
datapoints.points[j] = start + (i * step);
datapoints.points[j + 1] = data[i];
}
if (datapoints.points !== undefined) {
datapoints.points.length = data.length * 2;
} else {
datapoints.points = [];
}
}
}
$.plot.plugins.push({
init: function(plot) {
plot.hooks.processRawData.push(process1DRawData);
},
name: 'flatdata',
version: '0.0.2'
});
})(jQuery);
-350
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@@ -1,350 +0,0 @@
/* global jQuery */
/**
## jquery.flot.hover.js
This plugin is used for mouse hover and tap on a point of plot series.
It supports the following options:
```js
grid: {
hoverable: false, //to trigger plothover event on mouse hover or tap on a point
clickable: false //to trigger plotclick event on mouse hover
}
```
It listens to native mouse move event or click, as well as artificial generated
tap and touchevent.
When the mouse is over a point or a tap on a point is performed, that point or
the correscponding bar will be highlighted and a "plothover" event will be generated.
Custom "touchevent" is triggered when any touch interaction is made. Hover plugin
handles this events by unhighlighting all of the previously highlighted points and generates
"plothovercleanup" event to notify any part that is handling plothover (for exemple to cleanup
the tooltip from webcharts).
*/
(function($) {
'use strict';
var options = {
grid: {
hoverable: false,
clickable: false
}
};
var browser = $.plot.browser;
var eventType = {
click: 'click',
hover: 'hover'
}
function init(plot) {
var lastMouseMoveEvent;
var highlights = [];
function bindEvents(plot, eventHolder) {
var o = plot.getOptions();
if (o.grid.hoverable || o.grid.clickable) {
eventHolder[0].addEventListener('touchevent', triggerCleanupEvent, false);
eventHolder[0].addEventListener('tap', generatePlothoverEvent, false);
}
if (o.grid.clickable) {
eventHolder.bind("click", onClick);
}
if (o.grid.hoverable) {
eventHolder.bind("mousemove", onMouseMove);
// Use bind, rather than .mouseleave, because we officially
// still support jQuery 1.2.6, which doesn't define a shortcut
// for mouseenter or mouseleave. This was a bug/oversight that
// was fixed somewhere around 1.3.x. We can return to using
// .mouseleave when we drop support for 1.2.6.
eventHolder.bind("mouseleave", onMouseLeave);
}
}
function shutdown(plot, eventHolder) {
eventHolder[0].removeEventListener('tap', generatePlothoverEvent);
eventHolder[0].removeEventListener('touchevent', triggerCleanupEvent);
eventHolder.unbind("mousemove", onMouseMove);
eventHolder.unbind("mouseleave", onMouseLeave);
eventHolder.unbind("click", onClick);
highlights = [];
}
function generatePlothoverEvent(e) {
var o = plot.getOptions(),
newEvent = new CustomEvent('mouseevent');
//transform from touch event to mouse event format
newEvent.pageX = e.detail.changedTouches[0].pageX;
newEvent.pageY = e.detail.changedTouches[0].pageY;
newEvent.clientX = e.detail.changedTouches[0].clientX;
newEvent.clientY = e.detail.changedTouches[0].clientY;
if (o.grid.hoverable) {
doTriggerClickHoverEvent(newEvent, eventType.hover, 30);
}
return false;
}
function doTriggerClickHoverEvent(event, eventType, searchDistance) {
var series = plot.getData();
if (event !== undefined
&& series.length > 0
&& series[0].xaxis.c2p !== undefined
&& series[0].yaxis.c2p !== undefined) {
var eventToTrigger = "plot" + eventType;
var seriesFlag = eventType + "able";
triggerClickHoverEvent(eventToTrigger, event,
function(i) {
return series[i][seriesFlag] !== false;
}, searchDistance);
}
}
function onMouseMove(e) {
lastMouseMoveEvent = e;
plot.getPlaceholder()[0].lastMouseMoveEvent = e;
doTriggerClickHoverEvent(e, eventType.hover);
}
function onMouseLeave(e) {
lastMouseMoveEvent = undefined;
plot.getPlaceholder()[0].lastMouseMoveEvent = undefined;
triggerClickHoverEvent("plothover", e,
function(i) {
return false;
});
}
function onClick(e) {
doTriggerClickHoverEvent(e, eventType.click);
}
function triggerCleanupEvent() {
plot.unhighlight();
plot.getPlaceholder().trigger('plothovercleanup');
}
// trigger click or hover event (they send the same parameters
// so we share their code)
function triggerClickHoverEvent(eventname, event, seriesFilter, searchDistance) {
var options = plot.getOptions(),
offset = plot.offset(),
page = browser.getPageXY(event),
canvasX = page.X - offset.left,
canvasY = page.Y - offset.top,
pos = plot.c2p({
left: canvasX,
top: canvasY
}),
distance = searchDistance !== undefined ? searchDistance : options.grid.mouseActiveRadius;
pos.pageX = page.X;
pos.pageY = page.Y;
var item = plot.findNearbyItem(canvasX, canvasY, seriesFilter, distance);
if (item) {
// fill in mouse pos for any listeners out there
item.pageX = parseInt(item.series.xaxis.p2c(item.datapoint[0]) + offset.left, 10);
item.pageY = parseInt(item.series.yaxis.p2c(item.datapoint[1]) + offset.top, 10);
}
if (options.grid.autoHighlight) {
// clear auto-highlights
for (var i = 0; i < highlights.length; ++i) {
var h = highlights[i];
if ((h.auto === eventname &&
!(item && h.series === item.series &&
h.point[0] === item.datapoint[0] &&
h.point[1] === item.datapoint[1])) || !item) {
unhighlight(h.series, h.point);
}
}
if (item) {
highlight(item.series, item.datapoint, eventname);
}
}
plot.getPlaceholder().trigger(eventname, [pos, item]);
}
function highlight(s, point, auto) {
if (typeof s === "number") {
s = plot.getData()[s];
}
if (typeof point === "number") {
var ps = s.datapoints.pointsize;
point = s.datapoints.points.slice(ps * point, ps * (point + 1));
}
var i = indexOfHighlight(s, point);
if (i === -1) {
highlights.push({
series: s,
point: point,
auto: auto
});
plot.triggerRedrawOverlay();
} else if (!auto) {
highlights[i].auto = false;
}
}
function unhighlight(s, point) {
if (s == null && point == null) {
highlights = [];
plot.triggerRedrawOverlay();
return;
}
if (typeof s === "number") {
s = plot.getData()[s];
}
if (typeof point === "number") {
var ps = s.datapoints.pointsize;
point = s.datapoints.points.slice(ps * point, ps * (point + 1));
}
var i = indexOfHighlight(s, point);
if (i !== -1) {
highlights.splice(i, 1);
plot.triggerRedrawOverlay();
}
}
function indexOfHighlight(s, p) {
for (var i = 0; i < highlights.length; ++i) {
var h = highlights[i];
if (h.series === s &&
h.point[0] === p[0] &&
h.point[1] === p[1]) {
return i;
}
}
return -1;
}
function processDatapoints() {
triggerCleanupEvent();
doTriggerClickHoverEvent(lastMouseMoveEvent, eventType.hover);
}
function setupGrid() {
doTriggerClickHoverEvent(lastMouseMoveEvent, eventType.hover);
}
function drawOverlay(plot, octx, overlay) {
var plotOffset = plot.getPlotOffset(),
i, hi;
octx.save();
octx.translate(plotOffset.left, plotOffset.top);
for (i = 0; i < highlights.length; ++i) {
hi = highlights[i];
if (hi.series.bars.show) drawBarHighlight(hi.series, hi.point, octx);
else drawPointHighlight(hi.series, hi.point, octx, plot);
}
octx.restore();
}
function drawPointHighlight(series, point, octx, plot) {
var x = point[0],
y = point[1],
axisx = series.xaxis,
axisy = series.yaxis,
highlightColor = (typeof series.highlightColor === "string") ? series.highlightColor : $.color.parse(series.color).scale('a', 0.5).toString();
if (x < axisx.min || x > axisx.max || y < axisy.min || y > axisy.max) {
return;
}
var pointRadius = series.points.radius + series.points.lineWidth / 2;
octx.lineWidth = pointRadius;
octx.strokeStyle = highlightColor;
var radius = 1.5 * pointRadius;
x = axisx.p2c(x);
y = axisy.p2c(y);
octx.beginPath();
var symbol = series.points.symbol;
if (symbol === 'circle') {
octx.arc(x, y, radius, 0, 2 * Math.PI, false);
} else if (typeof symbol === 'string' && plot.drawSymbol && plot.drawSymbol[symbol]) {
plot.drawSymbol[symbol](octx, x, y, radius, false);
}
octx.closePath();
octx.stroke();
}
function drawBarHighlight(series, point, octx) {
var highlightColor = (typeof series.highlightColor === "string") ? series.highlightColor : $.color.parse(series.color).scale('a', 0.5).toString(),
fillStyle = highlightColor,
barLeft;
var barWidth = series.bars.barWidth[0] || series.bars.barWidth;
switch (series.bars.align) {
case "left":
barLeft = 0;
break;
case "right":
barLeft = -barWidth;
break;
default:
barLeft = -barWidth / 2;
}
octx.lineWidth = series.bars.lineWidth;
octx.strokeStyle = highlightColor;
var fillTowards = series.bars.fillTowards || 0,
bottom = fillTowards > series.yaxis.min ? Math.min(series.yaxis.max, fillTowards) : series.yaxis.min;
$.plot.drawSeries.drawBar(point[0], point[1], point[2] || bottom, barLeft, barLeft + barWidth,
function() {
return fillStyle;
}, series.xaxis, series.yaxis, octx, series.bars.horizontal, series.bars.lineWidth);
}
function initHover(plot, options) {
plot.highlight = highlight;
plot.unhighlight = unhighlight;
if (options.grid.hoverable || options.grid.clickable) {
plot.hooks.drawOverlay.push(drawOverlay);
plot.hooks.processDatapoints.push(processDatapoints);
plot.hooks.setupGrid.push(setupGrid);
}
lastMouseMoveEvent = plot.getPlaceholder()[0].lastMouseMoveEvent;
}
plot.hooks.bindEvents.push(bindEvents);
plot.hooks.shutdown.push(shutdown);
plot.hooks.processOptions.push(initHover);
}
$.plot.plugins.push({
init: init,
options: options,
name: 'hover',
version: '0.1'
});
})(jQuery);
-249
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@@ -1,249 +0,0 @@
/* Flot plugin for plotting images.
Copyright (c) 2007-2014 IOLA and Ole Laursen.
Licensed under the MIT license.
The data syntax is [ [ image, x1, y1, x2, y2 ], ... ] where (x1, y1) and
(x2, y2) are where you intend the two opposite corners of the image to end up
in the plot. Image must be a fully loaded Javascript image (you can make one
with new Image()). If the image is not complete, it's skipped when plotting.
There are two helpers included for retrieving images. The easiest work the way
that you put in URLs instead of images in the data, like this:
[ "myimage.png", 0, 0, 10, 10 ]
Then call $.plot.image.loadData( data, options, callback ) where data and
options are the same as you pass in to $.plot. This loads the images, replaces
the URLs in the data with the corresponding images and calls "callback" when
all images are loaded (or failed loading). In the callback, you can then call
$.plot with the data set. See the included example.
A more low-level helper, $.plot.image.load(urls, callback) is also included.
Given a list of URLs, it calls callback with an object mapping from URL to
Image object when all images are loaded or have failed loading.
The plugin supports these options:
series: {
images: {
show: boolean
anchor: "corner" or "center"
alpha: [ 0, 1 ]
}
}
They can be specified for a specific series:
$.plot( $("#placeholder"), [{
data: [ ... ],
images: { ... }
])
Note that because the data format is different from usual data points, you
can't use images with anything else in a specific data series.
Setting "anchor" to "center" causes the pixels in the image to be anchored at
the corner pixel centers inside of at the pixel corners, effectively letting
half a pixel stick out to each side in the plot.
A possible future direction could be support for tiling for large images (like
Google Maps).
*/
(function ($) {
var options = {
series: {
images: {
show: false,
alpha: 1,
anchor: "corner" // or "center"
}
}
};
$.plot.image = {};
$.plot.image.loadDataImages = function (series, options, callback) {
var urls = [], points = [];
var defaultShow = options.series.images.show;
$.each(series, function (i, s) {
if (!(defaultShow || s.images.show)) {
return;
}
if (s.data) {
s = s.data;
}
$.each(s, function (i, p) {
if (typeof p[0] === "string") {
urls.push(p[0]);
points.push(p);
}
});
});
$.plot.image.load(urls, function (loadedImages) {
$.each(points, function (i, p) {
var url = p[0];
if (loadedImages[url]) {
p[0] = loadedImages[url];
}
});
callback();
});
}
$.plot.image.load = function (urls, callback) {
var missing = urls.length, loaded = {};
if (missing === 0) {
callback({});
}
$.each(urls, function (i, url) {
var handler = function () {
--missing;
loaded[url] = this;
if (missing === 0) {
callback(loaded);
}
};
$('<img />').load(handler).error(handler).attr('src', url);
});
};
function drawSeries(plot, ctx, series) {
var plotOffset = plot.getPlotOffset();
if (!series.images || !series.images.show) {
return;
}
var points = series.datapoints.points,
ps = series.datapoints.pointsize;
for (var i = 0; i < points.length; i += ps) {
var img = points[i],
x1 = points[i + 1], y1 = points[i + 2],
x2 = points[i + 3], y2 = points[i + 4],
xaxis = series.xaxis, yaxis = series.yaxis,
tmp;
// actually we should check img.complete, but it
// appears to be a somewhat unreliable indicator in
// IE6 (false even after load event)
if (!img || img.width <= 0 || img.height <= 0) {
continue;
}
if (x1 > x2) {
tmp = x2;
x2 = x1;
x1 = tmp;
}
if (y1 > y2) {
tmp = y2;
y2 = y1;
y1 = tmp;
}
// if the anchor is at the center of the pixel, expand the
// image by 1/2 pixel in each direction
if (series.images.anchor === "center") {
tmp = 0.5 * (x2 - x1) / (img.width - 1);
x1 -= tmp;
x2 += tmp;
tmp = 0.5 * (y2 - y1) / (img.height - 1);
y1 -= tmp;
y2 += tmp;
}
// clip
if (x1 === x2 || y1 === y2 ||
x1 >= xaxis.max || x2 <= xaxis.min ||
y1 >= yaxis.max || y2 <= yaxis.min) {
continue;
}
var sx1 = 0, sy1 = 0, sx2 = img.width, sy2 = img.height;
if (x1 < xaxis.min) {
sx1 += (sx2 - sx1) * (xaxis.min - x1) / (x2 - x1);
x1 = xaxis.min;
}
if (x2 > xaxis.max) {
sx2 += (sx2 - sx1) * (xaxis.max - x2) / (x2 - x1);
x2 = xaxis.max;
}
if (y1 < yaxis.min) {
sy2 += (sy1 - sy2) * (yaxis.min - y1) / (y2 - y1);
y1 = yaxis.min;
}
if (y2 > yaxis.max) {
sy1 += (sy1 - sy2) * (yaxis.max - y2) / (y2 - y1);
y2 = yaxis.max;
}
x1 = xaxis.p2c(x1);
x2 = xaxis.p2c(x2);
y1 = yaxis.p2c(y1);
y2 = yaxis.p2c(y2);
// the transformation may have swapped us
if (x1 > x2) {
tmp = x2;
x2 = x1;
x1 = tmp;
}
if (y1 > y2) {
tmp = y2;
y2 = y1;
y1 = tmp;
}
tmp = ctx.globalAlpha;
ctx.globalAlpha *= series.images.alpha;
ctx.drawImage(img,
sx1, sy1, sx2 - sx1, sy2 - sy1,
x1 + plotOffset.left, y1 + plotOffset.top,
x2 - x1, y2 - y1);
ctx.globalAlpha = tmp;
}
}
function processRawData(plot, series, data, datapoints) {
if (!series.images.show) {
return;
}
// format is Image, x1, y1, x2, y2 (opposite corners)
datapoints.format = [
{ required: true },
{ x: true, number: true, required: true },
{ y: true, number: true, required: true },
{ x: true, number: true, required: true },
{ y: true, number: true, required: true }
];
}
function init(plot) {
plot.hooks.processRawData.push(processRawData);
plot.hooks.drawSeries.push(drawSeries);
}
$.plot.plugins.push({
init: init,
options: options,
name: 'image',
version: '1.1'
});
})(jQuery);
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-437
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@@ -1,437 +0,0 @@
/* Flot plugin for drawing legends.
*/
(function($) {
var defaultOptions = {
legend: {
show: false,
noColumns: 1,
labelFormatter: null, // fn: string -> string
container: null, // container (as jQuery object) to put legend in, null means default on top of graph
position: 'ne', // position of default legend container within plot
margin: 5, // distance from grid edge to default legend container within plot
sorted: null // default to no legend sorting
}
};
function insertLegend(plot, options, placeholder, legendEntries) {
// clear before redraw
if (options.legend.container != null) {
$(options.legend.container).html('');
} else {
placeholder.find('.legend').remove();
}
if (!options.legend.show) {
return;
}
// Save the legend entries in legend options
var entries = options.legend.legendEntries = legendEntries,
plotOffset = options.legend.plotOffset = plot.getPlotOffset(),
html = [],
entry, labelHtml, iconHtml,
j = 0,
i,
pos = "",
p = options.legend.position,
m = options.legend.margin,
shape = {
name: '',
label: '',
xPos: '',
yPos: ''
};
html[j++] = '<svg class="legendLayer" style="width:inherit;height:inherit;">';
html[j++] = '<rect class="background" width="100%" height="100%"/>';
html[j++] = svgShapeDefs;
var left = 0;
var columnWidths = [];
var style = window.getComputedStyle(document.querySelector('body'));
for (i = 0; i < entries.length; ++i) {
var columnIndex = i % options.legend.noColumns;
entry = entries[i];
shape.label = entry.label;
var info = plot.getSurface().getTextInfo('', shape.label, {
style: style.fontStyle,
variant: style.fontVariant,
weight: style.fontWeight,
size: parseInt(style.fontSize),
lineHeight: parseInt(style.lineHeight),
family: style.fontFamily
});
var labelWidth = info.width;
// 36px = 1.5em + 6px margin
var iconWidth = 48;
if (columnWidths[columnIndex]) {
if (labelWidth > columnWidths[columnIndex]) {
columnWidths[columnIndex] = labelWidth + iconWidth;
}
} else {
columnWidths[columnIndex] = labelWidth + iconWidth;
}
}
// Generate html for icons and labels from a list of entries
for (i = 0; i < entries.length; ++i) {
var columnIndex = i % options.legend.noColumns;
entry = entries[i];
iconHtml = '';
shape.label = entry.label;
shape.xPos = (left + 3) + 'px';
left += columnWidths[columnIndex];
if ((i + 1) % options.legend.noColumns === 0) {
left = 0;
}
shape.yPos = Math.floor(i / options.legend.noColumns) * 1.5 + 'em';
// area
if (entry.options.lines.show && entry.options.lines.fill) {
shape.name = 'area';
shape.fillColor = entry.color;
iconHtml += getEntryIconHtml(shape);
}
// bars
if (entry.options.bars.show) {
shape.name = 'bar';
shape.fillColor = entry.color;
iconHtml += getEntryIconHtml(shape);
}
// lines
if (entry.options.lines.show && !entry.options.lines.fill) {
shape.name = 'line';
shape.strokeColor = entry.color;
shape.strokeWidth = entry.options.lines.lineWidth;
iconHtml += getEntryIconHtml(shape);
}
// points
if (entry.options.points.show) {
shape.name = entry.options.points.symbol;
shape.strokeColor = entry.color;
shape.fillColor = entry.options.points.fillColor;
shape.strokeWidth = entry.options.points.lineWidth;
iconHtml += getEntryIconHtml(shape);
}
labelHtml = '<text x="' + shape.xPos + '" y="' + shape.yPos + '" text-anchor="start"><tspan dx="2em" dy="1.2em">' + shape.label + '</tspan></text>'
html[j++] = '<g>' + iconHtml + labelHtml + '</g>';
}
html[j++] = '</svg>';
if (m[0] == null) {
m = [m, m];
}
if (p.charAt(0) === 'n') {
pos += 'top:' + (m[1] + plotOffset.top) + 'px;';
} else if (p.charAt(0) === 's') {
pos += 'bottom:' + (m[1] + plotOffset.bottom) + 'px;';
}
if (p.charAt(1) === 'e') {
pos += 'right:' + (m[0] + plotOffset.right) + 'px;';
} else if (p.charAt(1) === 'w') {
pos += 'left:' + (m[0] + plotOffset.left) + 'px;';
}
var width = 6;
for (i = 0; i < columnWidths.length; ++i) {
width += columnWidths[i];
}
var legendEl,
height = Math.ceil(entries.length / options.legend.noColumns) * 1.6;
if (!options.legend.container) {
legendEl = $('<div class="legend" style="position:absolute;' + pos + '">' + html.join('') + '</div>').appendTo(placeholder);
legendEl.css('width', width + 'px');
legendEl.css('height', height + 'em');
legendEl.css('pointerEvents', 'none');
} else {
legendEl = $(html.join('')).appendTo(options.legend.container)[0];
options.legend.container.style.width = width + 'px';
options.legend.container.style.height = height + 'em';
}
}
// Generate html for a shape
function getEntryIconHtml(shape) {
var html = '',
name = shape.name,
x = shape.xPos,
y = shape.yPos,
fill = shape.fillColor,
stroke = shape.strokeColor,
width = shape.strokeWidth;
switch (name) {
case 'circle':
html = '<use xlink:href="#circle" class="legendIcon" ' +
'x="' + x + '" ' +
'y="' + y + '" ' +
'fill="' + fill + '" ' +
'stroke="' + stroke + '" ' +
'stroke-width="' + width + '" ' +
'width="1.5em" height="1.5em"' +
'/>';
break;
case 'diamond':
html = '<use xlink:href="#diamond" class="legendIcon" ' +
'x="' + x + '" ' +
'y="' + y + '" ' +
'fill="' + fill + '" ' +
'stroke="' + stroke + '" ' +
'stroke-width="' + width + '" ' +
'width="1.5em" height="1.5em"' +
'/>';
break;
case 'cross':
html = '<use xlink:href="#cross" class="legendIcon" ' +
'x="' + x + '" ' +
'y="' + y + '" ' +
// 'fill="' + fill + '" ' +
'stroke="' + stroke + '" ' +
'stroke-width="' + width + '" ' +
'width="1.5em" height="1.5em"' +
'/>';
break;
case 'rectangle':
html = '<use xlink:href="#rectangle" class="legendIcon" ' +
'x="' + x + '" ' +
'y="' + y + '" ' +
'fill="' + fill + '" ' +
'stroke="' + stroke + '" ' +
'stroke-width="' + width + '" ' +
'width="1.5em" height="1.5em"' +
'/>';
break;
case 'plus':
html = '<use xlink:href="#plus" class="legendIcon" ' +
'x="' + x + '" ' +
'y="' + y + '" ' +
// 'fill="' + fill + '" ' +
'stroke="' + stroke + '" ' +
'stroke-width="' + width + '" ' +
'width="1.5em" height="1.5em"' +
'/>';
break;
case 'bar':
html = '<use xlink:href="#bars" class="legendIcon" ' +
'x="' + x + '" ' +
'y="' + y + '" ' +
'fill="' + fill + '" ' +
// 'stroke="' + stroke + '" ' +
// 'stroke-width="' + width + '" ' +
'width="1.5em" height="1.5em"' +
'/>';
break;
case 'area':
html = '<use xlink:href="#area" class="legendIcon" ' +
'x="' + x + '" ' +
'y="' + y + '" ' +
'fill="' + fill + '" ' +
// 'stroke="' + stroke + '" ' +
// 'stroke-width="' + width + '" ' +
'width="1.5em" height="1.5em"' +
'/>';
break;
case 'line':
html = '<use xlink:href="#line" class="legendIcon" ' +
'x="' + x + '" ' +
'y="' + y + '" ' +
// 'fill="' + fill + '" ' +
'stroke="' + stroke + '" ' +
'stroke-width="' + width + '" ' +
'width="1.5em" height="1.5em"' +
'/>';
break;
default:
// default is circle
html = '<use xlink:href="#circle" class="legendIcon" ' +
'x="' + x + '" ' +
'y="' + y + '" ' +
'fill="' + fill + '" ' +
'stroke="' + stroke + '" ' +
'stroke-width="' + width + '" ' +
'width="1.5em" height="1.5em"' +
'/>';
}
return html;
}
// Define svg symbols for shapes
var svgShapeDefs = '' +
'<defs>' +
'<symbol id="line" fill="none" viewBox="-5 -5 25 25">' +
'<polyline points="0,15 5,5 10,10 15,0"/>' +
'</symbol>' +
'<symbol id="area" stroke-width="1" viewBox="-5 -5 25 25">' +
'<polyline points="0,15 5,5 10,10 15,0, 15,15, 0,15"/>' +
'</symbol>' +
'<symbol id="bars" stroke-width="1" viewBox="-5 -5 25 25">' +
'<polyline points="1.5,15.5 1.5,12.5, 4.5,12.5 4.5,15.5 6.5,15.5 6.5,3.5, 9.5,3.5 9.5,15.5 11.5,15.5 11.5,7.5 14.5,7.5 14.5,15.5 1.5,15.5"/>' +
'</symbol>' +
'<symbol id="circle" viewBox="-5 -5 25 25">' +
'<circle cx="0" cy="15" r="2.5"/>' +
'<circle cx="5" cy="5" r="2.5"/>' +
'<circle cx="10" cy="10" r="2.5"/>' +
'<circle cx="15" cy="0" r="2.5"/>' +
'</symbol>' +
'<symbol id="rectangle" viewBox="-5 -5 25 25">' +
'<rect x="-2.1" y="12.9" width="4.2" height="4.2"/>' +
'<rect x="2.9" y="2.9" width="4.2" height="4.2"/>' +
'<rect x="7.9" y="7.9" width="4.2" height="4.2"/>' +
'<rect x="12.9" y="-2.1" width="4.2" height="4.2"/>' +
'</symbol>' +
'<symbol id="diamond" viewBox="-5 -5 25 25">' +
'<path d="M-3,15 L0,12 L3,15, L0,18 Z"/>' +
'<path d="M2,5 L5,2 L8,5, L5,8 Z"/>' +
'<path d="M7,10 L10,7 L13,10, L10,13 Z"/>' +
'<path d="M12,0 L15,-3 L18,0, L15,3 Z"/>' +
'</symbol>' +
'<symbol id="cross" fill="none" viewBox="-5 -5 25 25">' +
'<path d="M-2.1,12.9 L2.1,17.1, M2.1,12.9 L-2.1,17.1 Z"/>' +
'<path d="M2.9,2.9 L7.1,7.1 M7.1,2.9 L2.9,7.1 Z"/>' +
'<path d="M7.9,7.9 L12.1,12.1 M12.1,7.9 L7.9,12.1 Z"/>' +
'<path d="M12.9,-2.1 L17.1,2.1 M17.1,-2.1 L12.9,2.1 Z"/>' +
'</symbol>' +
'<symbol id="plus" fill="none" viewBox="-5 -5 25 25">' +
'<path d="M0,12 L0,18, M-3,15 L3,15 Z"/>' +
'<path d="M5,2 L5,8 M2,5 L8,5 Z"/>' +
'<path d="M10,7 L10,13 M7,10 L13,10 Z"/>' +
'<path d="M15,-3 L15,3 M12,0 L18,0 Z"/>' +
'</symbol>' +
'</defs>';
// Generate a list of legend entries in their final order
function getLegendEntries(series, labelFormatter, sorted) {
var lf = labelFormatter,
legendEntries = series.reduce(function(validEntries, s, i) {
var labelEval = (lf ? lf(s.label, s) : s.label)
if (s.hasOwnProperty("label") ? labelEval : true) {
var entry = {
label: labelEval || 'Plot ' + (i + 1),
color: s.color,
options: {
lines: s.lines,
points: s.points,
bars: s.bars
}
}
validEntries.push(entry)
}
return validEntries;
}, []);
// Sort the legend using either the default or a custom comparator
if (sorted) {
if ($.isFunction(sorted)) {
legendEntries.sort(sorted);
} else if (sorted === 'reverse') {
legendEntries.reverse();
} else {
var ascending = (sorted !== 'descending');
legendEntries.sort(function(a, b) {
return a.label === b.label
? 0
: ((a.label < b.label) !== ascending ? 1 : -1 // Logical XOR
);
});
}
}
return legendEntries;
}
// return false if opts1 same as opts2
function checkOptions(opts1, opts2) {
for (var prop in opts1) {
if (opts1.hasOwnProperty(prop)) {
if (opts1[prop] !== opts2[prop]) {
return true;
}
}
}
return false;
}
// Compare two lists of legend entries
function shouldRedraw(oldEntries, newEntries) {
if (!oldEntries || !newEntries) {
return true;
}
if (oldEntries.length !== newEntries.length) {
return true;
}
var i, newEntry, oldEntry, newOpts, oldOpts;
for (i = 0; i < newEntries.length; i++) {
newEntry = newEntries[i];
oldEntry = oldEntries[i];
if (newEntry.label !== oldEntry.label) {
return true;
}
if (newEntry.color !== oldEntry.color) {
return true;
}
// check for changes in lines options
newOpts = newEntry.options.lines;
oldOpts = oldEntry.options.lines;
if (checkOptions(newOpts, oldOpts)) {
return true;
}
// check for changes in points options
newOpts = newEntry.options.points;
oldOpts = oldEntry.options.points;
if (checkOptions(newOpts, oldOpts)) {
return true;
}
// check for changes in bars options
newOpts = newEntry.options.bars;
oldOpts = oldEntry.options.bars;
if (checkOptions(newOpts, oldOpts)) {
return true;
}
}
return false;
}
function init(plot) {
plot.hooks.setupGrid.push(function (plot) {
var options = plot.getOptions();
var series = plot.getData(),
labelFormatter = options.legend.labelFormatter,
oldEntries = options.legend.legendEntries,
oldPlotOffset = options.legend.plotOffset,
newEntries = getLegendEntries(series, labelFormatter, options.legend.sorted),
newPlotOffset = plot.getPlotOffset();
if (shouldRedraw(oldEntries, newEntries) ||
checkOptions(oldPlotOffset, newPlotOffset)) {
insertLegend(plot, options, plot.getPlaceholder(), newEntries);
}
});
}
$.plot.plugins.push({
init: init,
options: defaultOptions,
name: 'legend',
version: '1.0'
});
})(jQuery);
-298
View File
@@ -1,298 +0,0 @@
/* Pretty handling of log axes.
Copyright (c) 2007-2014 IOLA and Ole Laursen.
Copyright (c) 2015 Ciprian Ceteras cipix2000@gmail.com.
Copyright (c) 2017 Raluca Portase
Licensed under the MIT license.
Set axis.mode to "log" to enable.
*/
/* global jQuery*/
/**
## jquery.flot.logaxis
This plugin is used to create logarithmic axis. This includes tick generation,
formatters and transformers to and from logarithmic representation.
### Methods and hooks
*/
(function ($) {
'use strict';
var options = {
xaxis: {}
};
/*tick generators and formatters*/
var PREFERRED_LOG_TICK_VALUES = computePreferedLogTickValues(Number.MAX_VALUE, 10),
EXTENDED_LOG_TICK_VALUES = computePreferedLogTickValues(Number.MAX_VALUE, 4);
function computePreferedLogTickValues(endLimit, rangeStep) {
var log10End = Math.floor(Math.log(endLimit) * Math.LOG10E) - 1,
log10Start = -log10End,
val, range, vals = [];
for (var power = log10Start; power <= log10End; power++) {
range = parseFloat('1e' + power);
for (var mult = 1; mult < 9; mult += rangeStep) {
val = range * mult;
vals.push(val);
}
}
return vals;
}
/**
- logTickGenerator(plot, axis, noTicks)
Generates logarithmic ticks, depending on axis range.
In case the number of ticks that can be generated is less than the expected noTicks/4,
a linear tick generation is used.
*/
var logTickGenerator = function (plot, axis, noTicks) {
var ticks = [],
minIdx = -1,
maxIdx = -1,
surface = plot.getCanvas(),
logTickValues = PREFERRED_LOG_TICK_VALUES,
min = clampAxis(axis, plot),
max = axis.max;
if (!noTicks) {
noTicks = 0.3 * Math.sqrt(axis.direction === "x" ? surface.width : surface.height);
}
PREFERRED_LOG_TICK_VALUES.some(function (val, i) {
if (val >= min) {
minIdx = i;
return true;
} else {
return false;
}
});
PREFERRED_LOG_TICK_VALUES.some(function (val, i) {
if (val >= max) {
maxIdx = i;
return true;
} else {
return false;
}
});
if (maxIdx === -1) {
maxIdx = PREFERRED_LOG_TICK_VALUES.length - 1;
}
if (maxIdx - minIdx <= noTicks / 4 && logTickValues.length !== EXTENDED_LOG_TICK_VALUES.length) {
//try with multiple of 5 for tick values
logTickValues = EXTENDED_LOG_TICK_VALUES;
minIdx *= 2;
maxIdx *= 2;
}
var lastDisplayed = null,
inverseNoTicks = 1 / noTicks,
tickValue, pixelCoord, tick;
// Count the number of tick values would appear, if we can get at least
// nTicks / 4 accept them.
if (maxIdx - minIdx >= noTicks / 4) {
for (var idx = maxIdx; idx >= minIdx; idx--) {
tickValue = logTickValues[idx];
pixelCoord = (Math.log(tickValue) - Math.log(min)) / (Math.log(max) - Math.log(min));
tick = tickValue;
if (lastDisplayed === null) {
lastDisplayed = {
pixelCoord: pixelCoord,
idealPixelCoord: pixelCoord
};
} else {
if (Math.abs(pixelCoord - lastDisplayed.pixelCoord) >= inverseNoTicks) {
lastDisplayed = {
pixelCoord: pixelCoord,
idealPixelCoord: lastDisplayed.idealPixelCoord - inverseNoTicks
};
} else {
tick = null;
}
}
if (tick) {
ticks.push(tick);
}
}
// Since we went in backwards order.
ticks.reverse();
} else {
var tickSize = plot.computeTickSize(min, max, noTicks),
customAxis = {min: min, max: max, tickSize: tickSize};
ticks = $.plot.linearTickGenerator(customAxis);
}
return ticks;
};
var clampAxis = function (axis, plot) {
var min = axis.min,
max = axis.max;
if (min <= 0) {
//for empty graph if axis.min is not strictly positive make it 0.1
if (axis.datamin === null) {
min = axis.min = 0.1;
} else {
min = processAxisOffset(plot, axis);
}
if (max < min) {
axis.max = axis.datamax !== null ? axis.datamax : axis.options.max;
axis.options.offset.below = 0;
axis.options.offset.above = 0;
}
}
return min;
}
/**
- logTickFormatter(value, axis, precision)
This is the corresponding tickFormatter of the logaxis.
For a number greater that 10^6 or smaller than 10^(-3), this will be drawn
with e representation
*/
var logTickFormatter = function (value, axis, precision) {
var tenExponent = value > 0 ? Math.floor(Math.log(value) / Math.LN10) : 0;
if (precision) {
if ((tenExponent >= -4) && (tenExponent <= 7)) {
return $.plot.defaultTickFormatter(value, axis, precision);
} else {
return $.plot.expRepTickFormatter(value, axis, precision);
}
}
if ((tenExponent >= -4) && (tenExponent <= 7)) {
//if we have float numbers, return a limited length string(ex: 0.0009 is represented as 0.000900001)
var formattedValue = tenExponent < 0 ? value.toFixed(-tenExponent) : value.toFixed(tenExponent + 2);
if (formattedValue.indexOf('.') !== -1) {
var lastZero = formattedValue.lastIndexOf('0');
while (lastZero === formattedValue.length - 1) {
formattedValue = formattedValue.slice(0, -1);
lastZero = formattedValue.lastIndexOf('0');
}
//delete the dot if is last
if (formattedValue.indexOf('.') === formattedValue.length - 1) {
formattedValue = formattedValue.slice(0, -1);
}
}
return formattedValue;
} else {
return $.plot.expRepTickFormatter(value, axis);
}
};
/*logaxis caracteristic functions*/
var logTransform = function (v) {
if (v < PREFERRED_LOG_TICK_VALUES[0]) {
v = PREFERRED_LOG_TICK_VALUES[0];
}
return Math.log(v);
};
var logInverseTransform = function (v) {
return Math.exp(v);
};
var invertedTransform = function (v) {
return -v;
}
var invertedLogTransform = function (v) {
return -logTransform(v);
}
var invertedLogInverseTransform = function (v) {
return logInverseTransform(-v);
}
/**
- setDataminRange(plot, axis)
It is used for clamping the starting point of a logarithmic axis.
This will set the axis datamin range to 0.1 or to the first datapoint greater then 0.
The function is usefull since the logarithmic representation can not show
values less than or equal to 0.
*/
function setDataminRange(plot, axis) {
if (axis.options.mode === 'log' && axis.datamin <= 0) {
if (axis.datamin === null) {
axis.datamin = 0.1;
} else {
axis.datamin = processAxisOffset(plot, axis);
}
}
}
function processAxisOffset(plot, axis) {
var series = plot.getData(),
range = series
.filter(function(series) {
return series.xaxis === axis || series.yaxis === axis;
})
.map(function(series) {
return plot.computeRangeForDataSeries(series, null, isValid);
}),
min = axis.direction === 'x'
? Math.min(0.1, range && range[0] ? range[0].xmin : 0.1)
: Math.min(0.1, range && range[0] ? range[0].ymin : 0.1);
axis.min = min;
return min;
}
function isValid(a) {
return a > 0;
}
function init(plot) {
plot.hooks.processOptions.push(function (plot) {
$.each(plot.getAxes(), function (axisName, axis) {
var opts = axis.options;
if (opts.mode === 'log') {
axis.tickGenerator = function (axis) {
var noTicks = 11;
return logTickGenerator(plot, axis, noTicks);
};
if (typeof axis.options.tickFormatter !== 'function') {
axis.options.tickFormatter = logTickFormatter;
}
axis.options.transform = opts.inverted ? invertedLogTransform : logTransform;
axis.options.inverseTransform = opts.inverted ? invertedLogInverseTransform : logInverseTransform;
axis.options.autoScaleMargin = 0;
plot.hooks.setRange.push(setDataminRange);
} else if (opts.inverted) {
axis.options.transform = invertedTransform;
axis.options.inverseTransform = invertedTransform;
}
});
});
}
$.plot.plugins.push({
init: init,
options: options,
name: 'log',
version: '0.1'
});
$.plot.logTicksGenerator = logTickGenerator;
$.plot.logTickFormatter = logTickFormatter;
})(jQuery);
-798
View File
@@ -1,798 +0,0 @@
/* Flot plugin for adding the ability to pan and zoom the plot.
Copyright (c) 2007-2014 IOLA and Ole Laursen.
Copyright (c) 2016 Ciprian Ceteras.
Copyright (c) 2017 Raluca Portase.
Licensed under the MIT license.
*/
/**
## jquery.flot.navigate.js
This flot plugin is used for adding the ability to pan and zoom the plot.
A higher level overview is available at [interactions](interactions.md) documentation.
The default behaviour is scrollwheel up/down to zoom in, drag
to pan. The plugin defines plot.zoom({ center }), plot.zoomOut() and
plot.pan( offset ) so you easily can add custom controls. It also fires
"plotpan" and "plotzoom" events, useful for synchronizing plots.
The plugin supports these options:
```js
zoom: {
interactive: false,
active: false,
amount: 1.5 // 2 = 200% (zoom in), 0.5 = 50% (zoom out)
}
pan: {
interactive: false,
active: false,
cursor: "move", // CSS mouse cursor value used when dragging, e.g. "pointer"
frameRate: 60,
mode: "smart" // enable smart pan mode
}
xaxis: {
axisZoom: true, //zoom axis when mouse over it is allowed
plotZoom: true, //zoom axis is allowed for plot zoom
axisPan: true, //pan axis when mouse over it is allowed
plotPan: true //pan axis is allowed for plot pan
}
yaxis: {
axisZoom: true, //zoom axis when mouse over it is allowed
plotZoom: true, //zoom axis is allowed for plot zoom
axisPan: true, //pan axis when mouse over it is allowed
plotPan: true //pan axis is allowed for plot pan
}
```
**interactive** enables the built-in drag/click behaviour. If you enable
interactive for pan, then you'll have a basic plot that supports moving
around; the same for zoom.
**active** is true after a touch tap on plot. This enables plot navigation.
Once activated, zoom and pan cannot be deactivated. When the plot becomes active,
"plotactivated" event is triggered.
**amount** specifies the default amount to zoom in (so 1.5 = 150%) relative to
the current viewport.
**cursor** is a standard CSS mouse cursor string used for visual feedback to the
user when dragging.
**frameRate** specifies the maximum number of times per second the plot will
update itself while the user is panning around on it (set to null to disable
intermediate pans, the plot will then not update until the mouse button is
released).
**mode** a string specifies the pan mode for mouse interaction. Accepted values:
'manual': no pan hint or direction snapping;
'smart': The graph shows pan hint bar and the pan movement will snap
to one direction when the drag direction is close to it;
'smartLock'. The graph shows pan hint bar and the pan movement will always
snap to a direction that the drag diorection started with.
Example API usage:
```js
plot = $.plot(...);
// zoom default amount in on the pixel ( 10, 20 )
plot.zoom({ center: { left: 10, top: 20 } });
// zoom out again
plot.zoomOut({ center: { left: 10, top: 20 } });
// zoom 200% in on the pixel (10, 20)
plot.zoom({ amount: 2, center: { left: 10, top: 20 } });
// pan 100 pixels to the left (changing x-range in a positive way) and 20 down
plot.pan({ left: -100, top: 20 })
```
Here, "center" specifies where the center of the zooming should happen. Note
that this is defined in pixel space, not the space of the data points (you can
use the p2c helpers on the axes in Flot to help you convert between these).
**amount** is the amount to zoom the viewport relative to the current range, so
1 is 100% (i.e. no change), 1.5 is 150% (zoom in), 0.7 is 70% (zoom out). You
can set the default in the options.
*/
/* eslint-enable */
(function($) {
'use strict';
var options = {
zoom: {
interactive: false,
active: false,
amount: 1.5 // how much to zoom relative to current position, 2 = 200% (zoom in), 0.5 = 50% (zoom out)
},
pan: {
interactive: false,
active: false,
cursor: "move",
frameRate: 60,
mode: 'smart'
},
recenter: {
interactive: true
},
xaxis: {
axisZoom: true, //zoom axis when mouse over it is allowed
plotZoom: true, //zoom axis is allowed for plot zoom
axisPan: true, //pan axis when mouse over it is allowed
plotPan: true //pan axis is allowed for plot pan
},
yaxis: {
axisZoom: true,
plotZoom: true,
axisPan: true,
plotPan: true
}
};
var saturated = $.plot.saturated;
var browser = $.plot.browser;
var SNAPPING_CONSTANT = $.plot.uiConstants.SNAPPING_CONSTANT;
var PANHINT_LENGTH_CONSTANT = $.plot.uiConstants.PANHINT_LENGTH_CONSTANT;
function init(plot) {
plot.hooks.processOptions.push(initNevigation);
}
function initNevigation(plot, options) {
var panAxes = null;
var canDrag = false;
var useManualPan = options.pan.mode === 'manual',
smartPanLock = options.pan.mode === 'smartLock',
useSmartPan = smartPanLock || options.pan.mode === 'smart';
function onZoomClick(e, zoomOut, amount) {
var page = browser.getPageXY(e);
var c = plot.offset();
c.left = page.X - c.left;
c.top = page.Y - c.top;
var ec = plot.getPlaceholder().offset();
ec.left = page.X - ec.left;
ec.top = page.Y - ec.top;
var axes = plot.getXAxes().concat(plot.getYAxes()).filter(function (axis) {
var box = axis.box;
if (box !== undefined) {
return (ec.left > box.left) && (ec.left < box.left + box.width) &&
(ec.top > box.top) && (ec.top < box.top + box.height);
}
});
if (axes.length === 0) {
axes = undefined;
}
if (zoomOut) {
plot.zoomOut({
center: c,
axes: axes,
amount: amount
});
} else {
plot.zoom({
center: c,
axes: axes,
amount: amount
});
}
}
var prevCursor = 'default',
panHint = null,
panTimeout = null,
plotState,
prevDragPosition = { x: 0, y: 0 },
isPanAction = false;
function onMouseWheel(e, delta) {
var maxAbsoluteDeltaOnMac = 1,
isMacScroll = Math.abs(e.originalEvent.deltaY) <= maxAbsoluteDeltaOnMac,
defaultNonMacScrollAmount = null,
macMagicRatio = 50,
amount = isMacScroll ? 1 + Math.abs(e.originalEvent.deltaY) / macMagicRatio : defaultNonMacScrollAmount;
if (isPanAction) {
onDragEnd(e);
}
if (plot.getOptions().zoom.active) {
e.preventDefault();
onZoomClick(e, delta < 0, amount);
return false;
}
}
plot.navigationState = function(startPageX, startPageY) {
var axes = this.getAxes();
var result = {};
Object.keys(axes).forEach(function(axisName) {
var axis = axes[axisName];
result[axisName] = {
navigationOffset: { below: axis.options.offset.below || 0,
above: axis.options.offset.above || 0},
axisMin: axis.min,
axisMax: axis.max,
diagMode: false
}
});
result.startPageX = startPageX || 0;
result.startPageY = startPageY || 0;
return result;
}
function onMouseDown(e) {
canDrag = true;
}
function onMouseUp(e) {
canDrag = false;
}
function isLeftMouseButtonPressed(e) {
return e.button === 0;
}
function onDragStart(e) {
if (!canDrag || !isLeftMouseButtonPressed(e)) {
return false;
}
isPanAction = true;
var page = browser.getPageXY(e);
var ec = plot.getPlaceholder().offset();
ec.left = page.X - ec.left;
ec.top = page.Y - ec.top;
panAxes = plot.getXAxes().concat(plot.getYAxes()).filter(function (axis) {
var box = axis.box;
if (box !== undefined) {
return (ec.left > box.left) && (ec.left < box.left + box.width) &&
(ec.top > box.top) && (ec.top < box.top + box.height);
}
});
if (panAxes.length === 0) {
panAxes = undefined;
}
var c = plot.getPlaceholder().css('cursor');
if (c) {
prevCursor = c;
}
plot.getPlaceholder().css('cursor', plot.getOptions().pan.cursor);
if (useSmartPan) {
plotState = plot.navigationState(page.X, page.Y);
} else if (useManualPan) {
prevDragPosition.x = page.X;
prevDragPosition.y = page.Y;
}
}
function onDrag(e) {
if (!isPanAction) {
return;
}
var page = browser.getPageXY(e);
var frameRate = plot.getOptions().pan.frameRate;
if (frameRate === -1) {
if (useSmartPan) {
plot.smartPan({
x: plotState.startPageX - page.X,
y: plotState.startPageY - page.Y
}, plotState, panAxes, false, smartPanLock);
} else if (useManualPan) {
plot.pan({
left: prevDragPosition.x - page.X,
top: prevDragPosition.y - page.Y,
axes: panAxes
});
prevDragPosition.x = page.X;
prevDragPosition.y = page.Y;
}
return;
}
if (panTimeout || !frameRate) return;
panTimeout = setTimeout(function() {
if (useSmartPan) {
plot.smartPan({
x: plotState.startPageX - page.X,
y: plotState.startPageY - page.Y
}, plotState, panAxes, false, smartPanLock);
} else if (useManualPan) {
plot.pan({
left: prevDragPosition.x - page.X,
top: prevDragPosition.y - page.Y,
axes: panAxes
});
prevDragPosition.x = page.X;
prevDragPosition.y = page.Y;
}
panTimeout = null;
}, 1 / frameRate * 1000);
}
function onDragEnd(e) {
if (!isPanAction) {
return;
}
if (panTimeout) {
clearTimeout(panTimeout);
panTimeout = null;
}
isPanAction = false;
var page = browser.getPageXY(e);
plot.getPlaceholder().css('cursor', prevCursor);
if (useSmartPan) {
plot.smartPan({
x: plotState.startPageX - page.X,
y: plotState.startPageY - page.Y
}, plotState, panAxes, false, smartPanLock);
plot.smartPan.end();
} else if (useManualPan) {
plot.pan({
left: prevDragPosition.x - page.X,
top: prevDragPosition.y - page.Y,
axes: panAxes
});
prevDragPosition.x = 0;
prevDragPosition.y = 0;
}
}
function onDblClick(e) {
plot.activate();
var o = plot.getOptions()
if (!o.recenter.interactive) { return; }
var axes = plot.getTouchedAxis(e.clientX, e.clientY),
event;
plot.recenter({ axes: axes[0] ? axes : null });
if (axes[0]) {
event = new $.Event('re-center', { detail: {
axisTouched: axes[0]
}});
} else {
event = new $.Event('re-center', { detail: e });
}
plot.getPlaceholder().trigger(event);
}
function onClick(e) {
plot.activate();
if (isPanAction) {
onDragEnd(e);
}
return false;
}
plot.activate = function() {
var o = plot.getOptions();
if (!o.pan.active || !o.zoom.active) {
o.pan.active = true;
o.zoom.active = true;
plot.getPlaceholder().trigger("plotactivated", [plot]);
}
}
function bindEvents(plot, eventHolder) {
var o = plot.getOptions();
if (o.zoom.interactive) {
eventHolder.mousewheel(onMouseWheel);
}
if (o.pan.interactive) {
plot.addEventHandler("dragstart", onDragStart, eventHolder, 0);
plot.addEventHandler("drag", onDrag, eventHolder, 0);
plot.addEventHandler("dragend", onDragEnd, eventHolder, 0);
eventHolder.bind("mousedown", onMouseDown);
eventHolder.bind("mouseup", onMouseUp);
}
eventHolder.dblclick(onDblClick);
eventHolder.click(onClick);
}
plot.zoomOut = function(args) {
if (!args) {
args = {};
}
if (!args.amount) {
args.amount = plot.getOptions().zoom.amount;
}
args.amount = 1 / args.amount;
plot.zoom(args);
};
plot.zoom = function(args) {
if (!args) {
args = {};
}
var c = args.center,
amount = args.amount || plot.getOptions().zoom.amount,
w = plot.width(),
h = plot.height(),
axes = args.axes || plot.getAxes();
if (!c) {
c = {
left: w / 2,
top: h / 2
};
}
var xf = c.left / w,
yf = c.top / h,
minmax = {
x: {
min: c.left - xf * w / amount,
max: c.left + (1 - xf) * w / amount
},
y: {
min: c.top - yf * h / amount,
max: c.top + (1 - yf) * h / amount
}
};
for (var key in axes) {
if (!axes.hasOwnProperty(key)) {
continue;
}
var axis = axes[key],
opts = axis.options,
min = minmax[axis.direction].min,
max = minmax[axis.direction].max,
navigationOffset = axis.options.offset;
//skip axis without axisZoom when zooming only on certain axis or axis without plotZoom for zoom on entire plot
if ((!opts.axisZoom && args.axes) || (!args.axes && !opts.plotZoom)) {
continue;
}
min = $.plot.saturated.saturate(axis.c2p(min));
max = $.plot.saturated.saturate(axis.c2p(max));
if (min > max) {
// make sure min < max
var tmp = min;
min = max;
max = tmp;
}
var offsetBelow = $.plot.saturated.saturate(navigationOffset.below - (axis.min - min));
var offsetAbove = $.plot.saturated.saturate(navigationOffset.above - (axis.max - max));
opts.offset = { below: offsetBelow, above: offsetAbove };
};
plot.setupGrid(true);
plot.draw();
if (!args.preventEvent) {
plot.getPlaceholder().trigger("plotzoom", [plot, args]);
}
};
plot.pan = function(args) {
var delta = {
x: +args.left,
y: +args.top
};
if (isNaN(delta.x)) delta.x = 0;
if (isNaN(delta.y)) delta.y = 0;
$.each(args.axes || plot.getAxes(), function(_, axis) {
var opts = axis.options,
d = delta[axis.direction];
//skip axis without axisPan when panning only on certain axis or axis without plotPan for pan the entire plot
if ((!opts.axisPan && args.axes) || (!opts.plotPan && !args.axes)) {
return;
}
if (d !== 0) {
var navigationOffsetBelow = saturated.saturate(axis.c2p(axis.p2c(axis.min) + d) - axis.c2p(axis.p2c(axis.min))),
navigationOffsetAbove = saturated.saturate(axis.c2p(axis.p2c(axis.max) + d) - axis.c2p(axis.p2c(axis.max)));
if (!isFinite(navigationOffsetBelow)) {
navigationOffsetBelow = 0;
}
if (!isFinite(navigationOffsetAbove)) {
navigationOffsetAbove = 0;
}
opts.offset = {
below: saturated.saturate(navigationOffsetBelow + (opts.offset.below || 0)),
above: saturated.saturate(navigationOffsetAbove + (opts.offset.above || 0))
};
}
});
plot.setupGrid(true);
plot.draw();
if (!args.preventEvent) {
plot.getPlaceholder().trigger("plotpan", [plot, args]);
}
};
plot.recenter = function(args) {
$.each(args.axes || plot.getAxes(), function(_, axis) {
if (args.axes) {
if (this.direction === 'x') {
axis.options.offset = { below: 0 };
} else if (this.direction === 'y') {
axis.options.offset = { above: 0 };
}
} else {
axis.options.offset = { below: 0, above: 0 };
}
});
plot.setupGrid(true);
plot.draw();
};
var shouldSnap = function(delta) {
return (Math.abs(delta.y) < SNAPPING_CONSTANT && Math.abs(delta.x) >= SNAPPING_CONSTANT) ||
(Math.abs(delta.x) < SNAPPING_CONSTANT && Math.abs(delta.y) >= SNAPPING_CONSTANT);
}
// adjust delta so the pan action is constrained on the vertical or horizontal direction
// it the movements in the other direction are small
var adjustDeltaToSnap = function(delta) {
if (Math.abs(delta.x) < SNAPPING_CONSTANT && Math.abs(delta.y) >= SNAPPING_CONSTANT) {
return {x: 0, y: delta.y};
}
if (Math.abs(delta.y) < SNAPPING_CONSTANT && Math.abs(delta.x) >= SNAPPING_CONSTANT) {
return {x: delta.x, y: 0};
}
return delta;
}
var lockedDirection = null;
var lockDeltaDirection = function(delta) {
if (!lockedDirection && Math.max(Math.abs(delta.x), Math.abs(delta.y)) >= SNAPPING_CONSTANT) {
lockedDirection = Math.abs(delta.x) < Math.abs(delta.y) ? 'y' : 'x';
}
switch (lockedDirection) {
case 'x':
return { x: delta.x, y: 0 };
case 'y':
return { x: 0, y: delta.y };
default:
return { x: 0, y: 0 };
}
}
var isDiagonalMode = function(delta) {
if (Math.abs(delta.x) > 0 && Math.abs(delta.y) > 0) {
return true;
}
return false;
}
var restoreAxisOffset = function(axes, initialState, delta) {
var axis;
Object.keys(axes).forEach(function(axisName) {
axis = axes[axisName];
if (delta[axis.direction] === 0) {
axis.options.offset.below = initialState[axisName].navigationOffset.below;
axis.options.offset.above = initialState[axisName].navigationOffset.above;
}
});
}
var prevDelta = { x: 0, y: 0 };
plot.smartPan = function(delta, initialState, panAxes, preventEvent, smartLock) {
var snap = smartLock ? true : shouldSnap(delta),
axes = plot.getAxes(),
opts;
delta = smartLock ? lockDeltaDirection(delta) : adjustDeltaToSnap(delta);
if (isDiagonalMode(delta)) {
initialState.diagMode = true;
}
if (snap && initialState.diagMode === true) {
initialState.diagMode = false;
restoreAxisOffset(axes, initialState, delta);
}
if (snap) {
panHint = {
start: {
x: initialState.startPageX - plot.offset().left + plot.getPlotOffset().left,
y: initialState.startPageY - plot.offset().top + plot.getPlotOffset().top
},
end: {
x: initialState.startPageX - delta.x - plot.offset().left + plot.getPlotOffset().left,
y: initialState.startPageY - delta.y - plot.offset().top + plot.getPlotOffset().top
}
}
} else {
panHint = {
start: {
x: initialState.startPageX - plot.offset().left + plot.getPlotOffset().left,
y: initialState.startPageY - plot.offset().top + plot.getPlotOffset().top
},
end: false
}
}
if (isNaN(delta.x)) delta.x = 0;
if (isNaN(delta.y)) delta.y = 0;
if (panAxes) {
axes = panAxes;
}
var axis, axisMin, axisMax, p, d;
Object.keys(axes).forEach(function(axisName) {
axis = axes[axisName];
axisMin = axis.min;
axisMax = axis.max;
opts = axis.options;
d = delta[axis.direction];
p = prevDelta[axis.direction];
//skip axis without axisPan when panning only on certain axis or axis without plotPan for pan the entire plot
if ((!opts.axisPan && panAxes) || (!panAxes && !opts.plotPan)) {
return;
}
if (d !== 0) {
var navigationOffsetBelow = saturated.saturate(axis.c2p(axis.p2c(axisMin) - (p - d)) - axis.c2p(axis.p2c(axisMin))),
navigationOffsetAbove = saturated.saturate(axis.c2p(axis.p2c(axisMax) - (p - d)) - axis.c2p(axis.p2c(axisMax)));
if (!isFinite(navigationOffsetBelow)) {
navigationOffsetBelow = 0;
}
if (!isFinite(navigationOffsetAbove)) {
navigationOffsetAbove = 0;
}
axis.options.offset.below = saturated.saturate(navigationOffsetBelow + (axis.options.offset.below || 0));
axis.options.offset.above = saturated.saturate(navigationOffsetAbove + (axis.options.offset.above || 0));
}
});
prevDelta = delta;
plot.setupGrid(true);
plot.draw();
if (!preventEvent) {
plot.getPlaceholder().trigger("plotpan", [plot, delta, panAxes, initialState]);
}
};
plot.smartPan.end = function() {
panHint = null;
lockedDirection = null;
prevDelta = { x: 0, y: 0 };
plot.triggerRedrawOverlay();
}
function shutdown(plot, eventHolder) {
eventHolder.unbind("mousewheel", onMouseWheel);
eventHolder.unbind("mousedown", onMouseDown);
eventHolder.unbind("mouseup", onMouseUp);
eventHolder.unbind("dragstart", onDragStart);
eventHolder.unbind("drag", onDrag);
eventHolder.unbind("dragend", onDragEnd);
eventHolder.unbind("dblclick", onDblClick);
eventHolder.unbind("click", onClick);
if (panTimeout) clearTimeout(panTimeout);
}
function drawOverlay(plot, ctx) {
if (panHint) {
ctx.strokeStyle = 'rgba(96, 160, 208, 0.7)';
ctx.lineWidth = 2;
ctx.lineJoin = "round";
var startx = Math.round(panHint.start.x),
starty = Math.round(panHint.start.y),
endx, endy;
if (panAxes) {
if (panAxes[0].direction === 'x') {
endy = Math.round(panHint.start.y);
endx = Math.round(panHint.end.x);
} else if (panAxes[0].direction === 'y') {
endx = Math.round(panHint.start.x);
endy = Math.round(panHint.end.y);
}
} else {
endx = Math.round(panHint.end.x);
endy = Math.round(panHint.end.y);
}
ctx.beginPath();
if (panHint.end === false) {
ctx.moveTo(startx, starty - PANHINT_LENGTH_CONSTANT);
ctx.lineTo(startx, starty + PANHINT_LENGTH_CONSTANT);
ctx.moveTo(startx + PANHINT_LENGTH_CONSTANT, starty);
ctx.lineTo(startx - PANHINT_LENGTH_CONSTANT, starty);
} else {
var dirX = starty === endy;
ctx.moveTo(startx - (dirX ? 0 : PANHINT_LENGTH_CONSTANT), starty - (dirX ? PANHINT_LENGTH_CONSTANT : 0));
ctx.lineTo(startx + (dirX ? 0 : PANHINT_LENGTH_CONSTANT), starty + (dirX ? PANHINT_LENGTH_CONSTANT : 0));
ctx.moveTo(startx, starty);
ctx.lineTo(endx, endy);
ctx.moveTo(endx - (dirX ? 0 : PANHINT_LENGTH_CONSTANT), endy - (dirX ? PANHINT_LENGTH_CONSTANT : 0));
ctx.lineTo(endx + (dirX ? 0 : PANHINT_LENGTH_CONSTANT), endy + (dirX ? PANHINT_LENGTH_CONSTANT : 0));
}
ctx.stroke();
}
}
plot.getTouchedAxis = function(touchPointX, touchPointY) {
var ec = plot.getPlaceholder().offset();
ec.left = touchPointX - ec.left;
ec.top = touchPointY - ec.top;
var axis = plot.getXAxes().concat(plot.getYAxes()).filter(function (axis) {
var box = axis.box;
if (box !== undefined) {
return (ec.left > box.left) && (ec.left < box.left + box.width) &&
(ec.top > box.top) && (ec.top < box.top + box.height);
}
});
return axis;
}
plot.hooks.drawOverlay.push(drawOverlay);
plot.hooks.bindEvents.push(bindEvents);
plot.hooks.shutdown.push(shutdown);
}
$.plot.plugins.push({
init: init,
options: options,
name: 'navigate',
version: '1.3'
});
})(jQuery);
-786
View File
@@ -1,786 +0,0 @@
/* Flot plugin for rendering pie charts.
Copyright (c) 2007-2014 IOLA and Ole Laursen.
Licensed under the MIT license.
The plugin assumes that each series has a single data value, and that each
value is a positive integer or zero. Negative numbers don't make sense for a
pie chart, and have unpredictable results. The values do NOT need to be
passed in as percentages; the plugin will calculate the total and per-slice
percentages internally.
* Created by Brian Medendorp
* Updated with contributions from btburnett3, Anthony Aragues and Xavi Ivars
The plugin supports these options:
series: {
pie: {
show: true/false
radius: 0-1 for percentage of fullsize, or a specified pixel length, or 'auto'
innerRadius: 0-1 for percentage of fullsize or a specified pixel length, for creating a donut effect
startAngle: 0-2 factor of PI used for starting angle (in radians) i.e 3/2 starts at the top, 0 and 2 have the same result
tilt: 0-1 for percentage to tilt the pie, where 1 is no tilt, and 0 is completely flat (nothing will show)
offset: {
top: integer value to move the pie up or down
left: integer value to move the pie left or right, or 'auto'
},
stroke: {
color: any hexidecimal color value (other formats may or may not work, so best to stick with something like '#FFF')
width: integer pixel width of the stroke
},
label: {
show: true/false, or 'auto'
formatter: a user-defined function that modifies the text/style of the label text
radius: 0-1 for percentage of fullsize, or a specified pixel length
background: {
color: any hexidecimal color value (other formats may or may not work, so best to stick with something like '#000')
opacity: 0-1
},
threshold: 0-1 for the percentage value at which to hide labels (if they're too small)
},
combine: {
threshold: 0-1 for the percentage value at which to combine slices (if they're too small)
color: any hexidecimal color value (other formats may or may not work, so best to stick with something like '#CCC'), if null, the plugin will automatically use the color of the first slice to be combined
label: any text value of what the combined slice should be labeled
}
highlight: {
opacity: 0-1
}
}
}
More detail and specific examples can be found in the included HTML file.
*/
(function($) {
// Maximum redraw attempts when fitting labels within the plot
var REDRAW_ATTEMPTS = 10;
// Factor by which to shrink the pie when fitting labels within the plot
var REDRAW_SHRINK = 0.95;
function init(plot) {
var canvas = null,
target = null,
options = null,
maxRadius = null,
centerLeft = null,
centerTop = null,
processed = false,
ctx = null;
// interactive variables
var highlights = [];
// add hook to determine if pie plugin in enabled, and then perform necessary operations
plot.hooks.processOptions.push(function(plot, options) {
if (options.series.pie.show) {
options.grid.show = false;
// set labels.show
if (options.series.pie.label.show === "auto") {
if (options.legend.show) {
options.series.pie.label.show = false;
} else {
options.series.pie.label.show = true;
}
}
// set radius
if (options.series.pie.radius === "auto") {
if (options.series.pie.label.show) {
options.series.pie.radius = 3 / 4;
} else {
options.series.pie.radius = 1;
}
}
// ensure sane tilt
if (options.series.pie.tilt > 1) {
options.series.pie.tilt = 1;
} else if (options.series.pie.tilt < 0) {
options.series.pie.tilt = 0;
}
}
});
plot.hooks.bindEvents.push(function(plot, eventHolder) {
var options = plot.getOptions();
if (options.series.pie.show) {
if (options.grid.hoverable) {
eventHolder.unbind("mousemove").mousemove(onMouseMove);
}
if (options.grid.clickable) {
eventHolder.unbind("click").click(onClick);
}
}
});
plot.hooks.processDatapoints.push(function(plot, series, data, datapoints) {
var options = plot.getOptions();
if (options.series.pie.show) {
processDatapoints(plot, series, data, datapoints);
}
});
plot.hooks.drawOverlay.push(function(plot, octx) {
var options = plot.getOptions();
if (options.series.pie.show) {
drawOverlay(plot, octx);
}
});
plot.hooks.draw.push(function(plot, newCtx) {
var options = plot.getOptions();
if (options.series.pie.show) {
draw(plot, newCtx);
}
});
function processDatapoints(plot, series, datapoints) {
if (!processed) {
processed = true;
canvas = plot.getCanvas();
target = $(canvas).parent();
options = plot.getOptions();
plot.setData(combine(plot.getData()));
}
}
function combine(data) {
var total = 0,
combined = 0,
numCombined = 0,
color = options.series.pie.combine.color,
newdata = [],
i,
value;
// Fix up the raw data from Flot, ensuring the data is numeric
for (i = 0; i < data.length; ++i) {
value = data[i].data;
// If the data is an array, we'll assume that it's a standard
// Flot x-y pair, and are concerned only with the second value.
// Note how we use the original array, rather than creating a
// new one; this is more efficient and preserves any extra data
// that the user may have stored in higher indexes.
if ($.isArray(value) && value.length === 1) {
value = value[0];
}
if ($.isArray(value)) {
// Equivalent to $.isNumeric() but compatible with jQuery < 1.7
if (!isNaN(parseFloat(value[1])) && isFinite(value[1])) {
value[1] = +value[1];
} else {
value[1] = 0;
}
} else if (!isNaN(parseFloat(value)) && isFinite(value)) {
value = [1, +value];
} else {
value = [1, 0];
}
data[i].data = [value];
}
// Sum up all the slices, so we can calculate percentages for each
for (i = 0; i < data.length; ++i) {
total += data[i].data[0][1];
}
// Count the number of slices with percentages below the combine
// threshold; if it turns out to be just one, we won't combine.
for (i = 0; i < data.length; ++i) {
value = data[i].data[0][1];
if (value / total <= options.series.pie.combine.threshold) {
combined += value;
numCombined++;
if (!color) {
color = data[i].color;
}
}
}
for (i = 0; i < data.length; ++i) {
value = data[i].data[0][1];
if (numCombined < 2 || value / total > options.series.pie.combine.threshold) {
newdata.push(
$.extend(data[i], { /* extend to allow keeping all other original data values
and using them e.g. in labelFormatter. */
data: [[1, value]],
color: data[i].color,
label: data[i].label,
angle: value * Math.PI * 2 / total,
percent: value / (total / 100)
})
);
}
}
if (numCombined > 1) {
newdata.push({
data: [[1, combined]],
color: color,
label: options.series.pie.combine.label,
angle: combined * Math.PI * 2 / total,
percent: combined / (total / 100)
});
}
return newdata;
}
function draw(plot, newCtx) {
if (!target) {
return; // if no series were passed
}
var canvasWidth = plot.getPlaceholder().width(),
canvasHeight = plot.getPlaceholder().height(),
legendWidth = target.children().filter(".legend").children().width() || 0;
ctx = newCtx;
// WARNING: HACK! REWRITE THIS CODE AS SOON AS POSSIBLE!
// When combining smaller slices into an 'other' slice, we need to
// add a new series. Since Flot gives plugins no way to modify the
// list of series, the pie plugin uses a hack where the first call
// to processDatapoints results in a call to setData with the new
// list of series, then subsequent processDatapoints do nothing.
// The plugin-global 'processed' flag is used to control this hack;
// it starts out false, and is set to true after the first call to
// processDatapoints.
// Unfortunately this turns future setData calls into no-ops; they
// call processDatapoints, the flag is true, and nothing happens.
// To fix this we'll set the flag back to false here in draw, when
// all series have been processed, so the next sequence of calls to
// processDatapoints once again starts out with a slice-combine.
// This is really a hack; in 0.9 we need to give plugins a proper
// way to modify series before any processing begins.
processed = false;
// calculate maximum radius and center point
maxRadius = Math.min(canvasWidth, canvasHeight / options.series.pie.tilt) / 2;
centerTop = canvasHeight / 2 + options.series.pie.offset.top;
centerLeft = canvasWidth / 2;
if (options.series.pie.offset.left === "auto") {
if (options.legend.position.match("w")) {
centerLeft += legendWidth / 2;
} else {
centerLeft -= legendWidth / 2;
}
if (centerLeft < maxRadius) {
centerLeft = maxRadius;
} else if (centerLeft > canvasWidth - maxRadius) {
centerLeft = canvasWidth - maxRadius;
}
} else {
centerLeft += options.series.pie.offset.left;
}
var slices = plot.getData(),
attempts = 0;
// Keep shrinking the pie's radius until drawPie returns true,
// indicating that all the labels fit, or we try too many times.
do {
if (attempts > 0) {
maxRadius *= REDRAW_SHRINK;
}
attempts += 1;
clear();
if (options.series.pie.tilt <= 0.8) {
drawShadow();
}
} while (!drawPie() && attempts < REDRAW_ATTEMPTS)
if (attempts >= REDRAW_ATTEMPTS) {
clear();
target.prepend("<div class='error'>Could not draw pie with labels contained inside canvas</div>");
}
if (plot.setSeries && plot.insertLegend) {
plot.setSeries(slices);
plot.insertLegend();
}
// we're actually done at this point, just defining internal functions at this point
function clear() {
ctx.clearRect(0, 0, canvasWidth, canvasHeight);
target.children().filter(".pieLabel, .pieLabelBackground").remove();
}
function drawShadow() {
var shadowLeft = options.series.pie.shadow.left;
var shadowTop = options.series.pie.shadow.top;
var edge = 10;
var alpha = options.series.pie.shadow.alpha;
var radius = options.series.pie.radius > 1 ? options.series.pie.radius : maxRadius * options.series.pie.radius;
if (radius >= canvasWidth / 2 - shadowLeft || radius * options.series.pie.tilt >= canvasHeight / 2 - shadowTop || radius <= edge) {
return; // shadow would be outside canvas, so don't draw it
}
ctx.save();
ctx.translate(shadowLeft, shadowTop);
ctx.globalAlpha = alpha;
ctx.fillStyle = "#000";
// center and rotate to starting position
ctx.translate(centerLeft, centerTop);
ctx.scale(1, options.series.pie.tilt);
//radius -= edge;
for (var i = 1; i <= edge; i++) {
ctx.beginPath();
ctx.arc(0, 0, radius, 0, Math.PI * 2, false);
ctx.fill();
radius -= i;
}
ctx.restore();
}
function drawPie() {
var startAngle = Math.PI * options.series.pie.startAngle;
var radius = options.series.pie.radius > 1 ? options.series.pie.radius : maxRadius * options.series.pie.radius;
var i;
// center and rotate to starting position
ctx.save();
ctx.translate(centerLeft, centerTop);
ctx.scale(1, options.series.pie.tilt);
//ctx.rotate(startAngle); // start at top; -- This doesn't work properly in Opera
// draw slices
ctx.save();
var currentAngle = startAngle;
for (i = 0; i < slices.length; ++i) {
slices[i].startAngle = currentAngle;
drawSlice(slices[i].angle, slices[i].color, true);
}
ctx.restore();
// draw slice outlines
if (options.series.pie.stroke.width > 0) {
ctx.save();
ctx.lineWidth = options.series.pie.stroke.width;
currentAngle = startAngle;
for (i = 0; i < slices.length; ++i) {
drawSlice(slices[i].angle, options.series.pie.stroke.color, false);
}
ctx.restore();
}
// draw donut hole
drawDonutHole(ctx);
ctx.restore();
// Draw the labels, returning true if they fit within the plot
if (options.series.pie.label.show) {
return drawLabels();
} else return true;
function drawSlice(angle, color, fill) {
if (angle <= 0 || isNaN(angle)) {
return;
}
if (fill) {
ctx.fillStyle = color;
} else {
ctx.strokeStyle = color;
ctx.lineJoin = "round";
}
ctx.beginPath();
if (Math.abs(angle - Math.PI * 2) > 0.000000001) {
ctx.moveTo(0, 0); // Center of the pie
}
//ctx.arc(0, 0, radius, 0, angle, false); // This doesn't work properly in Opera
ctx.arc(0, 0, radius, currentAngle, currentAngle + angle / 2, false);
ctx.arc(0, 0, radius, currentAngle + angle / 2, currentAngle + angle, false);
ctx.closePath();
//ctx.rotate(angle); // This doesn't work properly in Opera
currentAngle += angle;
if (fill) {
ctx.fill();
} else {
ctx.stroke();
}
}
function drawLabels() {
var currentAngle = startAngle;
var radius = options.series.pie.label.radius > 1 ? options.series.pie.label.radius : maxRadius * options.series.pie.label.radius;
for (var i = 0; i < slices.length; ++i) {
if (slices[i].percent >= options.series.pie.label.threshold * 100) {
if (!drawLabel(slices[i], currentAngle, i)) {
return false;
}
}
currentAngle += slices[i].angle;
}
return true;
function drawLabel(slice, startAngle, index) {
if (slice.data[0][1] === 0) {
return true;
}
// format label text
var lf = options.legend.labelFormatter, text, plf = options.series.pie.label.formatter;
if (lf) {
text = lf(slice.label, slice);
} else {
text = slice.label;
}
if (plf) {
text = plf(text, slice);
}
var halfAngle = ((startAngle + slice.angle) + startAngle) / 2;
var x = centerLeft + Math.round(Math.cos(halfAngle) * radius);
var y = centerTop + Math.round(Math.sin(halfAngle) * radius) * options.series.pie.tilt;
var html = "<span class='pieLabel' id='pieLabel" + index + "' style='position:absolute;top:" + y + "px;left:" + x + "px;'>" + text + "</span>";
target.append(html);
var label = target.children("#pieLabel" + index);
var labelTop = (y - label.height() / 2);
var labelLeft = (x - label.width() / 2);
label.css("top", labelTop);
label.css("left", labelLeft);
// check to make sure that the label is not outside the canvas
if (0 - labelTop > 0 || 0 - labelLeft > 0 || canvasHeight - (labelTop + label.height()) < 0 || canvasWidth - (labelLeft + label.width()) < 0) {
return false;
}
if (options.series.pie.label.background.opacity !== 0) {
// put in the transparent background separately to avoid blended labels and label boxes
var c = options.series.pie.label.background.color;
if (c == null) {
c = slice.color;
}
var pos = "top:" + labelTop + "px;left:" + labelLeft + "px;";
$("<div class='pieLabelBackground' style='position:absolute;width:" + label.width() + "px;height:" + label.height() + "px;" + pos + "background-color:" + c + ";'></div>")
.css("opacity", options.series.pie.label.background.opacity)
.insertBefore(label);
}
return true;
} // end individual label function
} // end drawLabels function
} // end drawPie function
} // end draw function
// Placed here because it needs to be accessed from multiple locations
function drawDonutHole(layer) {
if (options.series.pie.innerRadius > 0) {
// subtract the center
layer.save();
var innerRadius = options.series.pie.innerRadius > 1 ? options.series.pie.innerRadius : maxRadius * options.series.pie.innerRadius;
layer.globalCompositeOperation = "destination-out"; // this does not work with excanvas, but it will fall back to using the stroke color
layer.beginPath();
layer.fillStyle = options.series.pie.stroke.color;
layer.arc(0, 0, innerRadius, 0, Math.PI * 2, false);
layer.fill();
layer.closePath();
layer.restore();
// add inner stroke
layer.save();
layer.beginPath();
layer.strokeStyle = options.series.pie.stroke.color;
layer.arc(0, 0, innerRadius, 0, Math.PI * 2, false);
layer.stroke();
layer.closePath();
layer.restore();
// TODO: add extra shadow inside hole (with a mask) if the pie is tilted.
}
}
//-- Additional Interactive related functions --
function isPointInPoly(poly, pt) {
for (var c = false, i = -1, l = poly.length, j = l - 1; ++i < l; j = i) {
((poly[i][1] <= pt[1] && pt[1] < poly[j][1]) ||
(poly[j][1] <= pt[1] && pt[1] < poly[i][1])) &&
(pt[0] < (poly[j][0] - poly[i][0]) * (pt[1] - poly[i][1]) / (poly[j][1] - poly[i][1]) + poly[i][0]) &&
(c = !c);
}
return c;
}
function findNearbySlice(mouseX, mouseY) {
var slices = plot.getData(),
options = plot.getOptions(),
radius = options.series.pie.radius > 1 ? options.series.pie.radius : maxRadius * options.series.pie.radius,
x, y;
for (var i = 0; i < slices.length; ++i) {
var s = slices[i];
if (s.pie.show) {
ctx.save();
ctx.beginPath();
ctx.moveTo(0, 0); // Center of the pie
//ctx.scale(1, options.series.pie.tilt); // this actually seems to break everything when here.
ctx.arc(0, 0, radius, s.startAngle, s.startAngle + s.angle / 2, false);
ctx.arc(0, 0, radius, s.startAngle + s.angle / 2, s.startAngle + s.angle, false);
ctx.closePath();
x = mouseX - centerLeft;
y = mouseY - centerTop;
if (ctx.isPointInPath) {
if (ctx.isPointInPath(mouseX - centerLeft, mouseY - centerTop)) {
ctx.restore();
return {
datapoint: [s.percent, s.data],
dataIndex: 0,
series: s,
seriesIndex: i
};
}
} else {
// excanvas for IE doesn;t support isPointInPath, this is a workaround.
var p1X = radius * Math.cos(s.startAngle),
p1Y = radius * Math.sin(s.startAngle),
p2X = radius * Math.cos(s.startAngle + s.angle / 4),
p2Y = radius * Math.sin(s.startAngle + s.angle / 4),
p3X = radius * Math.cos(s.startAngle + s.angle / 2),
p3Y = radius * Math.sin(s.startAngle + s.angle / 2),
p4X = radius * Math.cos(s.startAngle + s.angle / 1.5),
p4Y = radius * Math.sin(s.startAngle + s.angle / 1.5),
p5X = radius * Math.cos(s.startAngle + s.angle),
p5Y = radius * Math.sin(s.startAngle + s.angle),
arrPoly = [[0, 0], [p1X, p1Y], [p2X, p2Y], [p3X, p3Y], [p4X, p4Y], [p5X, p5Y]],
arrPoint = [x, y];
// TODO: perhaps do some mathmatical trickery here with the Y-coordinate to compensate for pie tilt?
if (isPointInPoly(arrPoly, arrPoint)) {
ctx.restore();
return {
datapoint: [s.percent, s.data],
dataIndex: 0,
series: s,
seriesIndex: i
};
}
}
ctx.restore();
}
}
return null;
}
function onMouseMove(e) {
triggerClickHoverEvent("plothover", e);
}
function onClick(e) {
triggerClickHoverEvent("plotclick", e);
}
// trigger click or hover event (they send the same parameters so we share their code)
function triggerClickHoverEvent(eventname, e) {
var offset = plot.offset();
var canvasX = parseInt(e.pageX - offset.left);
var canvasY = parseInt(e.pageY - offset.top);
var item = findNearbySlice(canvasX, canvasY);
if (options.grid.autoHighlight) {
// clear auto-highlights
for (var i = 0; i < highlights.length; ++i) {
var h = highlights[i];
if (h.auto === eventname && !(item && h.series === item.series)) {
unhighlight(h.series);
}
}
}
// highlight the slice
if (item) {
highlight(item.series, eventname);
}
// trigger any hover bind events
var pos = { pageX: e.pageX, pageY: e.pageY };
target.trigger(eventname, [pos, item]);
}
function highlight(s, auto) {
//if (typeof s == "number") {
// s = series[s];
//}
var i = indexOfHighlight(s);
if (i === -1) {
highlights.push({ series: s, auto: auto });
plot.triggerRedrawOverlay();
} else if (!auto) {
highlights[i].auto = false;
}
}
function unhighlight(s) {
if (s == null) {
highlights = [];
plot.triggerRedrawOverlay();
}
//if (typeof s == "number") {
// s = series[s];
//}
var i = indexOfHighlight(s);
if (i !== -1) {
highlights.splice(i, 1);
plot.triggerRedrawOverlay();
}
}
function indexOfHighlight(s) {
for (var i = 0; i < highlights.length; ++i) {
var h = highlights[i];
if (h.series === s) {
return i;
}
}
return -1;
}
function drawOverlay(plot, octx) {
var options = plot.getOptions();
var radius = options.series.pie.radius > 1 ? options.series.pie.radius : maxRadius * options.series.pie.radius;
octx.save();
octx.translate(centerLeft, centerTop);
octx.scale(1, options.series.pie.tilt);
for (var i = 0; i < highlights.length; ++i) {
drawHighlight(highlights[i].series);
}
drawDonutHole(octx);
octx.restore();
function drawHighlight(series) {
if (series.angle <= 0 || isNaN(series.angle)) {
return;
}
//octx.fillStyle = parseColor(options.series.pie.highlight.color).scale(null, null, null, options.series.pie.highlight.opacity).toString();
octx.fillStyle = "rgba(255, 255, 255, " + options.series.pie.highlight.opacity + ")"; // this is temporary until we have access to parseColor
octx.beginPath();
if (Math.abs(series.angle - Math.PI * 2) > 0.000000001) {
octx.moveTo(0, 0); // Center of the pie
}
octx.arc(0, 0, radius, series.startAngle, series.startAngle + series.angle / 2, false);
octx.arc(0, 0, radius, series.startAngle + series.angle / 2, series.startAngle + series.angle, false);
octx.closePath();
octx.fill();
}
}
} // end init (plugin body)
// define pie specific options and their default values
var options = {
series: {
pie: {
show: false,
radius: "auto", // actual radius of the visible pie (based on full calculated radius if <=1, or hard pixel value)
innerRadius: 0, /* for donut */
startAngle: 3 / 2,
tilt: 1,
shadow: {
left: 5, // shadow left offset
top: 15, // shadow top offset
alpha: 0.02 // shadow alpha
},
offset: {
top: 0,
left: "auto"
},
stroke: {
color: "#fff",
width: 1
},
label: {
show: "auto",
formatter: function(label, slice) {
return "<div style='font-size:x-small;text-align:center;padding:2px;color:" + slice.color + ";'>" + label + "<br/>" + Math.round(slice.percent) + "%</div>";
}, // formatter function
radius: 1, // radius at which to place the labels (based on full calculated radius if <=1, or hard pixel value)
background: {
color: null,
opacity: 0
},
threshold: 0 // percentage at which to hide the label (i.e. the slice is too narrow)
},
combine: {
threshold: -1, // percentage at which to combine little slices into one larger slice
color: null, // color to give the new slice (auto-generated if null)
label: "Other" // label to give the new slice
},
highlight: {
//color: "#fff", // will add this functionality once parseColor is available
opacity: 0.5
}
}
}
};
$.plot.plugins.push({
init: init,
options: options,
name: "pie",
version: "1.1"
});
})(jQuery);
-60
View File
@@ -1,60 +0,0 @@
/* eslint-disable */
/* Flot plugin for automatically redrawing plots as the placeholder resizes.
Copyright (c) 2007-2014 IOLA and Ole Laursen.
Licensed under the MIT license.
It works by listening for changes on the placeholder div (through the jQuery
resize event plugin) - if the size changes, it will redraw the plot.
There are no options. If you need to disable the plugin for some plots, you
can just fix the size of their placeholders.
*/
/* Inline dependency:
* jQuery resize event - v1.1 - 3/14/2010
* http://benalman.com/projects/jquery-resize-plugin/
*
* Copyright (c) 2010 "Cowboy" Ben Alman
* Dual licensed under the MIT and GPL licenses.
* http://benalman.com/about/license/
*/
(function($,e,t){"$:nomunge";var i=[],n=$.resize=$.extend($.resize,{}),a,r=false,s="setTimeout",u="resize",m=u+"-special-event",o="pendingDelay",l="activeDelay",f="throttleWindow";n[o]=200;n[l]=20;n[f]=true;$.event.special[u]={setup:function(){if(!n[f]&&this[s]){return false}var e=$(this);i.push(this);e.data(m,{w:e.width(),h:e.height()});if(i.length===1){a=t;h()}},teardown:function(){if(!n[f]&&this[s]){return false}var e=$(this);for(var t=i.length-1;t>=0;t--){if(i[t]==this){i.splice(t,1);break}}e.removeData(m);if(!i.length){if(r){cancelAnimationFrame(a)}else{clearTimeout(a)}a=null}},add:function(e){if(!n[f]&&this[s]){return false}var i;function a(e,n,a){var r=$(this),s=r.data(m)||{};s.w=n!==t?n:r.width();s.h=a!==t?a:r.height();i.apply(this,arguments)}if($.isFunction(e)){i=e;return a}else{i=e.handler;e.handler=a}}};function h(t){if(r===true){r=t||1}for(var s=i.length-1;s>=0;s--){var l=$(i[s]);if(l[0]==e||l.is(":visible")){var f=l.width(),c=l.height(),d=l.data(m);if(d&&(f!==d.w||c!==d.h)){l.trigger(u,[d.w=f,d.h=c]);r=t||true}}else{d=l.data(m);d.w=0;d.h=0}}if(a!==null){if(r&&(t==null||t-r<1e3)){a=e.requestAnimationFrame(h)}else{a=setTimeout(h,n[o]);r=false}}}if(!e.requestAnimationFrame){e.requestAnimationFrame=function(){return e.webkitRequestAnimationFrame||e.mozRequestAnimationFrame||e.oRequestAnimationFrame||e.msRequestAnimationFrame||function(t,i){return e.setTimeout(function(){t((new Date).getTime())},n[l])}}()}if(!e.cancelAnimationFrame){e.cancelAnimationFrame=function(){return e.webkitCancelRequestAnimationFrame||e.mozCancelRequestAnimationFrame||e.oCancelRequestAnimationFrame||e.msCancelRequestAnimationFrame||clearTimeout}()}})(jQuery,this);
/* eslint-enable */
(function ($) {
var options = { }; // no options
function init(plot) {
function onResize() {
var placeholder = plot.getPlaceholder();
// somebody might have hidden us and we can't plot
// when we don't have the dimensions
if (placeholder.width() === 0 || placeholder.height() === 0) return;
plot.resize();
plot.setupGrid();
plot.draw();
}
function bindEvents(plot, eventHolder) {
plot.getPlaceholder().resize(onResize);
}
function shutdown(plot, eventHolder) {
plot.getPlaceholder().unbind("resize", onResize);
}
plot.hooks.bindEvents.push(bindEvents);
plot.hooks.shutdown.push(shutdown);
}
$.plot.plugins.push({
init: init,
options: options,
name: 'resize',
version: '1.0'
});
})(jQuery);
@@ -1,43 +0,0 @@
(function ($) {
'use strict';
var saturated = {
saturate: function (a) {
if (a === Infinity) {
return Number.MAX_VALUE;
}
if (a === -Infinity) {
return -Number.MAX_VALUE;
}
return a;
},
delta: function(min, max, noTicks) {
return ((max - min) / noTicks) === Infinity ? (max / noTicks - min / noTicks) : (max - min) / noTicks
},
multiply: function (a, b) {
return saturated.saturate(a * b);
},
// returns c * bInt * a. Beahves properly in the case where c is negative
// and bInt * a is bigger that Number.MAX_VALUE (Infinity)
multiplyAdd: function (a, bInt, c) {
if (isFinite(a * bInt)) {
return saturated.saturate(a * bInt + c);
} else {
var result = c;
for (var i = 0; i < bInt; i++) {
result += a;
}
return saturated.saturate(result);
}
},
// round to nearby lower multiple of base
floorInBase: function(n, base) {
return base * Math.floor(n / base);
}
};
$.plot.saturated = saturated;
})(jQuery);
-517
View File
@@ -1,517 +0,0 @@
/* Flot plugin for selecting regions of a plot.
Copyright (c) 2007-2014 IOLA and Ole Laursen.
Licensed under the MIT license.
The plugin supports these options:
selection: {
mode: null or "x" or "y" or "xy" or "smart",
color: color,
shape: "round" or "miter" or "bevel",
visualization: "fill" or "focus",
minSize: number of pixels
}
Selection support is enabled by setting the mode to one of "x", "y" or "xy".
In "x" mode, the user will only be able to specify the x range, similarly for
"y" mode. For "xy", the selection becomes a rectangle where both ranges can be
specified. "color" is color of the selection (if you need to change the color
later on, you can get to it with plot.getOptions().selection.color). "shape"
is the shape of the corners of the selection.
The way how the selection is visualized, can be changed by using the option
"visualization". Flot currently supports two modes: "focus" and "fill". The
option "focus" draws a colored bezel around the selected area while keeping
the selected area clear. The option "fill" highlights (i.e., fills) the
selected area with a colored highlight.
"minSize" is the minimum size a selection can be in pixels. This value can
be customized to determine the smallest size a selection can be and still
have the selection rectangle be displayed. When customizing this value, the
fact that it refers to pixels, not axis units must be taken into account.
Thus, for example, if there is a bar graph in time mode with BarWidth set to 1
minute, setting "minSize" to 1 will not make the minimum selection size 1
minute, but rather 1 pixel. Note also that setting "minSize" to 0 will prevent
"plotunselected" events from being fired when the user clicks the mouse without
dragging.
When selection support is enabled, a "plotselected" event will be emitted on
the DOM element you passed into the plot function. The event handler gets a
parameter with the ranges selected on the axes, like this:
placeholder.bind( "plotselected", function( event, ranges ) {
alert("You selected " + ranges.xaxis.from + " to " + ranges.xaxis.to)
// similar for yaxis - with multiple axes, the extra ones are in
// x2axis, x3axis, ...
});
The "plotselected" event is only fired when the user has finished making the
selection. A "plotselecting" event is fired during the process with the same
parameters as the "plotselected" event, in case you want to know what's
happening while it's happening,
A "plotunselected" event with no arguments is emitted when the user clicks the
mouse to remove the selection. As stated above, setting "minSize" to 0 will
destroy this behavior.
The plugin allso adds the following methods to the plot object:
- setSelection( ranges, preventEvent )
Set the selection rectangle. The passed in ranges is on the same form as
returned in the "plotselected" event. If the selection mode is "x", you
should put in either an xaxis range, if the mode is "y" you need to put in
an yaxis range and both xaxis and yaxis if the selection mode is "xy", like
this:
setSelection({ xaxis: { from: 0, to: 10 }, yaxis: { from: 40, to: 60 } });
setSelection will trigger the "plotselected" event when called. If you don't
want that to happen, e.g. if you're inside a "plotselected" handler, pass
true as the second parameter. If you are using multiple axes, you can
specify the ranges on any of those, e.g. as x2axis/x3axis/... instead of
xaxis, the plugin picks the first one it sees.
- clearSelection( preventEvent )
Clear the selection rectangle. Pass in true to avoid getting a
"plotunselected" event.
- getSelection()
Returns the current selection in the same format as the "plotselected"
event. If there's currently no selection, the function returns null.
*/
(function ($) {
function init(plot) {
var selection = {
first: {x: -1, y: -1},
second: {x: -1, y: -1},
show: false,
currentMode: 'xy',
active: false
};
var SNAPPING_CONSTANT = $.plot.uiConstants.SNAPPING_CONSTANT;
// FIXME: The drag handling implemented here should be
// abstracted out, there's some similar code from a library in
// the navigation plugin, this should be massaged a bit to fit
// the Flot cases here better and reused. Doing this would
// make this plugin much slimmer.
var savedhandlers = {};
function onDrag(e) {
if (selection.active) {
updateSelection(e);
plot.getPlaceholder().trigger("plotselecting", [ getSelection() ]);
}
}
function onDragStart(e) {
var o = plot.getOptions();
// only accept left-click
if (e.which !== 1 || o.selection.mode === null) return;
// reinitialize currentMode
selection.currentMode = 'xy';
// cancel out any text selections
document.body.focus();
// prevent text selection and drag in old-school browsers
if (document.onselectstart !== undefined && savedhandlers.onselectstart == null) {
savedhandlers.onselectstart = document.onselectstart;
document.onselectstart = function () { return false; };
}
if (document.ondrag !== undefined && savedhandlers.ondrag == null) {
savedhandlers.ondrag = document.ondrag;
document.ondrag = function () { return false; };
}
setSelectionPos(selection.first, e);
selection.active = true;
}
function onDragEnd(e) {
// revert drag stuff for old-school browsers
if (document.onselectstart !== undefined) {
document.onselectstart = savedhandlers.onselectstart;
}
if (document.ondrag !== undefined) {
document.ondrag = savedhandlers.ondrag;
}
// no more dragging
selection.active = false;
updateSelection(e);
if (selectionIsSane()) {
triggerSelectedEvent();
} else {
// this counts as a clear
plot.getPlaceholder().trigger("plotunselected", [ ]);
plot.getPlaceholder().trigger("plotselecting", [ null ]);
}
return false;
}
function getSelection() {
if (!selectionIsSane()) return null;
if (!selection.show) return null;
var r = {},
c1 = {x: selection.first.x, y: selection.first.y},
c2 = {x: selection.second.x, y: selection.second.y};
if (selectionDirection(plot) === 'x') {
c1.y = 0;
c2.y = plot.height();
}
if (selectionDirection(plot) === 'y') {
c1.x = 0;
c2.x = plot.width();
}
$.each(plot.getAxes(), function (name, axis) {
if (axis.used) {
var p1 = axis.c2p(c1[axis.direction]), p2 = axis.c2p(c2[axis.direction]);
r[name] = { from: Math.min(p1, p2), to: Math.max(p1, p2) };
}
});
return r;
}
function triggerSelectedEvent() {
var r = getSelection();
plot.getPlaceholder().trigger("plotselected", [ r ]);
// backwards-compat stuff, to be removed in future
if (r.xaxis && r.yaxis) {
plot.getPlaceholder().trigger("selected", [ { x1: r.xaxis.from, y1: r.yaxis.from, x2: r.xaxis.to, y2: r.yaxis.to } ]);
}
}
function clamp(min, value, max) {
return value < min ? min : (value > max ? max : value);
}
function selectionDirection(plot) {
var o = plot.getOptions();
if (o.selection.mode === 'smart') {
return selection.currentMode;
} else {
return o.selection.mode;
}
}
function updateMode(pos) {
if (selection.first) {
var delta = {
x: pos.x - selection.first.x,
y: pos.y - selection.first.y
};
if (Math.abs(delta.x) < SNAPPING_CONSTANT) {
selection.currentMode = 'y';
} else if (Math.abs(delta.y) < SNAPPING_CONSTANT) {
selection.currentMode = 'x';
} else {
selection.currentMode = 'xy';
}
}
}
function setSelectionPos(pos, e) {
var offset = plot.getPlaceholder().offset();
var plotOffset = plot.getPlotOffset();
pos.x = clamp(0, e.pageX - offset.left - plotOffset.left, plot.width());
pos.y = clamp(0, e.pageY - offset.top - plotOffset.top, plot.height());
if (pos !== selection.first) updateMode(pos);
if (selectionDirection(plot) === "y") {
pos.x = pos === selection.first ? 0 : plot.width();
}
if (selectionDirection(plot) === "x") {
pos.y = pos === selection.first ? 0 : plot.height();
}
}
function updateSelection(pos) {
if (pos.pageX == null) return;
setSelectionPos(selection.second, pos);
if (selectionIsSane()) {
selection.show = true;
plot.triggerRedrawOverlay();
} else clearSelection(true);
}
function clearSelection(preventEvent) {
if (selection.show) {
selection.show = false;
selection.currentMode = '';
plot.triggerRedrawOverlay();
if (!preventEvent) {
plot.getPlaceholder().trigger("plotunselected", [ ]);
}
}
}
// function taken from markings support in Flot
function extractRange(ranges, coord) {
var axis, from, to, key, axes = plot.getAxes();
for (var k in axes) {
axis = axes[k];
if (axis.direction === coord) {
key = coord + axis.n + "axis";
if (!ranges[key] && axis.n === 1) {
// support x1axis as xaxis
key = coord + "axis";
}
if (ranges[key]) {
from = ranges[key].from;
to = ranges[key].to;
break;
}
}
}
// backwards-compat stuff - to be removed in future
if (!ranges[key]) {
axis = coord === "x" ? plot.getXAxes()[0] : plot.getYAxes()[0];
from = ranges[coord + "1"];
to = ranges[coord + "2"];
}
// auto-reverse as an added bonus
if (from != null && to != null && from > to) {
var tmp = from;
from = to;
to = tmp;
}
return { from: from, to: to, axis: axis };
}
function setSelection(ranges, preventEvent) {
var range;
if (selectionDirection(plot) === "y") {
selection.first.x = 0;
selection.second.x = plot.width();
} else {
range = extractRange(ranges, "x");
selection.first.x = range.axis.p2c(range.from);
selection.second.x = range.axis.p2c(range.to);
}
if (selectionDirection(plot) === "x") {
selection.first.y = 0;
selection.second.y = plot.height();
} else {
range = extractRange(ranges, "y");
selection.first.y = range.axis.p2c(range.from);
selection.second.y = range.axis.p2c(range.to);
}
selection.show = true;
plot.triggerRedrawOverlay();
if (!preventEvent && selectionIsSane()) {
triggerSelectedEvent();
}
}
function selectionIsSane() {
var minSize = plot.getOptions().selection.minSize;
return Math.abs(selection.second.x - selection.first.x) >= minSize &&
Math.abs(selection.second.y - selection.first.y) >= minSize;
}
plot.clearSelection = clearSelection;
plot.setSelection = setSelection;
plot.getSelection = getSelection;
plot.hooks.bindEvents.push(function(plot, eventHolder) {
var o = plot.getOptions();
if (o.selection.mode != null) {
plot.addEventHandler("dragstart", onDragStart, eventHolder, 0);
plot.addEventHandler("drag", onDrag, eventHolder, 0);
plot.addEventHandler("dragend", onDragEnd, eventHolder, 0);
}
});
function drawSelectionDecorations(ctx, x, y, w, h, oX, oY, mode) {
var spacing = 3;
var fullEarWidth = 15;
var earWidth = Math.max(0, Math.min(fullEarWidth, w / 2 - 2, h / 2 - 2));
ctx.fillStyle = '#ffffff';
if (mode === 'xy') {
ctx.beginPath();
ctx.moveTo(x, y + earWidth);
ctx.lineTo(x - 3, y + earWidth);
ctx.lineTo(x - 3, y - 3);
ctx.lineTo(x + earWidth, y - 3);
ctx.lineTo(x + earWidth, y);
ctx.lineTo(x, y);
ctx.closePath();
ctx.moveTo(x, y + h - earWidth);
ctx.lineTo(x - 3, y + h - earWidth);
ctx.lineTo(x - 3, y + h + 3);
ctx.lineTo(x + earWidth, y + h + 3);
ctx.lineTo(x + earWidth, y + h);
ctx.lineTo(x, y + h);
ctx.closePath();
ctx.moveTo(x + w, y + earWidth);
ctx.lineTo(x + w + 3, y + earWidth);
ctx.lineTo(x + w + 3, y - 3);
ctx.lineTo(x + w - earWidth, y - 3);
ctx.lineTo(x + w - earWidth, y);
ctx.lineTo(x + w, y);
ctx.closePath();
ctx.moveTo(x + w, y + h - earWidth);
ctx.lineTo(x + w + 3, y + h - earWidth);
ctx.lineTo(x + w + 3, y + h + 3);
ctx.lineTo(x + w - earWidth, y + h + 3);
ctx.lineTo(x + w - earWidth, y + h);
ctx.lineTo(x + w, y + h);
ctx.closePath();
ctx.stroke();
ctx.fill();
}
x = oX;
y = oY;
if (mode === 'x') {
ctx.beginPath();
ctx.moveTo(x, y + fullEarWidth);
ctx.lineTo(x, y - fullEarWidth);
ctx.lineTo(x - spacing, y - fullEarWidth);
ctx.lineTo(x - spacing, y + fullEarWidth);
ctx.closePath();
ctx.moveTo(x + w, y + fullEarWidth);
ctx.lineTo(x + w, y - fullEarWidth);
ctx.lineTo(x + w + spacing, y - fullEarWidth);
ctx.lineTo(x + w + spacing, y + fullEarWidth);
ctx.closePath();
ctx.stroke();
ctx.fill();
}
if (mode === 'y') {
ctx.beginPath();
ctx.moveTo(x - fullEarWidth, y);
ctx.lineTo(x + fullEarWidth, y);
ctx.lineTo(x + fullEarWidth, y - spacing);
ctx.lineTo(x - fullEarWidth, y - spacing);
ctx.closePath();
ctx.moveTo(x - fullEarWidth, y + h);
ctx.lineTo(x + fullEarWidth, y + h);
ctx.lineTo(x + fullEarWidth, y + h + spacing);
ctx.lineTo(x - fullEarWidth, y + h + spacing);
ctx.closePath();
ctx.stroke();
ctx.fill();
}
}
plot.hooks.drawOverlay.push(function (plot, ctx) {
// draw selection
if (selection.show && selectionIsSane()) {
var plotOffset = plot.getPlotOffset();
var o = plot.getOptions();
ctx.save();
ctx.translate(plotOffset.left, plotOffset.top);
var c = $.color.parse(o.selection.color);
var visualization = o.selection.visualization;
var scalingFactor = 1;
// use a dimmer scaling factor if visualization is "fill"
if (visualization === "fill") {
scalingFactor = 0.8;
}
ctx.strokeStyle = c.scale('a', scalingFactor).toString();
ctx.lineWidth = 1;
ctx.lineJoin = o.selection.shape;
ctx.fillStyle = c.scale('a', 0.4).toString();
var x = Math.min(selection.first.x, selection.second.x) + 0.5,
oX = x,
y = Math.min(selection.first.y, selection.second.y) + 0.5,
oY = y,
w = Math.abs(selection.second.x - selection.first.x) - 1,
h = Math.abs(selection.second.y - selection.first.y) - 1;
if (selectionDirection(plot) === 'x') {
h += y;
y = 0;
}
if (selectionDirection(plot) === 'y') {
w += x;
x = 0;
}
if (visualization === "fill") {
ctx.fillRect(x, y, w, h);
ctx.strokeRect(x, y, w, h);
} else {
ctx.fillRect(0, 0, plot.width(), plot.height());
ctx.clearRect(x, y, w, h);
drawSelectionDecorations(ctx, x, y, w, h, oX, oY, selectionDirection(plot));
}
ctx.restore();
}
});
plot.hooks.shutdown.push(function (plot, eventHolder) {
eventHolder.unbind("dragstart", onDragStart);
eventHolder.unbind("drag", onDrag);
eventHolder.unbind("dragend", onDragEnd);
});
}
$.plot.plugins.push({
init: init,
options: {
selection: {
mode: null, // one of null, "x", "y" or "xy"
visualization: "focus", // "focus" or "fill"
color: "#888888",
shape: "round", // one of "round", "miter", or "bevel"
minSize: 5 // minimum number of pixels
}
},
name: 'selection',
version: '1.1'
});
})(jQuery);
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@@ -1,220 +0,0 @@
/* Flot plugin for stacking data sets rather than overlaying them.
Copyright (c) 2007-2014 IOLA and Ole Laursen.
Licensed under the MIT license.
The plugin assumes the data is sorted on x (or y if stacking horizontally).
For line charts, it is assumed that if a line has an undefined gap (from a
null point), then the line above it should have the same gap - insert zeros
instead of "null" if you want another behaviour. This also holds for the start
and end of the chart. Note that stacking a mix of positive and negative values
in most instances doesn't make sense (so it looks weird).
Two or more series are stacked when their "stack" attribute is set to the same
key (which can be any number or string or just "true"). To specify the default
stack, you can set the stack option like this:
series: {
stack: null/false, true, or a key (number/string)
}
You can also specify it for a single series, like this:
$.plot( $("#placeholder"), [{
data: [ ... ],
stack: true
}])
The stacking order is determined by the order of the data series in the array
(later series end up on top of the previous).
Internally, the plugin modifies the datapoints in each series, adding an
offset to the y value. For line series, extra data points are inserted through
interpolation. If there's a second y value, it's also adjusted (e.g for bar
charts or filled areas).
*/
(function ($) {
var options = {
series: { stack: null } // or number/string
};
function init(plot) {
function findMatchingSeries(s, allseries) {
var res = null;
for (var i = 0; i < allseries.length; ++i) {
if (s === allseries[i]) break;
if (allseries[i].stack === s.stack) {
res = allseries[i];
}
}
return res;
}
function addBottomPoints (s, datapoints) {
var formattedPoints = [];
for (var i = 0; i < datapoints.points.length; i += 2) {
formattedPoints.push(datapoints.points[i]);
formattedPoints.push(datapoints.points[i + 1]);
formattedPoints.push(0);
}
datapoints.format.push({
x: false,
y: true,
number: true,
required: false,
computeRange: s.yaxis.options.autoScale !== 'none',
defaultValue: 0
});
datapoints.points = formattedPoints;
datapoints.pointsize = 3;
}
function stackData(plot, s, datapoints) {
if (s.stack == null || s.stack === false) return;
var needsBottom = s.bars.show || (s.lines.show && s.lines.fill);
var hasBottom = datapoints.pointsize > 2 && (horizontal ? datapoints.format[2].x : datapoints.format[2].y);
// Series data is missing bottom points - need to format
if (needsBottom && !hasBottom) {
addBottomPoints(s, datapoints);
}
var other = findMatchingSeries(s, plot.getData());
if (!other) return;
var ps = datapoints.pointsize,
points = datapoints.points,
otherps = other.datapoints.pointsize,
otherpoints = other.datapoints.points,
newpoints = [],
px, py, intery, qx, qy, bottom,
withlines = s.lines.show,
horizontal = s.bars.horizontal,
withsteps = withlines && s.lines.steps,
fromgap = true,
keyOffset = horizontal ? 1 : 0,
accumulateOffset = horizontal ? 0 : 1,
i = 0, j = 0, l, m;
while (true) {
if (i >= points.length) break;
l = newpoints.length;
if (points[i] == null) {
// copy gaps
for (m = 0; m < ps; ++m) {
newpoints.push(points[i + m]);
}
i += ps;
} else if (j >= otherpoints.length) {
// for lines, we can't use the rest of the points
if (!withlines) {
for (m = 0; m < ps; ++m) {
newpoints.push(points[i + m]);
}
}
i += ps;
} else if (otherpoints[j] == null) {
// oops, got a gap
for (m = 0; m < ps; ++m) {
newpoints.push(null);
}
fromgap = true;
j += otherps;
} else {
// cases where we actually got two points
px = points[i + keyOffset];
py = points[i + accumulateOffset];
qx = otherpoints[j + keyOffset];
qy = otherpoints[j + accumulateOffset];
bottom = 0;
if (px === qx) {
for (m = 0; m < ps; ++m) {
newpoints.push(points[i + m]);
}
newpoints[l + accumulateOffset] += qy;
bottom = qy;
i += ps;
j += otherps;
} else if (px > qx) {
// we got past point below, might need to
// insert interpolated extra point
if (withlines && i > 0 && points[i - ps] != null) {
intery = py + (points[i - ps + accumulateOffset] - py) * (qx - px) / (points[i - ps + keyOffset] - px);
newpoints.push(qx);
newpoints.push(intery + qy);
for (m = 2; m < ps; ++m) {
newpoints.push(points[i + m]);
}
bottom = qy;
}
j += otherps;
} else { // px < qx
if (fromgap && withlines) {
// if we come from a gap, we just skip this point
i += ps;
continue;
}
for (m = 0; m < ps; ++m) {
newpoints.push(points[i + m]);
}
// we might be able to interpolate a point below,
// this can give us a better y
if (withlines && j > 0 && otherpoints[j - otherps] != null) {
bottom = qy + (otherpoints[j - otherps + accumulateOffset] - qy) * (px - qx) / (otherpoints[j - otherps + keyOffset] - qx);
}
newpoints[l + accumulateOffset] += bottom;
i += ps;
}
fromgap = false;
if (l !== newpoints.length && needsBottom) {
newpoints[l + 2] += bottom;
}
}
// maintain the line steps invariant
if (withsteps && l !== newpoints.length && l > 0 &&
newpoints[l] !== null &&
newpoints[l] !== newpoints[l - ps] &&
newpoints[l + 1] !== newpoints[l - ps + 1]) {
for (m = 0; m < ps; ++m) {
newpoints[l + ps + m] = newpoints[l + m];
}
newpoints[l + 1] = newpoints[l - ps + 1];
}
}
datapoints.points = newpoints;
}
plot.hooks.processDatapoints.push(stackData);
}
$.plot.plugins.push({
init: init,
options: options,
name: 'stack',
version: '1.2'
});
})(jQuery);
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/* Flot plugin that adds some extra symbols for plotting points.
Copyright (c) 2007-2014 IOLA and Ole Laursen.
Licensed under the MIT license.
The symbols are accessed as strings through the standard symbol options:
series: {
points: {
symbol: "square" // or "diamond", "triangle", "cross", "plus", "ellipse", "rectangle"
}
}
*/
(function ($) {
// we normalize the area of each symbol so it is approximately the
// same as a circle of the given radius
var square = function (ctx, x, y, radius, shadow) {
// pi * r^2 = (2s)^2 => s = r * sqrt(pi)/2
var size = radius * Math.sqrt(Math.PI) / 2;
ctx.rect(x - size, y - size, size + size, size + size);
},
rectangle = function (ctx, x, y, radius, shadow) {
// pi * r^2 = (2s)^2 => s = r * sqrt(pi)/2
var size = radius * Math.sqrt(Math.PI) / 2;
ctx.rect(x - size, y - size, size + size, size + size);
},
diamond = function (ctx, x, y, radius, shadow) {
// pi * r^2 = 2s^2 => s = r * sqrt(pi/2)
var size = radius * Math.sqrt(Math.PI / 2);
ctx.moveTo(x - size, y);
ctx.lineTo(x, y - size);
ctx.lineTo(x + size, y);
ctx.lineTo(x, y + size);
ctx.lineTo(x - size, y);
ctx.lineTo(x, y - size);
},
triangle = function (ctx, x, y, radius, shadow) {
// pi * r^2 = 1/2 * s^2 * sin (pi / 3) => s = r * sqrt(2 * pi / sin(pi / 3))
var size = radius * Math.sqrt(2 * Math.PI / Math.sin(Math.PI / 3));
var height = size * Math.sin(Math.PI / 3);
ctx.moveTo(x - size / 2, y + height / 2);
ctx.lineTo(x + size / 2, y + height / 2);
if (!shadow) {
ctx.lineTo(x, y - height / 2);
ctx.lineTo(x - size / 2, y + height / 2);
ctx.lineTo(x + size / 2, y + height / 2);
}
},
cross = function (ctx, x, y, radius, shadow) {
// pi * r^2 = (2s)^2 => s = r * sqrt(pi)/2
var size = radius * Math.sqrt(Math.PI) / 2;
ctx.moveTo(x - size, y - size);
ctx.lineTo(x + size, y + size);
ctx.moveTo(x - size, y + size);
ctx.lineTo(x + size, y - size);
},
ellipse = function(ctx, x, y, radius, shadow, fill) {
if (!shadow) {
ctx.moveTo(x + radius, y);
ctx.arc(x, y, radius, 0, Math.PI * 2, false);
}
},
plus = function (ctx, x, y, radius, shadow) {
var size = radius * Math.sqrt(Math.PI / 2);
ctx.moveTo(x - size, y);
ctx.lineTo(x + size, y);
ctx.moveTo(x, y + size);
ctx.lineTo(x, y - size);
},
handlers = {
square: square,
rectangle: rectangle,
diamond: diamond,
triangle: triangle,
cross: cross,
ellipse: ellipse,
plus: plus
};
square.fill = true;
rectangle.fill = true;
diamond.fill = true;
triangle.fill = true;
ellipse.fill = true;
function init(plot) {
plot.drawSymbol = handlers;
}
$.plot.plugins.push({
init: init,
name: 'symbols',
version: '1.0'
});
})(jQuery);
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/* Flot plugin for thresholding data.
Copyright (c) 2007-2014 IOLA and Ole Laursen.
Licensed under the MIT license.
The plugin supports these options:
series: {
threshold: {
below: number
color: colorspec
}
}
It can also be applied to a single series, like this:
$.plot( $("#placeholder"), [{
data: [ ... ],
threshold: { ... }
}])
An array can be passed for multiple thresholding, like this:
threshold: [{
below: number1
color: color1
},{
below: number2
color: color2
}]
These multiple threshold objects can be passed in any order since they are
sorted by the processing function.
The data points below "below" are drawn with the specified color. This makes
it easy to mark points below 0, e.g. for budget data.
Internally, the plugin works by splitting the data into two series, above and
below the threshold. The extra series below the threshold will have its label
cleared and the special "originSeries" attribute set to the original series.
You may need to check for this in hover events.
*/
(function ($) {
var options = {
series: { threshold: null } // or { below: number, color: color spec}
};
function init(plot) {
function thresholdData(plot, s, datapoints, below, color) {
var ps = datapoints.pointsize, i, x, y, p, prevp,
thresholded = $.extend({}, s); // note: shallow copy
thresholded.datapoints = { points: [], pointsize: ps, format: datapoints.format };
thresholded.label = null;
thresholded.color = color;
thresholded.threshold = null;
thresholded.originSeries = s;
thresholded.data = [];
var origpoints = datapoints.points,
addCrossingPoints = s.lines.show;
var threspoints = [];
var newpoints = [];
var m;
for (i = 0; i < origpoints.length; i += ps) {
x = origpoints[i];
y = origpoints[i + 1];
prevp = p;
if (y < below) p = threspoints;
else p = newpoints;
if (addCrossingPoints && prevp !== p &&
x !== null && i > 0 &&
origpoints[i - ps] != null) {
var interx = x + (below - y) * (x - origpoints[i - ps]) / (y - origpoints[i - ps + 1]);
prevp.push(interx);
prevp.push(below);
for (m = 2; m < ps; ++m) {
prevp.push(origpoints[i + m]);
}
p.push(null); // start new segment
p.push(null);
for (m = 2; m < ps; ++m) {
p.push(origpoints[i + m]);
}
p.push(interx);
p.push(below);
for (m = 2; m < ps; ++m) {
p.push(origpoints[i + m]);
}
}
p.push(x);
p.push(y);
for (m = 2; m < ps; ++m) {
p.push(origpoints[i + m]);
}
}
datapoints.points = newpoints;
thresholded.datapoints.points = threspoints;
if (thresholded.datapoints.points.length > 0) {
var origIndex = $.inArray(s, plot.getData());
// Insert newly-generated series right after original one (to prevent it from becoming top-most)
plot.getData().splice(origIndex + 1, 0, thresholded);
}
// FIXME: there are probably some edge cases left in bars
}
function processThresholds(plot, s, datapoints) {
if (!s.threshold) return;
if (s.threshold instanceof Array) {
s.threshold.sort(function(a, b) {
return a.below - b.below;
});
$(s.threshold).each(function(i, th) {
thresholdData(plot, s, datapoints, th.below, th.color);
});
} else {
thresholdData(plot, s, datapoints, s.threshold.below, s.threshold.color);
}
}
plot.hooks.processDatapoints.push(processThresholds);
}
$.plot.plugins.push({
init: init,
options: options,
name: 'threshold',
version: '1.2'
});
})(jQuery);
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/* Pretty handling of time axes.
Copyright (c) 2007-2014 IOLA and Ole Laursen.
Licensed under the MIT license.
Set axis.mode to "time" to enable. See the section "Time series data" in
API.txt for details.
*/
(function($) {
'use strict';
var options = {
xaxis: {
timezone: null, // "browser" for local to the client or timezone for timezone-js
timeformat: null, // format string to use
twelveHourClock: false, // 12 or 24 time in time mode
monthNames: null, // list of names of months
timeBase: 'seconds' // are the values in given in mircoseconds, milliseconds or seconds
},
yaxis: {
timeBase: 'seconds'
}
};
var floorInBase = $.plot.saturated.floorInBase;
// Method to provide microsecond support to Date like classes.
var CreateMicroSecondDate = function(dateType, microEpoch) {
var newDate = new dateType(microEpoch);
var oldSetTime = newDate.setTime.bind(newDate);
newDate.update = function(microEpoch) {
oldSetTime(microEpoch);
// Round epoch to 3 decimal accuracy
microEpoch = Math.round(microEpoch*1000)/1000;
// Microseconds are stored as integers
this.microseconds = 1000 * (microEpoch - Math.floor(microEpoch));
};
var oldGetTime = newDate.getTime.bind(newDate);
newDate.getTime = function () {
var microEpoch = oldGetTime() + this.microseconds / 1000;
return microEpoch;
};
newDate.setTime = function (microEpoch) {
this.update(microEpoch);
};
newDate.getMicroseconds = function() {
return this.microseconds;
};
newDate.setMicroseconds = function(microseconds) {
var epochWithoutMicroseconds = oldGetTime();
var newEpoch = epochWithoutMicroseconds + microseconds/1000;
this.update(newEpoch);
};
newDate.setUTCMicroseconds = function(microseconds) { this.setMicroseconds(microseconds); }
newDate.getUTCMicroseconds = function() { return this.getMicroseconds(); }
newDate.microseconds = null;
newDate.microEpoch = null;
newDate.update(microEpoch);
return newDate;
}
// Returns a string with the date d formatted according to fmt.
// A subset of the Open Group's strftime format is supported.
function formatDate(d, fmt, monthNames, dayNames) {
if (typeof d.strftime === "function") {
return d.strftime(fmt);
}
var leftPad = function(n, pad) {
n = "" + n;
pad = "" + (pad == null ? "0" : pad);
return n.length == 1 ? pad + n : n;
};
var formatSubSeconds = function(milliseconds, microseconds, numberDecimalPlaces) {
var totalMicroseconds = milliseconds * 1000 + microseconds;
var formattedString;
if (numberDecimalPlaces < 6 && numberDecimalPlaces > 0) {
var magnitude = parseFloat('1e' + (numberDecimalPlaces - 6));
totalMicroseconds = Math.round(Math.round(totalMicroseconds * magnitude) / magnitude);
formattedString = ('00000' + totalMicroseconds).slice(-6,-(6 - numberDecimalPlaces));
} else {
totalMicroseconds = Math.round(totalMicroseconds)
formattedString = ('00000' + totalMicroseconds).slice(-6);
}
return formattedString;
};
var r = [];
var escape = false;
var hours = d.getHours();
var isAM = hours < 12;
if (!monthNames) {
monthNames = ["Jan", "Feb", "Mar", "Apr", "May", "Jun", "Jul", "Aug", "Sep", "Oct", "Nov", "Dec"];
}
if (!dayNames) {
dayNames = ["Sun", "Mon", "Tue", "Wed", "Thu", "Fri", "Sat"];
}
var hours12;
if (hours > 12) {
hours12 = hours - 12;
} else if (hours == 0) {
hours12 = 12;
} else {
hours12 = hours;
}
var decimals = -1;
for (var i = 0; i < fmt.length; ++i) {
var c = fmt.charAt(i);
if (!isNaN(Number(c)) && Number(c) > 0) {
decimals = Number(c);
} else if (escape) {
switch (c) {
case 'a': c = "" + dayNames[d.getDay()]; break;
case 'b': c = "" + monthNames[d.getMonth()]; break;
case 'd': c = leftPad(d.getDate()); break;
case 'e': c = leftPad(d.getDate(), " "); break;
case 'h': // For back-compat with 0.7; remove in 1.0
case 'H': c = leftPad(hours); break;
case 'I': c = leftPad(hours12); break;
case 'l': c = leftPad(hours12, " "); break;
case 'm': c = leftPad(d.getMonth() + 1); break;
case 'M': c = leftPad(d.getMinutes()); break;
// quarters not in Open Group's strftime specification
case 'q':
c = "" + (Math.floor(d.getMonth() / 3) + 1); break;
case 'S': c = leftPad(d.getSeconds()); break;
case 's': c = "" + formatSubSeconds(d.getMilliseconds(), d.getMicroseconds(), decimals); break;
case 'y': c = leftPad(d.getFullYear() % 100); break;
case 'Y': c = "" + d.getFullYear(); break;
case 'p': c = (isAM) ? ("" + "am") : ("" + "pm"); break;
case 'P': c = (isAM) ? ("" + "AM") : ("" + "PM"); break;
case 'w': c = "" + d.getDay(); break;
}
r.push(c);
escape = false;
} else {
if (c == "%") {
escape = true;
} else {
r.push(c);
}
}
}
return r.join("");
}
// To have a consistent view of time-based data independent of which time
// zone the client happens to be in we need a date-like object independent
// of time zones. This is done through a wrapper that only calls the UTC
// versions of the accessor methods.
function makeUtcWrapper(d) {
function addProxyMethod(sourceObj, sourceMethod, targetObj, targetMethod) {
sourceObj[sourceMethod] = function() {
return targetObj[targetMethod].apply(targetObj, arguments);
};
}
var utc = {
date: d
};
// support strftime, if found
if (d.strftime !== undefined) {
addProxyMethod(utc, "strftime", d, "strftime");
}
addProxyMethod(utc, "getTime", d, "getTime");
addProxyMethod(utc, "setTime", d, "setTime");
var props = ["Date", "Day", "FullYear", "Hours", "Minutes", "Month", "Seconds", "Milliseconds", "Microseconds"];
for (var p = 0; p < props.length; p++) {
addProxyMethod(utc, "get" + props[p], d, "getUTC" + props[p]);
addProxyMethod(utc, "set" + props[p], d, "setUTC" + props[p]);
}
return utc;
}
// select time zone strategy. This returns a date-like object tied to the
// desired timezone
function dateGenerator(ts, opts) {
var maxDateValue = 8640000000000000;
if (opts && opts.timeBase === 'seconds') {
ts *= 1000;
} else if (opts.timeBase === 'microseconds') {
ts /= 1000;
}
if (ts > maxDateValue) {
ts = maxDateValue;
} else if (ts < -maxDateValue) {
ts = -maxDateValue;
}
if (opts.timezone === "browser") {
return CreateMicroSecondDate(Date, ts);
} else if (!opts.timezone || opts.timezone === "utc") {
return makeUtcWrapper(CreateMicroSecondDate(Date, ts));
} else if (typeof timezoneJS !== "undefined" && typeof timezoneJS.Date !== "undefined") {
var d = CreateMicroSecondDate(timezoneJS.Date, ts);
// timezone-js is fickle, so be sure to set the time zone before
// setting the time.
d.setTimezone(opts.timezone);
d.setTime(ts);
return d;
} else {
return makeUtcWrapper(CreateMicroSecondDate(Date, ts));
}
}
// map of app. size of time units in seconds
var timeUnitSizeSeconds = {
"microsecond": 0.000001,
"millisecond": 0.001,
"second": 1,
"minute": 60,
"hour": 60 * 60,
"day": 24 * 60 * 60,
"month": 30 * 24 * 60 * 60,
"quarter": 3 * 30 * 24 * 60 * 60,
"year": 365.2425 * 24 * 60 * 60
};
// map of app. size of time units in milliseconds
var timeUnitSizeMilliseconds = {
"microsecond": 0.001,
"millisecond": 1,
"second": 1000,
"minute": 60 * 1000,
"hour": 60 * 60 * 1000,
"day": 24 * 60 * 60 * 1000,
"month": 30 * 24 * 60 * 60 * 1000,
"quarter": 3 * 30 * 24 * 60 * 60 * 1000,
"year": 365.2425 * 24 * 60 * 60 * 1000
};
// map of app. size of time units in microseconds
var timeUnitSizeMicroseconds = {
"microsecond": 1,
"millisecond": 1000,
"second": 1000000,
"minute": 60 * 1000000,
"hour": 60 * 60 * 1000000,
"day": 24 * 60 * 60 * 1000000,
"month": 30 * 24 * 60 * 60 * 1000000,
"quarter": 3 * 30 * 24 * 60 * 60 * 1000000,
"year": 365.2425 * 24 * 60 * 60 * 1000000
};
// the allowed tick sizes, after 1 year we use
// an integer algorithm
var baseSpec = [
[1, "microsecond"], [2, "microsecond"], [5, "microsecond"], [10, "microsecond"],
[25, "microsecond"], [50, "microsecond"], [100, "microsecond"], [250, "microsecond"], [500, "microsecond"],
[1, "millisecond"], [2, "millisecond"], [5, "millisecond"], [10, "millisecond"],
[25, "millisecond"], [50, "millisecond"], [100, "millisecond"], [250, "millisecond"], [500, "millisecond"],
[1, "second"], [2, "second"], [5, "second"], [10, "second"],
[30, "second"],
[1, "minute"], [2, "minute"], [5, "minute"], [10, "minute"],
[30, "minute"],
[1, "hour"], [2, "hour"], [4, "hour"],
[8, "hour"], [12, "hour"],
[1, "day"], [2, "day"], [3, "day"],
[0.25, "month"], [0.5, "month"], [1, "month"],
[2, "month"]
];
// we don't know which variant(s) we'll need yet, but generating both is
// cheap
var specMonths = baseSpec.concat([[3, "month"], [6, "month"],
[1, "year"]]);
var specQuarters = baseSpec.concat([[1, "quarter"], [2, "quarter"],
[1, "year"]]);
function dateTickGenerator(axis) {
var opts = axis.options,
ticks = [],
d = dateGenerator(axis.min, opts),
minSize = 0;
// make quarter use a possibility if quarters are
// mentioned in either of these options
var spec = (opts.tickSize && opts.tickSize[1] ===
"quarter") ||
(opts.minTickSize && opts.minTickSize[1] ===
"quarter") ? specQuarters : specMonths;
var timeUnitSize;
if (opts.timeBase === 'seconds') {
timeUnitSize = timeUnitSizeSeconds;
} else if (opts.timeBase === 'microseconds') {
timeUnitSize = timeUnitSizeMicroseconds;
} else {
timeUnitSize = timeUnitSizeMilliseconds;
}
if (opts.minTickSize !== null && opts.minTickSize !== undefined) {
if (typeof opts.tickSize === "number") {
minSize = opts.tickSize;
} else {
minSize = opts.minTickSize[0] * timeUnitSize[opts.minTickSize[1]];
}
}
for (var i = 0; i < spec.length - 1; ++i) {
if (axis.delta < (spec[i][0] * timeUnitSize[spec[i][1]] +
spec[i + 1][0] * timeUnitSize[spec[i + 1][1]]) / 2 &&
spec[i][0] * timeUnitSize[spec[i][1]] >= minSize) {
break;
}
}
var size = spec[i][0];
var unit = spec[i][1];
// special-case the possibility of several years
if (unit === "year") {
// if given a minTickSize in years, just use it,
// ensuring that it's an integer
if (opts.minTickSize !== null && opts.minTickSize !== undefined && opts.minTickSize[1] === "year") {
size = Math.floor(opts.minTickSize[0]);
} else {
var magn = parseFloat('1e' + Math.floor(Math.log(axis.delta / timeUnitSize.year) / Math.LN10));
var norm = (axis.delta / timeUnitSize.year) / magn;
if (norm < 1.5) {
size = 1;
} else if (norm < 3) {
size = 2;
} else if (norm < 7.5) {
size = 5;
} else {
size = 10;
}
size *= magn;
}
// minimum size for years is 1
if (size < 1) {
size = 1;
}
}
axis.tickSize = opts.tickSize || [size, unit];
var tickSize = axis.tickSize[0];
unit = axis.tickSize[1];
var step = tickSize * timeUnitSize[unit];
if (unit === "microsecond") {
d.setMicroseconds(floorInBase(d.getMicroseconds(), tickSize));
} else if (unit === "millisecond") {
d.setMilliseconds(floorInBase(d.getMilliseconds(), tickSize));
} else if (unit === "second") {
d.setSeconds(floorInBase(d.getSeconds(), tickSize));
} else if (unit === "minute") {
d.setMinutes(floorInBase(d.getMinutes(), tickSize));
} else if (unit === "hour") {
d.setHours(floorInBase(d.getHours(), tickSize));
} else if (unit === "month") {
d.setMonth(floorInBase(d.getMonth(), tickSize));
} else if (unit === "quarter") {
d.setMonth(3 * floorInBase(d.getMonth() / 3,
tickSize));
} else if (unit === "year") {
d.setFullYear(floorInBase(d.getFullYear(), tickSize));
}
// reset smaller components
if (step >= timeUnitSize.millisecond) {
if (step >= timeUnitSize.second) {
d.setMicroseconds(0);
} else {
d.setMicroseconds(d.getMilliseconds()*1000);
}
}
if (step >= timeUnitSize.minute) {
d.setSeconds(0);
}
if (step >= timeUnitSize.hour) {
d.setMinutes(0);
}
if (step >= timeUnitSize.day) {
d.setHours(0);
}
if (step >= timeUnitSize.day * 4) {
d.setDate(1);
}
if (step >= timeUnitSize.month * 2) {
d.setMonth(floorInBase(d.getMonth(), 3));
}
if (step >= timeUnitSize.quarter * 2) {
d.setMonth(floorInBase(d.getMonth(), 6));
}
if (step >= timeUnitSize.year) {
d.setMonth(0);
}
var carry = 0;
var v = Number.NaN;
var v1000;
var prev;
do {
prev = v;
v1000 = d.getTime();
if (opts && opts.timeBase === 'seconds') {
v = v1000 / 1000;
} else if (opts && opts.timeBase === 'microseconds') {
v = v1000 * 1000;
} else {
v = v1000;
}
ticks.push(v);
if (unit === "month" || unit === "quarter") {
if (tickSize < 1) {
// a bit complicated - we'll divide the
// month/quarter up but we need to take
// care of fractions so we don't end up in
// the middle of a day
d.setDate(1);
var start = d.getTime();
d.setMonth(d.getMonth() +
(unit === "quarter" ? 3 : 1));
var end = d.getTime();
d.setTime((v + carry * timeUnitSize.hour + (end - start) * tickSize));
carry = d.getHours();
d.setHours(0);
} else {
d.setMonth(d.getMonth() +
tickSize * (unit === "quarter" ? 3 : 1));
}
} else if (unit === "year") {
d.setFullYear(d.getFullYear() + tickSize);
} else {
if (opts.timeBase === 'seconds') {
d.setTime((v + step) * 1000);
} else if (opts.timeBase === 'microseconds') {
d.setTime((v + step) / 1000);
} else {
d.setTime(v + step);
}
}
} while (v < axis.max && v !== prev);
return ticks;
};
function init(plot) {
plot.hooks.processOptions.push(function (plot) {
$.each(plot.getAxes(), function(axisName, axis) {
var opts = axis.options;
if (opts.mode === "time") {
axis.tickGenerator = dateTickGenerator;
axis.tickFormatter = function (v, axis) {
var d = dateGenerator(v, axis.options);
// first check global format
if (opts.timeformat != null) {
return formatDate(d, opts.timeformat, opts.monthNames, opts.dayNames);
}
// possibly use quarters if quarters are mentioned in
// any of these places
var useQuarters = (axis.options.tickSize &&
axis.options.tickSize[1] == "quarter") ||
(axis.options.minTickSize &&
axis.options.minTickSize[1] == "quarter");
var timeUnitSize;
if (opts.timeBase === 'seconds') {
timeUnitSize = timeUnitSizeSeconds;
} else if (opts.timeBase === 'microseconds') {
timeUnitSize = timeUnitSizeMicroseconds;
} else {
timeUnitSize = timeUnitSizeMilliseconds;
}
var t = axis.tickSize[0] * timeUnitSize[axis.tickSize[1]];
var span = axis.max - axis.min;
var suffix = (opts.twelveHourClock) ? " %p" : "";
var hourCode = (opts.twelveHourClock) ? "%I" : "%H";
var factor;
var fmt;
if (opts.timeBase === 'seconds') {
factor = 1;
} else if (opts.timeBase === 'microseconds') {
factor = 1000000
} else {
factor = 1000;
}
if (t < timeUnitSize.second) {
var decimals = -Math.floor(Math.log10(t/factor))
// the two-and-halves require an additional decimal
if (String(t).indexOf('25') > -1) {
decimals++;
}
fmt = "%S.%" + decimals + "s";
} else
if (t < timeUnitSize.minute) {
fmt = hourCode + ":%M:%S" + suffix;
} else if (t < timeUnitSize.day) {
if (span < 2 * timeUnitSize.day) {
fmt = hourCode + ":%M" + suffix;
} else {
fmt = "%b %d " + hourCode + ":%M" + suffix;
}
} else if (t < timeUnitSize.month) {
fmt = "%b %d";
} else if ((useQuarters && t < timeUnitSize.quarter) ||
(!useQuarters && t < timeUnitSize.year)) {
if (span < timeUnitSize.year) {
fmt = "%b";
} else {
fmt = "%b %Y";
}
} else if (useQuarters && t < timeUnitSize.year) {
if (span < timeUnitSize.year) {
fmt = "Q%q";
} else {
fmt = "Q%q %Y";
}
} else {
fmt = "%Y";
}
var rt = formatDate(d, fmt, opts.monthNames, opts.dayNames);
return rt;
};
}
});
});
}
$.plot.plugins.push({
init: init,
options: options,
name: 'time',
version: '1.0'
});
// Time-axis support used to be in Flot core, which exposed the
// formatDate function on the plot object. Various plugins depend
// on the function, so we need to re-expose it here.
$.plot.formatDate = formatDate;
$.plot.dateGenerator = dateGenerator;
$.plot.dateTickGenerator = dateTickGenerator;
$.plot.makeUtcWrapper = makeUtcWrapper;
})(jQuery);
-320
View File
@@ -1,320 +0,0 @@
/* global jQuery */
(function($) {
'use strict';
var options = {
propagateSupportedGesture: false
};
function init(plot) {
plot.hooks.processOptions.push(initTouchNavigation);
}
function initTouchNavigation(plot, options) {
var gestureState = {
twoTouches: false,
currentTapStart: { x: 0, y: 0 },
currentTapEnd: { x: 0, y: 0 },
prevTap: { x: 0, y: 0 },
currentTap: { x: 0, y: 0 },
interceptedLongTap: false,
isUnsupportedGesture: false,
prevTapTime: null,
tapStartTime: null,
longTapTriggerId: null
},
maxDistanceBetweenTaps = 20,
maxIntervalBetweenTaps = 500,
maxLongTapDistance = 20,
minLongTapDuration = 1500,
pressedTapDuration = 125,
mainEventHolder;
function interpretGestures(e) {
var o = plot.getOptions();
if (!o.pan.active && !o.zoom.active) {
return;
}
updateOnMultipleTouches(e);
mainEventHolder.dispatchEvent(new CustomEvent('touchevent', { detail: e }));
if (isPinchEvent(e)) {
executeAction(e, 'pinch');
} else {
executeAction(e, 'pan');
if (!wasPinchEvent(e)) {
if (isDoubleTap(e)) {
executeAction(e, 'doubleTap');
}
executeAction(e, 'tap');
executeAction(e, 'longTap');
}
}
}
function executeAction(e, gesture) {
switch (gesture) {
case 'pan':
pan[e.type](e);
break;
case 'pinch':
pinch[e.type](e);
break;
case 'doubleTap':
doubleTap.onDoubleTap(e);
break;
case 'longTap':
longTap[e.type](e);
break;
case 'tap':
tap[e.type](e);
break;
}
}
function bindEvents(plot, eventHolder) {
mainEventHolder = eventHolder[0];
eventHolder[0].addEventListener('touchstart', interpretGestures, false);
eventHolder[0].addEventListener('touchmove', interpretGestures, false);
eventHolder[0].addEventListener('touchend', interpretGestures, false);
}
function shutdown(plot, eventHolder) {
eventHolder[0].removeEventListener('touchstart', interpretGestures);
eventHolder[0].removeEventListener('touchmove', interpretGestures);
eventHolder[0].removeEventListener('touchend', interpretGestures);
if (gestureState.longTapTriggerId) {
clearTimeout(gestureState.longTapTriggerId);
gestureState.longTapTriggerId = null;
}
}
var pan = {
touchstart: function(e) {
updatePrevForDoubleTap();
updateCurrentForDoubleTap(e);
updateStateForLongTapStart(e);
mainEventHolder.dispatchEvent(new CustomEvent('panstart', { detail: e }));
},
touchmove: function(e) {
preventEventBehaviors(e);
updateCurrentForDoubleTap(e);
updateStateForLongTapEnd(e);
if (!gestureState.isUnsupportedGesture) {
mainEventHolder.dispatchEvent(new CustomEvent('pandrag', { detail: e }));
}
},
touchend: function(e) {
preventEventBehaviors(e);
if (wasPinchEvent(e)) {
mainEventHolder.dispatchEvent(new CustomEvent('pinchend', { detail: e }));
mainEventHolder.dispatchEvent(new CustomEvent('panstart', { detail: e }));
} else if (noTouchActive(e)) {
mainEventHolder.dispatchEvent(new CustomEvent('panend', { detail: e }));
}
}
};
var pinch = {
touchstart: function(e) {
mainEventHolder.dispatchEvent(new CustomEvent('pinchstart', { detail: e }));
},
touchmove: function(e) {
preventEventBehaviors(e);
gestureState.twoTouches = isPinchEvent(e);
if (!gestureState.isUnsupportedGesture) {
mainEventHolder.dispatchEvent(new CustomEvent('pinchdrag', { detail: e }));
}
},
touchend: function(e) {
preventEventBehaviors(e);
}
};
var doubleTap = {
onDoubleTap: function(e) {
preventEventBehaviors(e);
mainEventHolder.dispatchEvent(new CustomEvent('doubletap', { detail: e }));
}
};
var longTap = {
touchstart: function(e) {
longTap.waitForLongTap(e);
},
touchmove: function(e) {
},
touchend: function(e) {
if (gestureState.longTapTriggerId) {
clearTimeout(gestureState.longTapTriggerId);
gestureState.longTapTriggerId = null;
}
},
isLongTap: function(e) {
var currentTime = new Date().getTime(),
tapDuration = currentTime - gestureState.tapStartTime;
if (tapDuration >= minLongTapDuration && !gestureState.interceptedLongTap) {
if (distance(gestureState.currentTapStart.x, gestureState.currentTapStart.y, gestureState.currentTapEnd.x, gestureState.currentTapEnd.y) < maxLongTapDistance) {
gestureState.interceptedLongTap = true;
return true;
}
}
return false;
},
waitForLongTap: function(e) {
var longTapTrigger = function() {
if (longTap.isLongTap(e)) {
mainEventHolder.dispatchEvent(new CustomEvent('longtap', { detail: e }));
}
gestureState.longTapTriggerId = null;
};
if (!gestureState.longTapTriggerId) {
gestureState.longTapTriggerId = setTimeout(longTapTrigger, minLongTapDuration);
}
}
};
var tap = {
touchstart: function(e) {
gestureState.tapStartTime = new Date().getTime();
},
touchmove: function(e) {
},
touchend: function(e) {
if (tap.isTap(e)) {
mainEventHolder.dispatchEvent(new CustomEvent('tap', { detail: e }));
preventEventBehaviors(e);
}
},
isTap: function(e) {
var currentTime = new Date().getTime(),
tapDuration = currentTime - gestureState.tapStartTime;
if (tapDuration <= pressedTapDuration) {
if (distance(gestureState.currentTapStart.x, gestureState.currentTapStart.y, gestureState.currentTapEnd.x, gestureState.currentTapEnd.y) < maxLongTapDistance) {
return true;
}
}
return false;
}
};
if (options.pan.enableTouch === true || options.zoom.enableTouch) {
plot.hooks.bindEvents.push(bindEvents);
plot.hooks.shutdown.push(shutdown);
};
function updatePrevForDoubleTap() {
gestureState.prevTap = {
x: gestureState.currentTap.x,
y: gestureState.currentTap.y
};
};
function updateCurrentForDoubleTap(e) {
gestureState.currentTap = {
x: e.touches[0].pageX,
y: e.touches[0].pageY
};
}
function updateStateForLongTapStart(e) {
gestureState.tapStartTime = new Date().getTime();
gestureState.interceptedLongTap = false;
gestureState.currentTapStart = {
x: e.touches[0].pageX,
y: e.touches[0].pageY
};
gestureState.currentTapEnd = {
x: e.touches[0].pageX,
y: e.touches[0].pageY
};
};
function updateStateForLongTapEnd(e) {
gestureState.currentTapEnd = {
x: e.touches[0].pageX,
y: e.touches[0].pageY
};
};
function isDoubleTap(e) {
var currentTime = new Date().getTime(),
intervalBetweenTaps = currentTime - gestureState.prevTapTime;
if (intervalBetweenTaps >= 0 && intervalBetweenTaps < maxIntervalBetweenTaps) {
if (distance(gestureState.prevTap.x, gestureState.prevTap.y, gestureState.currentTap.x, gestureState.currentTap.y) < maxDistanceBetweenTaps) {
e.firstTouch = gestureState.prevTap;
e.secondTouch = gestureState.currentTap;
return true;
}
}
gestureState.prevTapTime = currentTime;
return false;
}
function preventEventBehaviors(e) {
if (!gestureState.isUnsupportedGesture) {
e.preventDefault();
if (!plot.getOptions().propagateSupportedGesture) {
e.stopPropagation();
}
}
}
function distance(x1, y1, x2, y2) {
return Math.sqrt((x1 - x2) * (x1 - x2) + (y1 - y2) * (y1 - y2));
}
function noTouchActive(e) {
return (e.touches && e.touches.length === 0);
}
function wasPinchEvent(e) {
return (gestureState.twoTouches && e.touches.length === 1);
}
function updateOnMultipleTouches(e) {
if (e.touches.length >= 3) {
gestureState.isUnsupportedGesture = true;
} else {
gestureState.isUnsupportedGesture = false;
}
}
function isPinchEvent(e) {
if (e.touches && e.touches.length >= 2) {
if (e.touches[0].target === plot.getEventHolder() &&
e.touches[1].target === plot.getEventHolder()) {
return true;
}
}
return false;
}
}
$.plot.plugins.push({
init: init,
options: options,
name: 'navigateTouch',
version: '0.3'
});
})(jQuery);
@@ -1,360 +0,0 @@
/* global jQuery */
(function($) {
'use strict';
var options = {
zoom: {
enableTouch: false
},
pan: {
enableTouch: false,
touchMode: 'manual'
},
recenter: {
enableTouch: true
}
};
var ZOOM_DISTANCE_MARGIN = $.plot.uiConstants.ZOOM_DISTANCE_MARGIN;
function init(plot) {
plot.hooks.processOptions.push(initTouchNavigation);
}
function initTouchNavigation(plot, options) {
var gestureState = {
zoomEnable: false,
prevDistance: null,
prevTapTime: 0,
prevPanPosition: { x: 0, y: 0 },
prevTapPosition: { x: 0, y: 0 }
},
navigationState = {
prevTouchedAxis: 'none',
currentTouchedAxis: 'none',
touchedAxis: null,
navigationConstraint: 'unconstrained',
initialState: null,
},
useManualPan = options.pan.interactive && options.pan.touchMode === 'manual',
smartPanLock = options.pan.touchMode === 'smartLock',
useSmartPan = options.pan.interactive && (smartPanLock || options.pan.touchMode === 'smart'),
pan, pinch, doubleTap;
function bindEvents(plot, eventHolder) {
var o = plot.getOptions();
if (o.zoom.interactive && o.zoom.enableTouch) {
eventHolder[0].addEventListener('pinchstart', pinch.start, false);
eventHolder[0].addEventListener('pinchdrag', pinch.drag, false);
eventHolder[0].addEventListener('pinchend', pinch.end, false);
}
if (o.pan.interactive && o.pan.enableTouch) {
eventHolder[0].addEventListener('panstart', pan.start, false);
eventHolder[0].addEventListener('pandrag', pan.drag, false);
eventHolder[0].addEventListener('panend', pan.end, false);
}
if ((o.recenter.interactive && o.recenter.enableTouch)) {
eventHolder[0].addEventListener('doubletap', doubleTap.recenterPlot, false);
}
}
function shutdown(plot, eventHolder) {
eventHolder[0].removeEventListener('panstart', pan.start);
eventHolder[0].removeEventListener('pandrag', pan.drag);
eventHolder[0].removeEventListener('panend', pan.end);
eventHolder[0].removeEventListener('pinchstart', pinch.start);
eventHolder[0].removeEventListener('pinchdrag', pinch.drag);
eventHolder[0].removeEventListener('pinchend', pinch.end);
eventHolder[0].removeEventListener('doubletap', doubleTap.recenterPlot);
}
pan = {
start: function(e) {
presetNavigationState(e, 'pan', gestureState);
updateData(e, 'pan', gestureState, navigationState);
if (useSmartPan) {
var point = getPoint(e, 'pan');
navigationState.initialState = plot.navigationState(point.x, point.y);
}
},
drag: function(e) {
presetNavigationState(e, 'pan', gestureState);
if (useSmartPan) {
var point = getPoint(e, 'pan');
plot.smartPan({
x: navigationState.initialState.startPageX - point.x,
y: navigationState.initialState.startPageY - point.y
}, navigationState.initialState, navigationState.touchedAxis, false, smartPanLock);
} else if (useManualPan) {
plot.pan({
left: -delta(e, 'pan', gestureState).x,
top: -delta(e, 'pan', gestureState).y,
axes: navigationState.touchedAxis
});
updatePrevPanPosition(e, 'pan', gestureState, navigationState);
}
},
end: function(e) {
presetNavigationState(e, 'pan', gestureState);
if (useSmartPan) {
plot.smartPan.end();
}
if (wasPinchEvent(e, gestureState)) {
updateprevPanPosition(e, 'pan', gestureState, navigationState);
}
}
};
var pinchDragTimeout;
pinch = {
start: function(e) {
if (pinchDragTimeout) {
clearTimeout(pinchDragTimeout);
pinchDragTimeout = null;
}
presetNavigationState(e, 'pinch', gestureState);
setPrevDistance(e, gestureState);
updateData(e, 'pinch', gestureState, navigationState);
},
drag: function(e) {
if (pinchDragTimeout) {
return;
}
pinchDragTimeout = setTimeout(function() {
presetNavigationState(e, 'pinch', gestureState);
plot.pan({
left: -delta(e, 'pinch', gestureState).x,
top: -delta(e, 'pinch', gestureState).y,
axes: navigationState.touchedAxis
});
updatePrevPanPosition(e, 'pinch', gestureState, navigationState);
var dist = pinchDistance(e);
if (gestureState.zoomEnable || Math.abs(dist - gestureState.prevDistance) > ZOOM_DISTANCE_MARGIN) {
zoomPlot(plot, e, gestureState, navigationState);
//activate zoom mode
gestureState.zoomEnable = true;
}
pinchDragTimeout = null;
}, 1000 / 60);
},
end: function(e) {
if (pinchDragTimeout) {
clearTimeout(pinchDragTimeout);
pinchDragTimeout = null;
}
presetNavigationState(e, 'pinch', gestureState);
gestureState.prevDistance = null;
}
};
doubleTap = {
recenterPlot: function(e) {
if (e && e.detail && e.detail.type === 'touchstart') {
// only do not recenter for touch start;
recenterPlotOnDoubleTap(plot, e, gestureState, navigationState);
}
}
};
if (options.pan.enableTouch === true || options.zoom.enableTouch === true) {
plot.hooks.bindEvents.push(bindEvents);
plot.hooks.shutdown.push(shutdown);
}
function presetNavigationState(e, gesture, gestureState) {
navigationState.touchedAxis = getAxis(plot, e, gesture, navigationState);
if (noAxisTouched(navigationState)) {
navigationState.navigationConstraint = 'unconstrained';
} else {
navigationState.navigationConstraint = 'axisConstrained';
}
}
}
$.plot.plugins.push({
init: init,
options: options,
name: 'navigateTouch',
version: '0.3'
});
function recenterPlotOnDoubleTap(plot, e, gestureState, navigationState) {
checkAxesForDoubleTap(plot, e, navigationState);
if ((navigationState.currentTouchedAxis === 'x' && navigationState.prevTouchedAxis === 'x') ||
(navigationState.currentTouchedAxis === 'y' && navigationState.prevTouchedAxis === 'y') ||
(navigationState.currentTouchedAxis === 'none' && navigationState.prevTouchedAxis === 'none')) {
var event;
plot.recenter({ axes: navigationState.touchedAxis });
if (navigationState.touchedAxis) {
event = new $.Event('re-center', { detail: { axisTouched: navigationState.touchedAxis } });
} else {
event = new $.Event('re-center', { detail: e });
}
plot.getPlaceholder().trigger(event);
}
}
function checkAxesForDoubleTap(plot, e, navigationState) {
var axis = plot.getTouchedAxis(e.detail.firstTouch.x, e.detail.firstTouch.y);
if (axis[0] !== undefined) {
navigationState.prevTouchedAxis = axis[0].direction;
}
axis = plot.getTouchedAxis(e.detail.secondTouch.x, e.detail.secondTouch.y);
if (axis[0] !== undefined) {
navigationState.touchedAxis = axis;
navigationState.currentTouchedAxis = axis[0].direction;
}
if (noAxisTouched(navigationState)) {
navigationState.touchedAxis = null;
navigationState.prevTouchedAxis = 'none';
navigationState.currentTouchedAxis = 'none';
}
}
function zoomPlot(plot, e, gestureState, navigationState) {
var offset = plot.offset(),
center = {
left: 0,
top: 0
},
zoomAmount = pinchDistance(e) / gestureState.prevDistance,
dist = pinchDistance(e);
center.left = getPoint(e, 'pinch').x - offset.left;
center.top = getPoint(e, 'pinch').y - offset.top;
// send the computed touched axis to the zoom function so that it only zooms on that one
plot.zoom({
center: center,
amount: zoomAmount,
axes: navigationState.touchedAxis
});
gestureState.prevDistance = dist;
}
function wasPinchEvent(e, gestureState) {
return (gestureState.zoomEnable && e.detail.touches.length === 1);
}
function getAxis(plot, e, gesture, navigationState) {
if (e.type === 'pinchstart') {
var axisTouch1 = plot.getTouchedAxis(e.detail.touches[0].pageX, e.detail.touches[0].pageY);
var axisTouch2 = plot.getTouchedAxis(e.detail.touches[1].pageX, e.detail.touches[1].pageY);
if (axisTouch1.length === axisTouch2.length && axisTouch1.toString() === axisTouch2.toString()) {
return axisTouch1;
}
} else if (e.type === 'panstart') {
return plot.getTouchedAxis(e.detail.touches[0].pageX, e.detail.touches[0].pageY);
} else if (e.type === 'pinchend') {
//update axis since instead on pinch, a pan event is made
return plot.getTouchedAxis(e.detail.touches[0].pageX, e.detail.touches[0].pageY);
} else {
return navigationState.touchedAxis;
}
}
function noAxisTouched(navigationState) {
return (!navigationState.touchedAxis || navigationState.touchedAxis.length === 0);
}
function setPrevDistance(e, gestureState) {
gestureState.prevDistance = pinchDistance(e);
}
function updateData(e, gesture, gestureState, navigationState) {
var axisDir,
point = getPoint(e, gesture);
switch (navigationState.navigationConstraint) {
case 'unconstrained':
navigationState.touchedAxis = null;
gestureState.prevTapPosition = {
x: gestureState.prevPanPosition.x,
y: gestureState.prevPanPosition.y
};
gestureState.prevPanPosition = {
x: point.x,
y: point.y
};
break;
case 'axisConstrained':
axisDir = navigationState.touchedAxis[0].direction;
navigationState.currentTouchedAxis = axisDir;
gestureState.prevTapPosition[axisDir] = gestureState.prevPanPosition[axisDir];
gestureState.prevPanPosition[axisDir] = point[axisDir];
break;
default:
break;
}
}
function distance(x1, y1, x2, y2) {
return Math.sqrt((x1 - x2) * (x1 - x2) + (y1 - y2) * (y1 - y2));
}
function pinchDistance(e) {
var t1 = e.detail.touches[0],
t2 = e.detail.touches[1];
return distance(t1.pageX, t1.pageY, t2.pageX, t2.pageY);
}
function updatePrevPanPosition(e, gesture, gestureState, navigationState) {
var point = getPoint(e, gesture);
switch (navigationState.navigationConstraint) {
case 'unconstrained':
gestureState.prevPanPosition.x = point.x;
gestureState.prevPanPosition.y = point.y;
break;
case 'axisConstrained':
gestureState.prevPanPosition[navigationState.currentTouchedAxis] =
point[navigationState.currentTouchedAxis];
break;
default:
break;
}
}
function delta(e, gesture, gestureState) {
var point = getPoint(e, gesture);
return {
x: point.x - gestureState.prevPanPosition.x,
y: point.y - gestureState.prevPanPosition.y
}
}
function getPoint(e, gesture) {
if (gesture === 'pinch') {
return {
x: (e.detail.touches[0].pageX + e.detail.touches[1].pageX) / 2,
y: (e.detail.touches[0].pageY + e.detail.touches[1].pageY) / 2
}
} else {
return {
x: e.detail.touches[0].pageX,
y: e.detail.touches[0].pageY
}
}
}
})(jQuery);
@@ -1,10 +0,0 @@
(function ($) {
'use strict';
$.plot.uiConstants = {
SNAPPING_CONSTANT: 20,
PANHINT_LENGTH_CONSTANT: 10,
MINOR_TICKS_COUNT_CONSTANT: 4,
TICK_LENGTH_CONSTANT: 10,
ZOOM_DISTANCE_MARGIN: 25
};
})(jQuery);
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# sysprep - How to prepare a Raspberry Pi 3 B+ to run TeraHz
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# getcdata.py - fetch the calibrated data from the AS7265x module
# All code in this file is licensed under the ISC license, provided in LICENSE.txt
import serial as ser
import pandas as pd
import numpy as np
import matplotlib.pyplot as plt
import time
#global variables
uartpath = '/dev/ttyUSB0'
uartbaud = 115200
uarttout = 5
wl = [410, 435, 460, 485, 510, 535, 560, 585, 610, 645, 680, 705, 730, 760, 810, 860, 900, 940]
responseorder = [i for i in 'RSTUVWGHIJKLABCDEF'] # works, do NOT touch!
realorder = [i for i in 'ABCDEFGHRISJTUVWKL']
print('getcdata')
print('This utility is part of the TeraHz project')
wavelens = pd.Series(realorder)
plt.ion()
win = plt.figure()
spectrum=win.add_subplot(111)
with ser.Serial(uartpath, uartbaud, timeout=uarttout) as sensor:
while True:
sensor.write(b'ATCDATA\n')
rawresp = sensor.readline().decode()
# parses, calculates and saves the data
response = pd.Series([float(i)/35.0 for i in rawresp[:-3].split(',')], index=responseorder)
data = pd.DataFrame(response, index=realorder, columns = ['uW/cm^2']) # puts data into a DataFrame
data.insert(0, 'wavelenght', wl) #inserts a legend
print(data)
spectrum.cla()
spectrum.plot(data['wavelenght'], data['uW/cm^2'])
spectrum.set_xlabel('Valovna dolžina')
spectrum.set_ylabel('uW/cm2')
win.canvas.draw()
time.sleep(0.1)
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import smbus2
bus = smbus2.SMBus(1)
result = bus.read_byte_data(0x39, 0x8a)
print('LUX Meter ID = {}'.format(result))
result = bus.read_word_data(0x10, 0x0c)
print('UV sensor ID = {}'.format(result))
result = bus.read_word_data(0x39, 0xec)
print('LUX chan 0 = {}'.format(result))
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from serial import Serial
import tkinter as tk
import pandas as pd
from matplotlib.backends.backend_tkagg import (FigureCanvasTkAgg, NavigationToolbar2Tk)
from matplotlib.backend_bases import key_press_handler
from matplotlib.figure import Figure
uartpath = '/dev/ttyUSB0'
uartbaud = 115200
uarttout = 5
wl = [410, 435, 460, 485, 510, 535, 560, 585, 610, 645, 680, 705, 730, 760, 810, 860, 900, 940]
responseorder = [i for i in 'RSTUVWGHIJKLABCDEF'] # works, do NOT touch!
realorder = [i for i in 'ABCDEFGHRISJTUVWKL']
root = tk.Tk()
root.wm_title('TeraHz Demo')
fig = Figure(figsize=(5, 4), dpi=100)
plot = fig.add_subplot(111)
canvas = FigureCanvasTkAgg(fig, master=root)
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# This file must be used with "source bin/activate" *from bash*
# you cannot run it directly
deactivate () {
# reset old environment variables
if [ -n "${_OLD_VIRTUAL_PATH:-}" ] ; then
PATH="${_OLD_VIRTUAL_PATH:-}"
export PATH
unset _OLD_VIRTUAL_PATH
fi
if [ -n "${_OLD_VIRTUAL_PYTHONHOME:-}" ] ; then
PYTHONHOME="${_OLD_VIRTUAL_PYTHONHOME:-}"
export PYTHONHOME
unset _OLD_VIRTUAL_PYTHONHOME
fi
# This should detect bash and zsh, which have a hash command that must
# be called to get it to forget past commands. Without forgetting
# past commands the $PATH changes we made may not be respected
if [ -n "${BASH:-}" -o -n "${ZSH_VERSION:-}" ] ; then
hash -r
fi
if [ -n "${_OLD_VIRTUAL_PS1:-}" ] ; then
PS1="${_OLD_VIRTUAL_PS1:-}"
export PS1
unset _OLD_VIRTUAL_PS1
fi
unset VIRTUAL_ENV
if [ ! "$1" = "nondestructive" ] ; then
# Self destruct!
unset -f deactivate
fi
}
# unset irrelevant variables
deactivate nondestructive
VIRTUAL_ENV="/root/projekti/TeraHz/utils/venv"
export VIRTUAL_ENV
_OLD_VIRTUAL_PATH="$PATH"
PATH="$VIRTUAL_ENV/bin:$PATH"
export PATH
# unset PYTHONHOME if set
# this will fail if PYTHONHOME is set to the empty string (which is bad anyway)
# could use `if (set -u; : $PYTHONHOME) ;` in bash
if [ -n "${PYTHONHOME:-}" ] ; then
_OLD_VIRTUAL_PYTHONHOME="${PYTHONHOME:-}"
unset PYTHONHOME
fi
if [ -z "${VIRTUAL_ENV_DISABLE_PROMPT:-}" ] ; then
_OLD_VIRTUAL_PS1="${PS1:-}"
if [ "x(venv) " != x ] ; then
PS1="(venv) ${PS1:-}"
else
if [ "`basename \"$VIRTUAL_ENV\"`" = "__" ] ; then
# special case for Aspen magic directories
# see http://www.zetadev.com/software/aspen/
PS1="[`basename \`dirname \"$VIRTUAL_ENV\"\``] $PS1"
else
PS1="(`basename \"$VIRTUAL_ENV\"`)$PS1"
fi
fi
export PS1
fi
# This should detect bash and zsh, which have a hash command that must
# be called to get it to forget past commands. Without forgetting
# past commands the $PATH changes we made may not be respected
if [ -n "${BASH:-}" -o -n "${ZSH_VERSION:-}" ] ; then
hash -r
fi
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# This file must be used with "source bin/activate.csh" *from csh*.
# You cannot run it directly.
# Created by Davide Di Blasi <davidedb@gmail.com>.
# Ported to Python 3.3 venv by Andrew Svetlov <andrew.svetlov@gmail.com>
alias deactivate 'test $?_OLD_VIRTUAL_PATH != 0 && setenv PATH "$_OLD_VIRTUAL_PATH" && unset _OLD_VIRTUAL_PATH; rehash; test $?_OLD_VIRTUAL_PROMPT != 0 && set prompt="$_OLD_VIRTUAL_PROMPT" && unset _OLD_VIRTUAL_PROMPT; unsetenv VIRTUAL_ENV; test "\!:*" != "nondestructive" && unalias deactivate'
# Unset irrelevant variables.
deactivate nondestructive
setenv VIRTUAL_ENV "/root/projekti/TeraHz/utils/venv"
set _OLD_VIRTUAL_PATH="$PATH"
setenv PATH "$VIRTUAL_ENV/bin:$PATH"
set _OLD_VIRTUAL_PROMPT="$prompt"
if (! "$?VIRTUAL_ENV_DISABLE_PROMPT") then
if ("venv" != "") then
set env_name = "venv"
else
if (`basename "VIRTUAL_ENV"` == "__") then
# special case for Aspen magic directories
# see http://www.zetadev.com/software/aspen/
set env_name = `basename \`dirname "$VIRTUAL_ENV"\``
else
set env_name = `basename "$VIRTUAL_ENV"`
endif
endif
set prompt = "[$env_name] $prompt"
unset env_name
endif
alias pydoc python -m pydoc
rehash
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# This file must be used with ". bin/activate.fish" *from fish* (http://fishshell.org)
# you cannot run it directly
function deactivate -d "Exit virtualenv and return to normal shell environment"
# reset old environment variables
if test -n "$_OLD_VIRTUAL_PATH"
set -gx PATH $_OLD_VIRTUAL_PATH
set -e _OLD_VIRTUAL_PATH
end
if test -n "$_OLD_VIRTUAL_PYTHONHOME"
set -gx PYTHONHOME $_OLD_VIRTUAL_PYTHONHOME
set -e _OLD_VIRTUAL_PYTHONHOME
end
if test -n "$_OLD_FISH_PROMPT_OVERRIDE"
functions -e fish_prompt
set -e _OLD_FISH_PROMPT_OVERRIDE
functions -c _old_fish_prompt fish_prompt
functions -e _old_fish_prompt
end
set -e VIRTUAL_ENV
if test "$argv[1]" != "nondestructive"
# Self destruct!
functions -e deactivate
end
end
# unset irrelevant variables
deactivate nondestructive
set -gx VIRTUAL_ENV "/root/projekti/TeraHz/utils/venv"
set -gx _OLD_VIRTUAL_PATH $PATH
set -gx PATH "$VIRTUAL_ENV/bin" $PATH
# unset PYTHONHOME if set
if set -q PYTHONHOME
set -gx _OLD_VIRTUAL_PYTHONHOME $PYTHONHOME
set -e PYTHONHOME
end
if test -z "$VIRTUAL_ENV_DISABLE_PROMPT"
# fish uses a function instead of an env var to generate the prompt.
# save the current fish_prompt function as the function _old_fish_prompt
functions -c fish_prompt _old_fish_prompt
# with the original prompt function renamed, we can override with our own.
function fish_prompt
# Save the return status of the last command
set -l old_status $status
# Prompt override?
if test -n "(venv) "
printf "%s%s" "(venv) " (set_color normal)
else
# ...Otherwise, prepend env
set -l _checkbase (basename "$VIRTUAL_ENV")
if test $_checkbase = "__"
# special case for Aspen magic directories
# see http://www.zetadev.com/software/aspen/
printf "%s[%s]%s " (set_color -b blue white) (basename (dirname "$VIRTUAL_ENV")) (set_color normal)
else
printf "%s(%s)%s" (set_color -b blue white) (basename "$VIRTUAL_ENV") (set_color normal)
end
end
# Restore the return status of the previous command.
echo "exit $old_status" | .
_old_fish_prompt
end
set -gx _OLD_FISH_PROMPT_OVERRIDE "$VIRTUAL_ENV"
end
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#!/root/projekti/TeraHz/utils/venv/bin/python3
# -*- coding: utf-8 -*-
import re
import sys
from setuptools.command.easy_install import main
if __name__ == '__main__':
sys.argv[0] = re.sub(r'(-script\.pyw?|\.exe)?$', '', sys.argv[0])
sys.exit(main())
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#!/root/projekti/TeraHz/utils/venv/bin/python3
# -*- coding: utf-8 -*-
import re
import sys
from setuptools.command.easy_install import main
if __name__ == '__main__':
sys.argv[0] = re.sub(r'(-script\.pyw?|\.exe)?$', '', sys.argv[0])
sys.exit(main())
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#!/root/projekti/TeraHz/utils/venv/bin/python3
# -*- coding: utf-8 -*-
import re
import sys
from numpy.f2py.f2py2e import main
if __name__ == '__main__':
sys.argv[0] = re.sub(r'(-script\.pyw?|\.exe)?$', '', sys.argv[0])
sys.exit(main())
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#!/root/projekti/TeraHz/utils/venv/bin/python3
# -*- coding: utf-8 -*-
import re
import sys
from numpy.f2py.f2py2e import main
if __name__ == '__main__':
sys.argv[0] = re.sub(r'(-script\.pyw?|\.exe)?$', '', sys.argv[0])
sys.exit(main())
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#!/root/projekti/TeraHz/utils/venv/bin/python3
# -*- coding: utf-8 -*-
import re
import sys
from numpy.f2py.f2py2e import main
if __name__ == '__main__':
sys.argv[0] = re.sub(r'(-script\.pyw?|\.exe)?$', '', sys.argv[0])
sys.exit(main())
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#!/root/projekti/TeraHz/utils/venv/bin/python3
#
# Very simple serial terminal
#
# This file is part of pySerial. https://github.com/pyserial/pyserial
# (C)2002-2015 Chris Liechti <cliechti@gmx.net>
#
# SPDX-License-Identifier: BSD-3-Clause
import codecs
import os
import sys
import threading
import serial
from serial.tools.list_ports import comports
from serial.tools import hexlify_codec
# pylint: disable=wrong-import-order,wrong-import-position
codecs.register(lambda c: hexlify_codec.getregentry() if c == 'hexlify' else None)
try:
raw_input
except NameError:
# pylint: disable=redefined-builtin,invalid-name
raw_input = input # in python3 it's "raw"
unichr = chr
def key_description(character):
"""generate a readable description for a key"""
ascii_code = ord(character)
if ascii_code < 32:
return 'Ctrl+{:c}'.format(ord('@') + ascii_code)
else:
return repr(character)
# - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
class ConsoleBase(object):
"""OS abstraction for console (input/output codec, no echo)"""
def __init__(self):
if sys.version_info >= (3, 0):
self.byte_output = sys.stdout.buffer
else:
self.byte_output = sys.stdout
self.output = sys.stdout
def setup(self):
"""Set console to read single characters, no echo"""
def cleanup(self):
"""Restore default console settings"""
def getkey(self):
"""Read a single key from the console"""
return None
def write_bytes(self, byte_string):
"""Write bytes (already encoded)"""
self.byte_output.write(byte_string)
self.byte_output.flush()
def write(self, text):
"""Write string"""
self.output.write(text)
self.output.flush()
def cancel(self):
"""Cancel getkey operation"""
# - - - - - - - - - - - - - - - - - - - - - - - -
# context manager:
# switch terminal temporary to normal mode (e.g. to get user input)
def __enter__(self):
self.cleanup()
return self
def __exit__(self, *args, **kwargs):
self.setup()
if os.name == 'nt': # noqa
import msvcrt
import ctypes
class Out(object):
"""file-like wrapper that uses os.write"""
def __init__(self, fd):
self.fd = fd
def flush(self):
pass
def write(self, s):
os.write(self.fd, s)
class Console(ConsoleBase):
def __init__(self):
super(Console, self).__init__()
self._saved_ocp = ctypes.windll.kernel32.GetConsoleOutputCP()
self._saved_icp = ctypes.windll.kernel32.GetConsoleCP()
ctypes.windll.kernel32.SetConsoleOutputCP(65001)
ctypes.windll.kernel32.SetConsoleCP(65001)
self.output = codecs.getwriter('UTF-8')(Out(sys.stdout.fileno()), 'replace')
# the change of the code page is not propagated to Python, manually fix it
sys.stderr = codecs.getwriter('UTF-8')(Out(sys.stderr.fileno()), 'replace')
sys.stdout = self.output
self.output.encoding = 'UTF-8' # needed for input
def __del__(self):
ctypes.windll.kernel32.SetConsoleOutputCP(self._saved_ocp)
ctypes.windll.kernel32.SetConsoleCP(self._saved_icp)
def getkey(self):
while True:
z = msvcrt.getwch()
if z == unichr(13):
return unichr(10)
elif z in (unichr(0), unichr(0x0e)): # functions keys, ignore
msvcrt.getwch()
else:
return z
def cancel(self):
# CancelIo, CancelSynchronousIo do not seem to work when using
# getwch, so instead, send a key to the window with the console
hwnd = ctypes.windll.kernel32.GetConsoleWindow()
ctypes.windll.user32.PostMessageA(hwnd, 0x100, 0x0d, 0)
elif os.name == 'posix':
import atexit
import termios
import fcntl
class Console(ConsoleBase):
def __init__(self):
super(Console, self).__init__()
self.fd = sys.stdin.fileno()
self.old = termios.tcgetattr(self.fd)
atexit.register(self.cleanup)
if sys.version_info < (3, 0):
self.enc_stdin = codecs.getreader(sys.stdin.encoding)(sys.stdin)
else:
self.enc_stdin = sys.stdin
def setup(self):
new = termios.tcgetattr(self.fd)
new[3] = new[3] & ~termios.ICANON & ~termios.ECHO & ~termios.ISIG
new[6][termios.VMIN] = 1
new[6][termios.VTIME] = 0
termios.tcsetattr(self.fd, termios.TCSANOW, new)
def getkey(self):
c = self.enc_stdin.read(1)
if c == unichr(0x7f):
c = unichr(8) # map the BS key (which yields DEL) to backspace
return c
def cancel(self):
fcntl.ioctl(self.fd, termios.TIOCSTI, b'\0')
def cleanup(self):
termios.tcsetattr(self.fd, termios.TCSAFLUSH, self.old)
else:
raise NotImplementedError(
'Sorry no implementation for your platform ({}) available.'.format(sys.platform))
# - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
class Transform(object):
"""do-nothing: forward all data unchanged"""
def rx(self, text):
"""text received from serial port"""
return text
def tx(self, text):
"""text to be sent to serial port"""
return text
def echo(self, text):
"""text to be sent but displayed on console"""
return text
class CRLF(Transform):
"""ENTER sends CR+LF"""
def tx(self, text):
return text.replace('\n', '\r\n')
class CR(Transform):
"""ENTER sends CR"""
def rx(self, text):
return text.replace('\r', '\n')
def tx(self, text):
return text.replace('\n', '\r')
class LF(Transform):
"""ENTER sends LF"""
class NoTerminal(Transform):
"""remove typical terminal control codes from input"""
REPLACEMENT_MAP = dict((x, 0x2400 + x) for x in range(32) if unichr(x) not in '\r\n\b\t')
REPLACEMENT_MAP.update(
{
0x7F: 0x2421, # DEL
0x9B: 0x2425, # CSI
})
def rx(self, text):
return text.translate(self.REPLACEMENT_MAP)
echo = rx
class NoControls(NoTerminal):
"""Remove all control codes, incl. CR+LF"""
REPLACEMENT_MAP = dict((x, 0x2400 + x) for x in range(32))
REPLACEMENT_MAP.update(
{
0x20: 0x2423, # visual space
0x7F: 0x2421, # DEL
0x9B: 0x2425, # CSI
})
class Printable(Transform):
"""Show decimal code for all non-ASCII characters and replace most control codes"""
def rx(self, text):
r = []
for c in text:
if ' ' <= c < '\x7f' or c in '\r\n\b\t':
r.append(c)
elif c < ' ':
r.append(unichr(0x2400 + ord(c)))
else:
r.extend(unichr(0x2080 + ord(d) - 48) for d in '{:d}'.format(ord(c)))
r.append(' ')
return ''.join(r)
echo = rx
class Colorize(Transform):
"""Apply different colors for received and echo"""
def __init__(self):
# XXX make it configurable, use colorama?
self.input_color = '\x1b[37m'
self.echo_color = '\x1b[31m'
def rx(self, text):
return self.input_color + text
def echo(self, text):
return self.echo_color + text
class DebugIO(Transform):
"""Print what is sent and received"""
def rx(self, text):
sys.stderr.write(' [RX:{}] '.format(repr(text)))
sys.stderr.flush()
return text
def tx(self, text):
sys.stderr.write(' [TX:{}] '.format(repr(text)))
sys.stderr.flush()
return text
# other ideas:
# - add date/time for each newline
# - insert newline after: a) timeout b) packet end character
EOL_TRANSFORMATIONS = {
'crlf': CRLF,
'cr': CR,
'lf': LF,
}
TRANSFORMATIONS = {
'direct': Transform, # no transformation
'default': NoTerminal,
'nocontrol': NoControls,
'printable': Printable,
'colorize': Colorize,
'debug': DebugIO,
}
# - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
def ask_for_port():
"""\
Show a list of ports and ask the user for a choice. To make selection
easier on systems with long device names, also allow the input of an
index.
"""
sys.stderr.write('\n--- Available ports:\n')
ports = []
for n, (port, desc, hwid) in enumerate(sorted(comports()), 1):
sys.stderr.write('--- {:2}: {:20} {!r}\n'.format(n, port, desc))
ports.append(port)
while True:
port = raw_input('--- Enter port index or full name: ')
try:
index = int(port) - 1
if not 0 <= index < len(ports):
sys.stderr.write('--- Invalid index!\n')
continue
except ValueError:
pass
else:
port = ports[index]
return port
class Miniterm(object):
"""\
Terminal application. Copy data from serial port to console and vice versa.
Handle special keys from the console to show menu etc.
"""
def __init__(self, serial_instance, echo=False, eol='crlf', filters=()):
self.console = Console()
self.serial = serial_instance
self.echo = echo
self.raw = False
self.input_encoding = 'UTF-8'
self.output_encoding = 'UTF-8'
self.eol = eol
self.filters = filters
self.update_transformations()
self.exit_character = 0x1d # GS/CTRL+]
self.menu_character = 0x14 # Menu: CTRL+T
self.alive = None
self._reader_alive = None
self.receiver_thread = None
self.rx_decoder = None
self.tx_decoder = None
def _start_reader(self):
"""Start reader thread"""
self._reader_alive = True
# start serial->console thread
self.receiver_thread = threading.Thread(target=self.reader, name='rx')
self.receiver_thread.daemon = True
self.receiver_thread.start()
def _stop_reader(self):
"""Stop reader thread only, wait for clean exit of thread"""
self._reader_alive = False
if hasattr(self.serial, 'cancel_read'):
self.serial.cancel_read()
self.receiver_thread.join()
def start(self):
"""start worker threads"""
self.alive = True
self._start_reader()
# enter console->serial loop
self.transmitter_thread = threading.Thread(target=self.writer, name='tx')
self.transmitter_thread.daemon = True
self.transmitter_thread.start()
self.console.setup()
def stop(self):
"""set flag to stop worker threads"""
self.alive = False
def join(self, transmit_only=False):
"""wait for worker threads to terminate"""
self.transmitter_thread.join()
if not transmit_only:
if hasattr(self.serial, 'cancel_read'):
self.serial.cancel_read()
self.receiver_thread.join()
def close(self):
self.serial.close()
def update_transformations(self):
"""take list of transformation classes and instantiate them for rx and tx"""
transformations = [EOL_TRANSFORMATIONS[self.eol]] + [TRANSFORMATIONS[f]
for f in self.filters]
self.tx_transformations = [t() for t in transformations]
self.rx_transformations = list(reversed(self.tx_transformations))
def set_rx_encoding(self, encoding, errors='replace'):
"""set encoding for received data"""
self.input_encoding = encoding
self.rx_decoder = codecs.getincrementaldecoder(encoding)(errors)
def set_tx_encoding(self, encoding, errors='replace'):
"""set encoding for transmitted data"""
self.output_encoding = encoding
self.tx_encoder = codecs.getincrementalencoder(encoding)(errors)
def dump_port_settings(self):
"""Write current settings to sys.stderr"""
sys.stderr.write("\n--- Settings: {p.name} {p.baudrate},{p.bytesize},{p.parity},{p.stopbits}\n".format(
p=self.serial))
sys.stderr.write('--- RTS: {:8} DTR: {:8} BREAK: {:8}\n'.format(
('active' if self.serial.rts else 'inactive'),
('active' if self.serial.dtr else 'inactive'),
('active' if self.serial.break_condition else 'inactive')))
try:
sys.stderr.write('--- CTS: {:8} DSR: {:8} RI: {:8} CD: {:8}\n'.format(
('active' if self.serial.cts else 'inactive'),
('active' if self.serial.dsr else 'inactive'),
('active' if self.serial.ri else 'inactive'),
('active' if self.serial.cd else 'inactive')))
except serial.SerialException:
# on RFC 2217 ports, it can happen if no modem state notification was
# yet received. ignore this error.
pass
sys.stderr.write('--- software flow control: {}\n'.format('active' if self.serial.xonxoff else 'inactive'))
sys.stderr.write('--- hardware flow control: {}\n'.format('active' if self.serial.rtscts else 'inactive'))
sys.stderr.write('--- serial input encoding: {}\n'.format(self.input_encoding))
sys.stderr.write('--- serial output encoding: {}\n'.format(self.output_encoding))
sys.stderr.write('--- EOL: {}\n'.format(self.eol.upper()))
sys.stderr.write('--- filters: {}\n'.format(' '.join(self.filters)))
def reader(self):
"""loop and copy serial->console"""
try:
while self.alive and self._reader_alive:
# read all that is there or wait for one byte
data = self.serial.read(self.serial.in_waiting or 1)
if data:
if self.raw:
self.console.write_bytes(data)
else:
text = self.rx_decoder.decode(data)
for transformation in self.rx_transformations:
text = transformation.rx(text)
self.console.write(text)
except serial.SerialException:
self.alive = False
self.console.cancel()
raise # XXX handle instead of re-raise?
def writer(self):
"""\
Loop and copy console->serial until self.exit_character character is
found. When self.menu_character is found, interpret the next key
locally.
"""
menu_active = False
try:
while self.alive:
try:
c = self.console.getkey()
except KeyboardInterrupt:
c = '\x03'
if not self.alive:
break
if menu_active:
self.handle_menu_key(c)
menu_active = False
elif c == self.menu_character:
menu_active = True # next char will be for menu
elif c == self.exit_character:
self.stop() # exit app
break
else:
#~ if self.raw:
text = c
for transformation in self.tx_transformations:
text = transformation.tx(text)
self.serial.write(self.tx_encoder.encode(text))
if self.echo:
echo_text = c
for transformation in self.tx_transformations:
echo_text = transformation.echo(echo_text)
self.console.write(echo_text)
except:
self.alive = False
raise
def handle_menu_key(self, c):
"""Implement a simple menu / settings"""
if c == self.menu_character or c == self.exit_character:
# Menu/exit character again -> send itself
self.serial.write(self.tx_encoder.encode(c))
if self.echo:
self.console.write(c)
elif c == '\x15': # CTRL+U -> upload file
self.upload_file()
elif c in '\x08hH?': # CTRL+H, h, H, ? -> Show help
sys.stderr.write(self.get_help_text())
elif c == '\x12': # CTRL+R -> Toggle RTS
self.serial.rts = not self.serial.rts
sys.stderr.write('--- RTS {} ---\n'.format('active' if self.serial.rts else 'inactive'))
elif c == '\x04': # CTRL+D -> Toggle DTR
self.serial.dtr = not self.serial.dtr
sys.stderr.write('--- DTR {} ---\n'.format('active' if self.serial.dtr else 'inactive'))
elif c == '\x02': # CTRL+B -> toggle BREAK condition
self.serial.break_condition = not self.serial.break_condition
sys.stderr.write('--- BREAK {} ---\n'.format('active' if self.serial.break_condition else 'inactive'))
elif c == '\x05': # CTRL+E -> toggle local echo
self.echo = not self.echo
sys.stderr.write('--- local echo {} ---\n'.format('active' if self.echo else 'inactive'))
elif c == '\x06': # CTRL+F -> edit filters
self.change_filter()
elif c == '\x0c': # CTRL+L -> EOL mode
modes = list(EOL_TRANSFORMATIONS) # keys
eol = modes.index(self.eol) + 1
if eol >= len(modes):
eol = 0
self.eol = modes[eol]
sys.stderr.write('--- EOL: {} ---\n'.format(self.eol.upper()))
self.update_transformations()
elif c == '\x01': # CTRL+A -> set encoding
self.change_encoding()
elif c == '\x09': # CTRL+I -> info
self.dump_port_settings()
#~ elif c == '\x01': # CTRL+A -> cycle escape mode
#~ elif c == '\x0c': # CTRL+L -> cycle linefeed mode
elif c in 'pP': # P -> change port
self.change_port()
elif c in 'sS': # S -> suspend / open port temporarily
self.suspend_port()
elif c in 'bB': # B -> change baudrate
self.change_baudrate()
elif c == '8': # 8 -> change to 8 bits
self.serial.bytesize = serial.EIGHTBITS
self.dump_port_settings()
elif c == '7': # 7 -> change to 8 bits
self.serial.bytesize = serial.SEVENBITS
self.dump_port_settings()
elif c in 'eE': # E -> change to even parity
self.serial.parity = serial.PARITY_EVEN
self.dump_port_settings()
elif c in 'oO': # O -> change to odd parity
self.serial.parity = serial.PARITY_ODD
self.dump_port_settings()
elif c in 'mM': # M -> change to mark parity
self.serial.parity = serial.PARITY_MARK
self.dump_port_settings()
elif c in 'sS': # S -> change to space parity
self.serial.parity = serial.PARITY_SPACE
self.dump_port_settings()
elif c in 'nN': # N -> change to no parity
self.serial.parity = serial.PARITY_NONE
self.dump_port_settings()
elif c == '1': # 1 -> change to 1 stop bits
self.serial.stopbits = serial.STOPBITS_ONE
self.dump_port_settings()
elif c == '2': # 2 -> change to 2 stop bits
self.serial.stopbits = serial.STOPBITS_TWO
self.dump_port_settings()
elif c == '3': # 3 -> change to 1.5 stop bits
self.serial.stopbits = serial.STOPBITS_ONE_POINT_FIVE
self.dump_port_settings()
elif c in 'xX': # X -> change software flow control
self.serial.xonxoff = (c == 'X')
self.dump_port_settings()
elif c in 'rR': # R -> change hardware flow control
self.serial.rtscts = (c == 'R')
self.dump_port_settings()
else:
sys.stderr.write('--- unknown menu character {} --\n'.format(key_description(c)))
def upload_file(self):
"""Ask user for filenname and send its contents"""
sys.stderr.write('\n--- File to upload: ')
sys.stderr.flush()
with self.console:
filename = sys.stdin.readline().rstrip('\r\n')
if filename:
try:
with open(filename, 'rb') as f:
sys.stderr.write('--- Sending file {} ---\n'.format(filename))
while True:
block = f.read(1024)
if not block:
break
self.serial.write(block)
# Wait for output buffer to drain.
self.serial.flush()
sys.stderr.write('.') # Progress indicator.
sys.stderr.write('\n--- File {} sent ---\n'.format(filename))
except IOError as e:
sys.stderr.write('--- ERROR opening file {}: {} ---\n'.format(filename, e))
def change_filter(self):
"""change the i/o transformations"""
sys.stderr.write('\n--- Available Filters:\n')
sys.stderr.write('\n'.join(
'--- {:<10} = {.__doc__}'.format(k, v)
for k, v in sorted(TRANSFORMATIONS.items())))
sys.stderr.write('\n--- Enter new filter name(s) [{}]: '.format(' '.join(self.filters)))
with self.console:
new_filters = sys.stdin.readline().lower().split()
if new_filters:
for f in new_filters:
if f not in TRANSFORMATIONS:
sys.stderr.write('--- unknown filter: {}\n'.format(repr(f)))
break
else:
self.filters = new_filters
self.update_transformations()
sys.stderr.write('--- filters: {}\n'.format(' '.join(self.filters)))
def change_encoding(self):
"""change encoding on the serial port"""
sys.stderr.write('\n--- Enter new encoding name [{}]: '.format(self.input_encoding))
with self.console:
new_encoding = sys.stdin.readline().strip()
if new_encoding:
try:
codecs.lookup(new_encoding)
except LookupError:
sys.stderr.write('--- invalid encoding name: {}\n'.format(new_encoding))
else:
self.set_rx_encoding(new_encoding)
self.set_tx_encoding(new_encoding)
sys.stderr.write('--- serial input encoding: {}\n'.format(self.input_encoding))
sys.stderr.write('--- serial output encoding: {}\n'.format(self.output_encoding))
def change_baudrate(self):
"""change the baudrate"""
sys.stderr.write('\n--- Baudrate: ')
sys.stderr.flush()
with self.console:
backup = self.serial.baudrate
try:
self.serial.baudrate = int(sys.stdin.readline().strip())
except ValueError as e:
sys.stderr.write('--- ERROR setting baudrate: {} ---\n'.format(e))
self.serial.baudrate = backup
else:
self.dump_port_settings()
def change_port(self):
"""Have a conversation with the user to change the serial port"""
with self.console:
try:
port = ask_for_port()
except KeyboardInterrupt:
port = None
if port and port != self.serial.port:
# reader thread needs to be shut down
self._stop_reader()
# save settings
settings = self.serial.getSettingsDict()
try:
new_serial = serial.serial_for_url(port, do_not_open=True)
# restore settings and open
new_serial.applySettingsDict(settings)
new_serial.rts = self.serial.rts
new_serial.dtr = self.serial.dtr
new_serial.open()
new_serial.break_condition = self.serial.break_condition
except Exception as e:
sys.stderr.write('--- ERROR opening new port: {} ---\n'.format(e))
new_serial.close()
else:
self.serial.close()
self.serial = new_serial
sys.stderr.write('--- Port changed to: {} ---\n'.format(self.serial.port))
# and restart the reader thread
self._start_reader()
def suspend_port(self):
"""\
open port temporarily, allow reconnect, exit and port change to get
out of the loop
"""
# reader thread needs to be shut down
self._stop_reader()
self.serial.close()
sys.stderr.write('\n--- Port closed: {} ---\n'.format(self.serial.port))
do_change_port = False
while not self.serial.is_open:
sys.stderr.write('--- Quit: {exit} | p: port change | any other key to reconnect ---\n'.format(
exit=key_description(self.exit_character)))
k = self.console.getkey()
if k == self.exit_character:
self.stop() # exit app
break
elif k in 'pP':
do_change_port = True
break
try:
self.serial.open()
except Exception as e:
sys.stderr.write('--- ERROR opening port: {} ---\n'.format(e))
if do_change_port:
self.change_port()
else:
# and restart the reader thread
self._start_reader()
sys.stderr.write('--- Port opened: {} ---\n'.format(self.serial.port))
def get_help_text(self):
"""return the help text"""
# help text, starts with blank line!
return """
--- pySerial ({version}) - miniterm - help
---
--- {exit:8} Exit program
--- {menu:8} Menu escape key, followed by:
--- Menu keys:
--- {menu:7} Send the menu character itself to remote
--- {exit:7} Send the exit character itself to remote
--- {info:7} Show info
--- {upload:7} Upload file (prompt will be shown)
--- {repr:7} encoding
--- {filter:7} edit filters
--- Toggles:
--- {rts:7} RTS {dtr:7} DTR {brk:7} BREAK
--- {echo:7} echo {eol:7} EOL
---
--- Port settings ({menu} followed by the following):
--- p change port
--- 7 8 set data bits
--- N E O S M change parity (None, Even, Odd, Space, Mark)
--- 1 2 3 set stop bits (1, 2, 1.5)
--- b change baud rate
--- x X disable/enable software flow control
--- r R disable/enable hardware flow control
""".format(version=getattr(serial, 'VERSION', 'unknown version'),
exit=key_description(self.exit_character),
menu=key_description(self.menu_character),
rts=key_description('\x12'),
dtr=key_description('\x04'),
brk=key_description('\x02'),
echo=key_description('\x05'),
info=key_description('\x09'),
upload=key_description('\x15'),
repr=key_description('\x01'),
filter=key_description('\x06'),
eol=key_description('\x0c'))
# - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
# default args can be used to override when calling main() from an other script
# e.g to create a miniterm-my-device.py
def main(default_port=None, default_baudrate=9600, default_rts=None, default_dtr=None):
"""Command line tool, entry point"""
import argparse
parser = argparse.ArgumentParser(
description="Miniterm - A simple terminal program for the serial port.")
parser.add_argument(
"port",
nargs='?',
help="serial port name ('-' to show port list)",
default=default_port)
parser.add_argument(
"baudrate",
nargs='?',
type=int,
help="set baud rate, default: %(default)s",
default=default_baudrate)
group = parser.add_argument_group("port settings")
group.add_argument(
"--parity",
choices=['N', 'E', 'O', 'S', 'M'],
type=lambda c: c.upper(),
help="set parity, one of {N E O S M}, default: N",
default='N')
group.add_argument(
"--rtscts",
action="store_true",
help="enable RTS/CTS flow control (default off)",
default=False)
group.add_argument(
"--xonxoff",
action="store_true",
help="enable software flow control (default off)",
default=False)
group.add_argument(
"--rts",
type=int,
help="set initial RTS line state (possible values: 0, 1)",
default=default_rts)
group.add_argument(
"--dtr",
type=int,
help="set initial DTR line state (possible values: 0, 1)",
default=default_dtr)
group.add_argument(
"--ask",
action="store_true",
help="ask again for port when open fails",
default=False)
group = parser.add_argument_group("data handling")
group.add_argument(
"-e", "--echo",
action="store_true",
help="enable local echo (default off)",
default=False)
group.add_argument(
"--encoding",
dest="serial_port_encoding",
metavar="CODEC",
help="set the encoding for the serial port (e.g. hexlify, Latin1, UTF-8), default: %(default)s",
default='UTF-8')
group.add_argument(
"-f", "--filter",
action="append",
metavar="NAME",
help="add text transformation",
default=[])
group.add_argument(
"--eol",
choices=['CR', 'LF', 'CRLF'],
type=lambda c: c.upper(),
help="end of line mode",
default='CRLF')
group.add_argument(
"--raw",
action="store_true",
help="Do no apply any encodings/transformations",
default=False)
group = parser.add_argument_group("hotkeys")
group.add_argument(
"--exit-char",
type=int,
metavar='NUM',
help="Unicode of special character that is used to exit the application, default: %(default)s",
default=0x1d) # GS/CTRL+]
group.add_argument(
"--menu-char",
type=int,
metavar='NUM',
help="Unicode code of special character that is used to control miniterm (menu), default: %(default)s",
default=0x14) # Menu: CTRL+T
group = parser.add_argument_group("diagnostics")
group.add_argument(
"-q", "--quiet",
action="store_true",
help="suppress non-error messages",
default=False)
group.add_argument(
"--develop",
action="store_true",
help="show Python traceback on error",
default=False)
args = parser.parse_args()
if args.menu_char == args.exit_char:
parser.error('--exit-char can not be the same as --menu-char')
if args.filter:
if 'help' in args.filter:
sys.stderr.write('Available filters:\n')
sys.stderr.write('\n'.join(
'{:<10} = {.__doc__}'.format(k, v)
for k, v in sorted(TRANSFORMATIONS.items())))
sys.stderr.write('\n')
sys.exit(1)
filters = args.filter
else:
filters = ['default']
while True:
# no port given on command line -> ask user now
if args.port is None or args.port == '-':
try:
args.port = ask_for_port()
except KeyboardInterrupt:
sys.stderr.write('\n')
parser.error('user aborted and port is not given')
else:
if not args.port:
parser.error('port is not given')
try:
serial_instance = serial.serial_for_url(
args.port,
args.baudrate,
parity=args.parity,
rtscts=args.rtscts,
xonxoff=args.xonxoff,
do_not_open=True)
if not hasattr(serial_instance, 'cancel_read'):
# enable timeout for alive flag polling if cancel_read is not available
serial_instance.timeout = 1
if args.dtr is not None:
if not args.quiet:
sys.stderr.write('--- forcing DTR {}\n'.format('active' if args.dtr else 'inactive'))
serial_instance.dtr = args.dtr
if args.rts is not None:
if not args.quiet:
sys.stderr.write('--- forcing RTS {}\n'.format('active' if args.rts else 'inactive'))
serial_instance.rts = args.rts
serial_instance.open()
except serial.SerialException as e:
sys.stderr.write('could not open port {}: {}\n'.format(repr(args.port), e))
if args.develop:
raise
if not args.ask:
sys.exit(1)
else:
args.port = '-'
else:
break
miniterm = Miniterm(
serial_instance,
echo=args.echo,
eol=args.eol.lower(),
filters=filters)
miniterm.exit_character = unichr(args.exit_char)
miniterm.menu_character = unichr(args.menu_char)
miniterm.raw = args.raw
miniterm.set_rx_encoding(args.serial_port_encoding)
miniterm.set_tx_encoding(args.serial_port_encoding)
if not args.quiet:
sys.stderr.write('--- Miniterm on {p.name} {p.baudrate},{p.bytesize},{p.parity},{p.stopbits} ---\n'.format(
p=miniterm.serial))
sys.stderr.write('--- Quit: {} | Menu: {} | Help: {} followed by {} ---\n'.format(
key_description(miniterm.exit_character),
key_description(miniterm.menu_character),
key_description(miniterm.menu_character),
key_description('\x08')))
miniterm.start()
try:
miniterm.join(True)
except KeyboardInterrupt:
pass
if not args.quiet:
sys.stderr.write("\n--- exit ---\n")
miniterm.join()
miniterm.close()
# - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
if __name__ == '__main__':
main()
Binary file not shown.
-10
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@@ -1,10 +0,0 @@
#!/root/projekti/TeraHz/utils/venv/bin/python3
# -*- coding: utf-8 -*-
import re
import sys
from pip._internal import main
if __name__ == '__main__':
sys.argv[0] = re.sub(r'(-script\.pyw?|\.exe)?$', '', sys.argv[0])
sys.exit(main())
-10
View File
@@ -1,10 +0,0 @@
#!/root/projekti/TeraHz/utils/venv/bin/python3
# -*- coding: utf-8 -*-
import re
import sys
from pip._internal import main
if __name__ == '__main__':
sys.argv[0] = re.sub(r'(-script\.pyw?|\.exe)?$', '', sys.argv[0])
sys.exit(main())
-10
View File
@@ -1,10 +0,0 @@
#!/root/projekti/TeraHz/utils/venv/bin/python3
# -*- coding: utf-8 -*-
import re
import sys
from pip._internal import main
if __name__ == '__main__':
sys.argv[0] = re.sub(r'(-script\.pyw?|\.exe)?$', '', sys.argv[0])
sys.exit(main())
@@ -1,25 +0,0 @@
Metadata-Version: 2.0
Name: cycler
Version: 0.10.0
Summary: Composable style cycles
Home-page: http://github.com/matplotlib/cycler
Author: Thomas A Caswell
Author-email: matplotlib-users@python.org
License: BSD
Keywords: cycle kwargs
Platform: Cross platform (Linux
Platform: Mac OSX
Platform: Windows)
Classifier: Development Status :: 4 - Beta
Classifier: Programming Language :: Python :: 2
Classifier: Programming Language :: Python :: 2.6
Classifier: Programming Language :: Python :: 2.7
Classifier: Programming Language :: Python :: 3
Classifier: Programming Language :: Python :: 3.3
Classifier: Programming Language :: Python :: 3.4
Classifier: Programming Language :: Python :: 3.5
Requires-Dist: six
UNKNOWN
@@ -1,9 +0,0 @@
__pycache__/cycler.cpython-36.pyc,,
cycler-0.10.0.dist-info/DESCRIPTION.rst,sha256=OCTuuN6LcWulhHS3d5rfjdsQtW22n7HENFRh6jC6ego,10
cycler-0.10.0.dist-info/INSTALLER,sha256=zuuue4knoyJ-UwPPXg8fezS7VCrXJQrAP7zeNuwvFQg,4
cycler-0.10.0.dist-info/METADATA,sha256=aWX1pyo7D2hSDNZ2Q6Zl7DxhUQdpyu1O5uNABnvz000,722
cycler-0.10.0.dist-info/RECORD,,
cycler-0.10.0.dist-info/WHEEL,sha256=o2k-Qa-RMNIJmUdIc7KU6VWR_ErNRbWNlxDIpl7lm34,110
cycler-0.10.0.dist-info/metadata.json,sha256=CCBpg-KQU-VRL1unJcHPWKQeQbB84G0j7-BeCj7YUbU,875
cycler-0.10.0.dist-info/top_level.txt,sha256=D8BVVDdAAelLb2FOEz7lDpc6-AL21ylKPrMhtG6yzyE,7
cycler.py,sha256=ed3G39unvVEBrBZVDwnE0FFroRNsOLkbJ_TwIT5CjCU,15959
@@ -1,6 +0,0 @@
Wheel-Version: 1.0
Generator: bdist_wheel (0.29.0)
Root-Is-Purelib: true
Tag: py2-none-any
Tag: py3-none-any
@@ -1 +0,0 @@
{"classifiers": ["Development Status :: 4 - Beta", "Programming Language :: Python :: 2", "Programming Language :: Python :: 2.6", "Programming Language :: Python :: 2.7", "Programming Language :: Python :: 3", "Programming Language :: Python :: 3.3", "Programming Language :: Python :: 3.4", "Programming Language :: Python :: 3.5"], "extensions": {"python.details": {"contacts": [{"email": "matplotlib-users@python.org", "name": "Thomas A Caswell", "role": "author"}], "document_names": {"description": "DESCRIPTION.rst"}, "project_urls": {"Home": "http://github.com/matplotlib/cycler"}}}, "extras": [], "generator": "bdist_wheel (0.29.0)", "keywords": ["cycle", "kwargs"], "license": "BSD", "metadata_version": "2.0", "name": "cycler", "platform": "Cross platform (Linux", "run_requires": [{"requires": ["six"]}], "summary": "Composable style cycles", "version": "0.10.0"}
@@ -1,558 +0,0 @@
"""
Cycler
======
Cycling through combinations of values, producing dictionaries.
You can add cyclers::
from cycler import cycler
cc = (cycler(color=list('rgb')) +
cycler(linestyle=['-', '--', '-.']))
for d in cc:
print(d)
Results in::
{'color': 'r', 'linestyle': '-'}
{'color': 'g', 'linestyle': '--'}
{'color': 'b', 'linestyle': '-.'}
You can multiply cyclers::
from cycler import cycler
cc = (cycler(color=list('rgb')) *
cycler(linestyle=['-', '--', '-.']))
for d in cc:
print(d)
Results in::
{'color': 'r', 'linestyle': '-'}
{'color': 'r', 'linestyle': '--'}
{'color': 'r', 'linestyle': '-.'}
{'color': 'g', 'linestyle': '-'}
{'color': 'g', 'linestyle': '--'}
{'color': 'g', 'linestyle': '-.'}
{'color': 'b', 'linestyle': '-'}
{'color': 'b', 'linestyle': '--'}
{'color': 'b', 'linestyle': '-.'}
"""
from __future__ import (absolute_import, division, print_function,
unicode_literals)
import six
from itertools import product, cycle
from six.moves import zip, reduce
from operator import mul, add
import copy
__version__ = '0.10.0'
def _process_keys(left, right):
"""
Helper function to compose cycler keys
Parameters
----------
left, right : iterable of dictionaries or None
The cyclers to be composed
Returns
-------
keys : set
The keys in the composition of the two cyclers
"""
l_peek = next(iter(left)) if left is not None else {}
r_peek = next(iter(right)) if right is not None else {}
l_key = set(l_peek.keys())
r_key = set(r_peek.keys())
if l_key & r_key:
raise ValueError("Can not compose overlapping cycles")
return l_key | r_key
class Cycler(object):
"""
Composable cycles
This class has compositions methods:
``+``
for 'inner' products (zip)
``+=``
in-place ``+``
``*``
for outer products (itertools.product) and integer multiplication
``*=``
in-place ``*``
and supports basic slicing via ``[]``
Parameters
----------
left : Cycler or None
The 'left' cycler
right : Cycler or None
The 'right' cycler
op : func or None
Function which composes the 'left' and 'right' cyclers.
"""
def __call__(self):
return cycle(self)
def __init__(self, left, right=None, op=None):
"""Semi-private init
Do not use this directly, use `cycler` function instead.
"""
if isinstance(left, Cycler):
self._left = Cycler(left._left, left._right, left._op)
elif left is not None:
# Need to copy the dictionary or else that will be a residual
# mutable that could lead to strange errors
self._left = [copy.copy(v) for v in left]
else:
self._left = None
if isinstance(right, Cycler):
self._right = Cycler(right._left, right._right, right._op)
elif right is not None:
# Need to copy the dictionary or else that will be a residual
# mutable that could lead to strange errors
self._right = [copy.copy(v) for v in right]
else:
self._right = None
self._keys = _process_keys(self._left, self._right)
self._op = op
@property
def keys(self):
"""
The keys this Cycler knows about
"""
return set(self._keys)
def change_key(self, old, new):
"""
Change a key in this cycler to a new name.
Modification is performed in-place.
Does nothing if the old key is the same as the new key.
Raises a ValueError if the new key is already a key.
Raises a KeyError if the old key isn't a key.
"""
if old == new:
return
if new in self._keys:
raise ValueError("Can't replace %s with %s, %s is already a key" %
(old, new, new))
if old not in self._keys:
raise KeyError("Can't replace %s with %s, %s is not a key" %
(old, new, old))
self._keys.remove(old)
self._keys.add(new)
if self._right is not None and old in self._right.keys:
self._right.change_key(old, new)
# self._left should always be non-None
# if self._keys is non-empty.
elif isinstance(self._left, Cycler):
self._left.change_key(old, new)
else:
# It should be completely safe at this point to
# assume that the old key can be found in each
# iteration.
self._left = [{new: entry[old]} for entry in self._left]
def _compose(self):
"""
Compose the 'left' and 'right' components of this cycle
with the proper operation (zip or product as of now)
"""
for a, b in self._op(self._left, self._right):
out = dict()
out.update(a)
out.update(b)
yield out
@classmethod
def _from_iter(cls, label, itr):
"""
Class method to create 'base' Cycler objects
that do not have a 'right' or 'op' and for which
the 'left' object is not another Cycler.
Parameters
----------
label : str
The property key.
itr : iterable
Finite length iterable of the property values.
Returns
-------
cycler : Cycler
New 'base' `Cycler`
"""
ret = cls(None)
ret._left = list({label: v} for v in itr)
ret._keys = set([label])
return ret
def __getitem__(self, key):
# TODO : maybe add numpy style fancy slicing
if isinstance(key, slice):
trans = self.by_key()
return reduce(add, (_cycler(k, v[key])
for k, v in six.iteritems(trans)))
else:
raise ValueError("Can only use slices with Cycler.__getitem__")
def __iter__(self):
if self._right is None:
return iter(dict(l) for l in self._left)
return self._compose()
def __add__(self, other):
"""
Pair-wise combine two equal length cycles (zip)
Parameters
----------
other : Cycler
The second Cycler
"""
if len(self) != len(other):
raise ValueError("Can only add equal length cycles, "
"not {0} and {1}".format(len(self), len(other)))
return Cycler(self, other, zip)
def __mul__(self, other):
"""
Outer product of two cycles (`itertools.product`) or integer
multiplication.
Parameters
----------
other : Cycler or int
The second Cycler or integer
"""
if isinstance(other, Cycler):
return Cycler(self, other, product)
elif isinstance(other, int):
trans = self.by_key()
return reduce(add, (_cycler(k, v*other)
for k, v in six.iteritems(trans)))
else:
return NotImplemented
def __rmul__(self, other):
return self * other
def __len__(self):
op_dict = {zip: min, product: mul}
if self._right is None:
return len(self._left)
l_len = len(self._left)
r_len = len(self._right)
return op_dict[self._op](l_len, r_len)
def __iadd__(self, other):
"""
In-place pair-wise combine two equal length cycles (zip)
Parameters
----------
other : Cycler
The second Cycler
"""
if not isinstance(other, Cycler):
raise TypeError("Cannot += with a non-Cycler object")
# True shallow copy of self is fine since this is in-place
old_self = copy.copy(self)
self._keys = _process_keys(old_self, other)
self._left = old_self
self._op = zip
self._right = Cycler(other._left, other._right, other._op)
return self
def __imul__(self, other):
"""
In-place outer product of two cycles (`itertools.product`)
Parameters
----------
other : Cycler
The second Cycler
"""
if not isinstance(other, Cycler):
raise TypeError("Cannot *= with a non-Cycler object")
# True shallow copy of self is fine since this is in-place
old_self = copy.copy(self)
self._keys = _process_keys(old_self, other)
self._left = old_self
self._op = product
self._right = Cycler(other._left, other._right, other._op)
return self
def __eq__(self, other):
"""
Check equality
"""
if len(self) != len(other):
return False
if self.keys ^ other.keys:
return False
return all(a == b for a, b in zip(self, other))
def __repr__(self):
op_map = {zip: '+', product: '*'}
if self._right is None:
lab = self.keys.pop()
itr = list(v[lab] for v in self)
return "cycler({lab!r}, {itr!r})".format(lab=lab, itr=itr)
else:
op = op_map.get(self._op, '?')
msg = "({left!r} {op} {right!r})"
return msg.format(left=self._left, op=op, right=self._right)
def _repr_html_(self):
# an table showing the value of each key through a full cycle
output = "<table>"
sorted_keys = sorted(self.keys, key=repr)
for key in sorted_keys:
output += "<th>{key!r}</th>".format(key=key)
for d in iter(self):
output += "<tr>"
for k in sorted_keys:
output += "<td>{val!r}</td>".format(val=d[k])
output += "</tr>"
output += "</table>"
return output
def by_key(self):
"""Values by key
This returns the transposed values of the cycler. Iterating
over a `Cycler` yields dicts with a single value for each key,
this method returns a `dict` of `list` which are the values
for the given key.
The returned value can be used to create an equivalent `Cycler`
using only `+`.
Returns
-------
transpose : dict
dict of lists of the values for each key.
"""
# TODO : sort out if this is a bottle neck, if there is a better way
# and if we care.
keys = self.keys
# change this to dict comprehension when drop 2.6
out = dict((k, list()) for k in keys)
for d in self:
for k in keys:
out[k].append(d[k])
return out
# for back compatibility
_transpose = by_key
def simplify(self):
"""Simplify the Cycler
Returned as a composition using only sums (no multiplications)
Returns
-------
simple : Cycler
An equivalent cycler using only summation"""
# TODO: sort out if it is worth the effort to make sure this is
# balanced. Currently it is is
# (((a + b) + c) + d) vs
# ((a + b) + (c + d))
# I would believe that there is some performance implications
trans = self.by_key()
return reduce(add, (_cycler(k, v) for k, v in six.iteritems(trans)))
def concat(self, other):
"""Concatenate this cycler and an other.
The keys must match exactly.
This returns a single Cycler which is equivalent to
`itertools.chain(self, other)`
Examples
--------
>>> num = cycler('a', range(3))
>>> let = cycler('a', 'abc')
>>> num.concat(let)
cycler('a', [0, 1, 2, 'a', 'b', 'c'])
Parameters
----------
other : `Cycler`
The `Cycler` to concatenate to this one.
Returns
-------
ret : `Cycler`
The concatenated `Cycler`
"""
return concat(self, other)
def concat(left, right):
"""Concatenate two cyclers.
The keys must match exactly.
This returns a single Cycler which is equivalent to
`itertools.chain(left, right)`
Examples
--------
>>> num = cycler('a', range(3))
>>> let = cycler('a', 'abc')
>>> num.concat(let)
cycler('a', [0, 1, 2, 'a', 'b', 'c'])
Parameters
----------
left, right : `Cycler`
The two `Cycler` instances to concatenate
Returns
-------
ret : `Cycler`
The concatenated `Cycler`
"""
if left.keys != right.keys:
msg = '\n\t'.join(["Keys do not match:",
"Intersection: {both!r}",
"Disjoint: {just_one!r}"]).format(
both=left.keys & right.keys,
just_one=left.keys ^ right.keys)
raise ValueError(msg)
_l = left.by_key()
_r = right.by_key()
return reduce(add, (_cycler(k, _l[k] + _r[k]) for k in left.keys))
def cycler(*args, **kwargs):
"""
Create a new `Cycler` object from a single positional argument,
a pair of positional arguments, or the combination of keyword arguments.
cycler(arg)
cycler(label1=itr1[, label2=iter2[, ...]])
cycler(label, itr)
Form 1 simply copies a given `Cycler` object.
Form 2 composes a `Cycler` as an inner product of the
pairs of keyword arguments. In other words, all of the
iterables are cycled simultaneously, as if through zip().
Form 3 creates a `Cycler` from a label and an iterable.
This is useful for when the label cannot be a keyword argument
(e.g., an integer or a name that has a space in it).
Parameters
----------
arg : Cycler
Copy constructor for Cycler (does a shallow copy of iterables).
label : name
The property key. In the 2-arg form of the function,
the label can be any hashable object. In the keyword argument
form of the function, it must be a valid python identifier.
itr : iterable
Finite length iterable of the property values.
Can be a single-property `Cycler` that would
be like a key change, but as a shallow copy.
Returns
-------
cycler : Cycler
New `Cycler` for the given property
"""
if args and kwargs:
raise TypeError("cyl() can only accept positional OR keyword "
"arguments -- not both.")
if len(args) == 1:
if not isinstance(args[0], Cycler):
raise TypeError("If only one positional argument given, it must "
" be a Cycler instance.")
return Cycler(args[0])
elif len(args) == 2:
return _cycler(*args)
elif len(args) > 2:
raise TypeError("Only a single Cycler can be accepted as the lone "
"positional argument. Use keyword arguments instead.")
if kwargs:
return reduce(add, (_cycler(k, v) for k, v in six.iteritems(kwargs)))
raise TypeError("Must have at least a positional OR keyword arguments")
def _cycler(label, itr):
"""
Create a new `Cycler` object from a property name and
iterable of values.
Parameters
----------
label : hashable
The property key.
itr : iterable
Finite length iterable of the property values.
Returns
-------
cycler : Cycler
New `Cycler` for the given property
"""
if isinstance(itr, Cycler):
keys = itr.keys
if len(keys) != 1:
msg = "Can not create Cycler from a multi-property Cycler"
raise ValueError(msg)
lab = keys.pop()
# Doesn't need to be a new list because
# _from_iter() will be creating that new list anyway.
itr = (v[lab] for v in itr)
return Cycler._from_iter(label, itr)
@@ -1,8 +0,0 @@
# -*- coding: utf-8 -*-
try:
from ._version import version as __version__
except ImportError:
__version__ = 'unknown'
__all__ = ['easter', 'parser', 'relativedelta', 'rrule', 'tz',
'utils', 'zoneinfo']
@@ -1,43 +0,0 @@
"""
Common code used in multiple modules.
"""
class weekday(object):
__slots__ = ["weekday", "n"]
def __init__(self, weekday, n=None):
self.weekday = weekday
self.n = n
def __call__(self, n):
if n == self.n:
return self
else:
return self.__class__(self.weekday, n)
def __eq__(self, other):
try:
if self.weekday != other.weekday or self.n != other.n:
return False
except AttributeError:
return False
return True
def __hash__(self):
return hash((
self.weekday,
self.n,
))
def __ne__(self, other):
return not (self == other)
def __repr__(self):
s = ("MO", "TU", "WE", "TH", "FR", "SA", "SU")[self.weekday]
if not self.n:
return s
else:
return "%s(%+d)" % (s, self.n)
# vim:ts=4:sw=4:et
@@ -1,4 +0,0 @@
# coding: utf-8
# file generated by setuptools_scm
# don't change, don't track in version control
version = '2.7.5'
@@ -1,89 +0,0 @@
# -*- coding: utf-8 -*-
"""
This module offers a generic easter computing method for any given year, using
Western, Orthodox or Julian algorithms.
"""
import datetime
__all__ = ["easter", "EASTER_JULIAN", "EASTER_ORTHODOX", "EASTER_WESTERN"]
EASTER_JULIAN = 1
EASTER_ORTHODOX = 2
EASTER_WESTERN = 3
def easter(year, method=EASTER_WESTERN):
"""
This method was ported from the work done by GM Arts,
on top of the algorithm by Claus Tondering, which was
based in part on the algorithm of Ouding (1940), as
quoted in "Explanatory Supplement to the Astronomical
Almanac", P. Kenneth Seidelmann, editor.
This algorithm implements three different easter
calculation methods:
1 - Original calculation in Julian calendar, valid in
dates after 326 AD
2 - Original method, with date converted to Gregorian
calendar, valid in years 1583 to 4099
3 - Revised method, in Gregorian calendar, valid in
years 1583 to 4099 as well
These methods are represented by the constants:
* ``EASTER_JULIAN = 1``
* ``EASTER_ORTHODOX = 2``
* ``EASTER_WESTERN = 3``
The default method is method 3.
More about the algorithm may be found at:
`GM Arts: Easter Algorithms <http://www.gmarts.org/index.php?go=415>`_
and
`The Calendar FAQ: Easter <https://www.tondering.dk/claus/cal/easter.php>`_
"""
if not (1 <= method <= 3):
raise ValueError("invalid method")
# g - Golden year - 1
# c - Century
# h - (23 - Epact) mod 30
# i - Number of days from March 21 to Paschal Full Moon
# j - Weekday for PFM (0=Sunday, etc)
# p - Number of days from March 21 to Sunday on or before PFM
# (-6 to 28 methods 1 & 3, to 56 for method 2)
# e - Extra days to add for method 2 (converting Julian
# date to Gregorian date)
y = year
g = y % 19
e = 0
if method < 3:
# Old method
i = (19*g + 15) % 30
j = (y + y//4 + i) % 7
if method == 2:
# Extra dates to convert Julian to Gregorian date
e = 10
if y > 1600:
e = e + y//100 - 16 - (y//100 - 16)//4
else:
# New method
c = y//100
h = (c - c//4 - (8*c + 13)//25 + 19*g + 15) % 30
i = h - (h//28)*(1 - (h//28)*(29//(h + 1))*((21 - g)//11))
j = (y + y//4 + i + 2 - c + c//4) % 7
# p can be from -6 to 56 corresponding to dates 22 March to 23 May
# (later dates apply to method 2, although 23 May never actually occurs)
p = i - j + e
d = 1 + (p + 27 + (p + 6)//40) % 31
m = 3 + (p + 26)//30
return datetime.date(int(y), int(m), int(d))
@@ -1,60 +0,0 @@
# -*- coding: utf-8 -*-
from ._parser import parse, parser, parserinfo
from ._parser import DEFAULTPARSER, DEFAULTTZPARSER
from ._parser import UnknownTimezoneWarning
from ._parser import __doc__
from .isoparser import isoparser, isoparse
__all__ = ['parse', 'parser', 'parserinfo',
'isoparse', 'isoparser',
'UnknownTimezoneWarning']
###
# Deprecate portions of the private interface so that downstream code that
# is improperly relying on it is given *some* notice.
def __deprecated_private_func(f):
from functools import wraps
import warnings
msg = ('{name} is a private function and may break without warning, '
'it will be moved and or renamed in future versions.')
msg = msg.format(name=f.__name__)
@wraps(f)
def deprecated_func(*args, **kwargs):
warnings.warn(msg, DeprecationWarning)
return f(*args, **kwargs)
return deprecated_func
def __deprecate_private_class(c):
import warnings
msg = ('{name} is a private class and may break without warning, '
'it will be moved and or renamed in future versions.')
msg = msg.format(name=c.__name__)
class private_class(c):
__doc__ = c.__doc__
def __init__(self, *args, **kwargs):
warnings.warn(msg, DeprecationWarning)
super(private_class, self).__init__(*args, **kwargs)
private_class.__name__ = c.__name__
return private_class
from ._parser import _timelex, _resultbase
from ._parser import _tzparser, _parsetz
_timelex = __deprecate_private_class(_timelex)
_tzparser = __deprecate_private_class(_tzparser)
_resultbase = __deprecate_private_class(_resultbase)
_parsetz = __deprecated_private_func(_parsetz)
File diff suppressed because it is too large Load Diff
@@ -1,406 +0,0 @@
# -*- coding: utf-8 -*-
"""
This module offers a parser for ISO-8601 strings
It is intended to support all valid date, time and datetime formats per the
ISO-8601 specification.
..versionadded:: 2.7.0
"""
from datetime import datetime, timedelta, time, date
import calendar
from dateutil import tz
from functools import wraps
import re
import six
__all__ = ["isoparse", "isoparser"]
def _takes_ascii(f):
@wraps(f)
def func(self, str_in, *args, **kwargs):
# If it's a stream, read the whole thing
str_in = getattr(str_in, 'read', lambda: str_in)()
# If it's unicode, turn it into bytes, since ISO-8601 only covers ASCII
if isinstance(str_in, six.text_type):
# ASCII is the same in UTF-8
try:
str_in = str_in.encode('ascii')
except UnicodeEncodeError as e:
msg = 'ISO-8601 strings should contain only ASCII characters'
six.raise_from(ValueError(msg), e)
return f(self, str_in, *args, **kwargs)
return func
class isoparser(object):
def __init__(self, sep=None):
"""
:param sep:
A single character that separates date and time portions. If
``None``, the parser will accept any single character.
For strict ISO-8601 adherence, pass ``'T'``.
"""
if sep is not None:
if (len(sep) != 1 or ord(sep) >= 128 or sep in '0123456789'):
raise ValueError('Separator must be a single, non-numeric ' +
'ASCII character')
sep = sep.encode('ascii')
self._sep = sep
@_takes_ascii
def isoparse(self, dt_str):
"""
Parse an ISO-8601 datetime string into a :class:`datetime.datetime`.
An ISO-8601 datetime string consists of a date portion, followed
optionally by a time portion - the date and time portions are separated
by a single character separator, which is ``T`` in the official
standard. Incomplete date formats (such as ``YYYY-MM``) may *not* be
combined with a time portion.
Supported date formats are:
Common:
- ``YYYY``
- ``YYYY-MM`` or ``YYYYMM``
- ``YYYY-MM-DD`` or ``YYYYMMDD``
Uncommon:
- ``YYYY-Www`` or ``YYYYWww`` - ISO week (day defaults to 0)
- ``YYYY-Www-D`` or ``YYYYWwwD`` - ISO week and day
The ISO week and day numbering follows the same logic as
:func:`datetime.date.isocalendar`.
Supported time formats are:
- ``hh``
- ``hh:mm`` or ``hhmm``
- ``hh:mm:ss`` or ``hhmmss``
- ``hh:mm:ss.sss`` or ``hh:mm:ss.ssssss`` (3-6 sub-second digits)
Midnight is a special case for `hh`, as the standard supports both
00:00 and 24:00 as a representation.
.. caution::
Support for fractional components other than seconds is part of the
ISO-8601 standard, but is not currently implemented in this parser.
Supported time zone offset formats are:
- `Z` (UTC)
- `±HH:MM`
- `±HHMM`
- `±HH`
Offsets will be represented as :class:`dateutil.tz.tzoffset` objects,
with the exception of UTC, which will be represented as
:class:`dateutil.tz.tzutc`. Time zone offsets equivalent to UTC (such
as `+00:00`) will also be represented as :class:`dateutil.tz.tzutc`.
:param dt_str:
A string or stream containing only an ISO-8601 datetime string
:return:
Returns a :class:`datetime.datetime` representing the string.
Unspecified components default to their lowest value.
.. warning::
As of version 2.7.0, the strictness of the parser should not be
considered a stable part of the contract. Any valid ISO-8601 string
that parses correctly with the default settings will continue to
parse correctly in future versions, but invalid strings that
currently fail (e.g. ``2017-01-01T00:00+00:00:00``) are not
guaranteed to continue failing in future versions if they encode
a valid date.
.. versionadded:: 2.7.0
"""
components, pos = self._parse_isodate(dt_str)
if len(dt_str) > pos:
if self._sep is None or dt_str[pos:pos + 1] == self._sep:
components += self._parse_isotime(dt_str[pos + 1:])
else:
raise ValueError('String contains unknown ISO components')
return datetime(*components)
@_takes_ascii
def parse_isodate(self, datestr):
"""
Parse the date portion of an ISO string.
:param datestr:
The string portion of an ISO string, without a separator
:return:
Returns a :class:`datetime.date` object
"""
components, pos = self._parse_isodate(datestr)
if pos < len(datestr):
raise ValueError('String contains unknown ISO ' +
'components: {}'.format(datestr))
return date(*components)
@_takes_ascii
def parse_isotime(self, timestr):
"""
Parse the time portion of an ISO string.
:param timestr:
The time portion of an ISO string, without a separator
:return:
Returns a :class:`datetime.time` object
"""
return time(*self._parse_isotime(timestr))
@_takes_ascii
def parse_tzstr(self, tzstr, zero_as_utc=True):
"""
Parse a valid ISO time zone string.
See :func:`isoparser.isoparse` for details on supported formats.
:param tzstr:
A string representing an ISO time zone offset
:param zero_as_utc:
Whether to return :class:`dateutil.tz.tzutc` for zero-offset zones
:return:
Returns :class:`dateutil.tz.tzoffset` for offsets and
:class:`dateutil.tz.tzutc` for ``Z`` and (if ``zero_as_utc`` is
specified) offsets equivalent to UTC.
"""
return self._parse_tzstr(tzstr, zero_as_utc=zero_as_utc)
# Constants
_MICROSECOND_END_REGEX = re.compile(b'[-+Z]+')
_DATE_SEP = b'-'
_TIME_SEP = b':'
_MICRO_SEP = b'.'
def _parse_isodate(self, dt_str):
try:
return self._parse_isodate_common(dt_str)
except ValueError:
return self._parse_isodate_uncommon(dt_str)
def _parse_isodate_common(self, dt_str):
len_str = len(dt_str)
components = [1, 1, 1]
if len_str < 4:
raise ValueError('ISO string too short')
# Year
components[0] = int(dt_str[0:4])
pos = 4
if pos >= len_str:
return components, pos
has_sep = dt_str[pos:pos + 1] == self._DATE_SEP
if has_sep:
pos += 1
# Month
if len_str - pos < 2:
raise ValueError('Invalid common month')
components[1] = int(dt_str[pos:pos + 2])
pos += 2
if pos >= len_str:
if has_sep:
return components, pos
else:
raise ValueError('Invalid ISO format')
if has_sep:
if dt_str[pos:pos + 1] != self._DATE_SEP:
raise ValueError('Invalid separator in ISO string')
pos += 1
# Day
if len_str - pos < 2:
raise ValueError('Invalid common day')
components[2] = int(dt_str[pos:pos + 2])
return components, pos + 2
def _parse_isodate_uncommon(self, dt_str):
if len(dt_str) < 4:
raise ValueError('ISO string too short')
# All ISO formats start with the year
year = int(dt_str[0:4])
has_sep = dt_str[4:5] == self._DATE_SEP
pos = 4 + has_sep # Skip '-' if it's there
if dt_str[pos:pos + 1] == b'W':
# YYYY-?Www-?D?
pos += 1
weekno = int(dt_str[pos:pos + 2])
pos += 2
dayno = 1
if len(dt_str) > pos:
if (dt_str[pos:pos + 1] == self._DATE_SEP) != has_sep:
raise ValueError('Inconsistent use of dash separator')
pos += has_sep
dayno = int(dt_str[pos:pos + 1])
pos += 1
base_date = self._calculate_weekdate(year, weekno, dayno)
else:
# YYYYDDD or YYYY-DDD
if len(dt_str) - pos < 3:
raise ValueError('Invalid ordinal day')
ordinal_day = int(dt_str[pos:pos + 3])
pos += 3
if ordinal_day < 1 or ordinal_day > (365 + calendar.isleap(year)):
raise ValueError('Invalid ordinal day' +
' {} for year {}'.format(ordinal_day, year))
base_date = date(year, 1, 1) + timedelta(days=ordinal_day - 1)
components = [base_date.year, base_date.month, base_date.day]
return components, pos
def _calculate_weekdate(self, year, week, day):
"""
Calculate the day of corresponding to the ISO year-week-day calendar.
This function is effectively the inverse of
:func:`datetime.date.isocalendar`.
:param year:
The year in the ISO calendar
:param week:
The week in the ISO calendar - range is [1, 53]
:param day:
The day in the ISO calendar - range is [1 (MON), 7 (SUN)]
:return:
Returns a :class:`datetime.date`
"""
if not 0 < week < 54:
raise ValueError('Invalid week: {}'.format(week))
if not 0 < day < 8: # Range is 1-7
raise ValueError('Invalid weekday: {}'.format(day))
# Get week 1 for the specific year:
jan_4 = date(year, 1, 4) # Week 1 always has January 4th in it
week_1 = jan_4 - timedelta(days=jan_4.isocalendar()[2] - 1)
# Now add the specific number of weeks and days to get what we want
week_offset = (week - 1) * 7 + (day - 1)
return week_1 + timedelta(days=week_offset)
def _parse_isotime(self, timestr):
len_str = len(timestr)
components = [0, 0, 0, 0, None]
pos = 0
comp = -1
if len(timestr) < 2:
raise ValueError('ISO time too short')
has_sep = len_str >= 3 and timestr[2:3] == self._TIME_SEP
while pos < len_str and comp < 5:
comp += 1
if timestr[pos:pos + 1] in b'-+Z':
# Detect time zone boundary
components[-1] = self._parse_tzstr(timestr[pos:])
pos = len_str
break
if comp < 3:
# Hour, minute, second
components[comp] = int(timestr[pos:pos + 2])
pos += 2
if (has_sep and pos < len_str and
timestr[pos:pos + 1] == self._TIME_SEP):
pos += 1
if comp == 3:
# Microsecond
if timestr[pos:pos + 1] != self._MICRO_SEP:
continue
pos += 1
us_str = self._MICROSECOND_END_REGEX.split(timestr[pos:pos + 6],
1)[0]
components[comp] = int(us_str) * 10**(6 - len(us_str))
pos += len(us_str)
if pos < len_str:
raise ValueError('Unused components in ISO string')
if components[0] == 24:
# Standard supports 00:00 and 24:00 as representations of midnight
if any(component != 0 for component in components[1:4]):
raise ValueError('Hour may only be 24 at 24:00:00.000')
components[0] = 0
return components
def _parse_tzstr(self, tzstr, zero_as_utc=True):
if tzstr == b'Z':
return tz.tzutc()
if len(tzstr) not in {3, 5, 6}:
raise ValueError('Time zone offset must be 1, 3, 5 or 6 characters')
if tzstr[0:1] == b'-':
mult = -1
elif tzstr[0:1] == b'+':
mult = 1
else:
raise ValueError('Time zone offset requires sign')
hours = int(tzstr[1:3])
if len(tzstr) == 3:
minutes = 0
else:
minutes = int(tzstr[(4 if tzstr[3:4] == self._TIME_SEP else 3):])
if zero_as_utc and hours == 0 and minutes == 0:
return tz.tzutc()
else:
if minutes > 59:
raise ValueError('Invalid minutes in time zone offset')
if hours > 23:
raise ValueError('Invalid hours in time zone offset')
return tz.tzoffset(None, mult * (hours * 60 + minutes) * 60)
DEFAULT_ISOPARSER = isoparser()
isoparse = DEFAULT_ISOPARSER.isoparse
@@ -1,590 +0,0 @@
# -*- coding: utf-8 -*-
import datetime
import calendar
import operator
from math import copysign
from six import integer_types
from warnings import warn
from ._common import weekday
MO, TU, WE, TH, FR, SA, SU = weekdays = tuple(weekday(x) for x in range(7))
__all__ = ["relativedelta", "MO", "TU", "WE", "TH", "FR", "SA", "SU"]
class relativedelta(object):
"""
The relativedelta type is based on the specification of the excellent
work done by M.-A. Lemburg in his
`mx.DateTime <https://www.egenix.com/products/python/mxBase/mxDateTime/>`_ extension.
However, notice that this type does *NOT* implement the same algorithm as
his work. Do *NOT* expect it to behave like mx.DateTime's counterpart.
There are two different ways to build a relativedelta instance. The
first one is passing it two date/datetime classes::
relativedelta(datetime1, datetime2)
The second one is passing it any number of the following keyword arguments::
relativedelta(arg1=x,arg2=y,arg3=z...)
year, month, day, hour, minute, second, microsecond:
Absolute information (argument is singular); adding or subtracting a
relativedelta with absolute information does not perform an arithmetic
operation, but rather REPLACES the corresponding value in the
original datetime with the value(s) in relativedelta.
years, months, weeks, days, hours, minutes, seconds, microseconds:
Relative information, may be negative (argument is plural); adding
or subtracting a relativedelta with relative information performs
the corresponding aritmetic operation on the original datetime value
with the information in the relativedelta.
weekday:
One of the weekday instances (MO, TU, etc). These
instances may receive a parameter N, specifying the Nth
weekday, which could be positive or negative (like MO(+1)
or MO(-2). Not specifying it is the same as specifying
+1. You can also use an integer, where 0=MO. Notice that
if the calculated date is already Monday, for example,
using MO(1) or MO(-1) won't change the day.
leapdays:
Will add given days to the date found, if year is a leap
year, and the date found is post 28 of february.
yearday, nlyearday:
Set the yearday or the non-leap year day (jump leap days).
These are converted to day/month/leapdays information.
There are relative and absolute forms of the keyword
arguments. The plural is relative, and the singular is
absolute. For each argument in the order below, the absolute form
is applied first (by setting each attribute to that value) and
then the relative form (by adding the value to the attribute).
The order of attributes considered when this relativedelta is
added to a datetime is:
1. Year
2. Month
3. Day
4. Hours
5. Minutes
6. Seconds
7. Microseconds
Finally, weekday is applied, using the rule described above.
For example
>>> dt = datetime(2018, 4, 9, 13, 37, 0)
>>> delta = relativedelta(hours=25, day=1, weekday=MO(1))
datetime(2018, 4, 2, 14, 37, 0)
First, the day is set to 1 (the first of the month), then 25 hours
are added, to get to the 2nd day and 14th hour, finally the
weekday is applied, but since the 2nd is already a Monday there is
no effect.
"""
def __init__(self, dt1=None, dt2=None,
years=0, months=0, days=0, leapdays=0, weeks=0,
hours=0, minutes=0, seconds=0, microseconds=0,
year=None, month=None, day=None, weekday=None,
yearday=None, nlyearday=None,
hour=None, minute=None, second=None, microsecond=None):
if dt1 and dt2:
# datetime is a subclass of date. So both must be date
if not (isinstance(dt1, datetime.date) and
isinstance(dt2, datetime.date)):
raise TypeError("relativedelta only diffs datetime/date")
# We allow two dates, or two datetimes, so we coerce them to be
# of the same type
if (isinstance(dt1, datetime.datetime) !=
isinstance(dt2, datetime.datetime)):
if not isinstance(dt1, datetime.datetime):
dt1 = datetime.datetime.fromordinal(dt1.toordinal())
elif not isinstance(dt2, datetime.datetime):
dt2 = datetime.datetime.fromordinal(dt2.toordinal())
self.years = 0
self.months = 0
self.days = 0
self.leapdays = 0
self.hours = 0
self.minutes = 0
self.seconds = 0
self.microseconds = 0
self.year = None
self.month = None
self.day = None
self.weekday = None
self.hour = None
self.minute = None
self.second = None
self.microsecond = None
self._has_time = 0
# Get year / month delta between the two
months = (dt1.year - dt2.year) * 12 + (dt1.month - dt2.month)
self._set_months(months)
# Remove the year/month delta so the timedelta is just well-defined
# time units (seconds, days and microseconds)
dtm = self.__radd__(dt2)
# If we've overshot our target, make an adjustment
if dt1 < dt2:
compare = operator.gt
increment = 1
else:
compare = operator.lt
increment = -1
while compare(dt1, dtm):
months += increment
self._set_months(months)
dtm = self.__radd__(dt2)
# Get the timedelta between the "months-adjusted" date and dt1
delta = dt1 - dtm
self.seconds = delta.seconds + delta.days * 86400
self.microseconds = delta.microseconds
else:
# Check for non-integer values in integer-only quantities
if any(x is not None and x != int(x) for x in (years, months)):
raise ValueError("Non-integer years and months are "
"ambiguous and not currently supported.")
# Relative information
self.years = int(years)
self.months = int(months)
self.days = days + weeks * 7
self.leapdays = leapdays
self.hours = hours
self.minutes = minutes
self.seconds = seconds
self.microseconds = microseconds
# Absolute information
self.year = year
self.month = month
self.day = day
self.hour = hour
self.minute = minute
self.second = second
self.microsecond = microsecond
if any(x is not None and int(x) != x
for x in (year, month, day, hour,
minute, second, microsecond)):
# For now we'll deprecate floats - later it'll be an error.
warn("Non-integer value passed as absolute information. " +
"This is not a well-defined condition and will raise " +
"errors in future versions.", DeprecationWarning)
if isinstance(weekday, integer_types):
self.weekday = weekdays[weekday]
else:
self.weekday = weekday
yday = 0
if nlyearday:
yday = nlyearday
elif yearday:
yday = yearday
if yearday > 59:
self.leapdays = -1
if yday:
ydayidx = [31, 59, 90, 120, 151, 181, 212,
243, 273, 304, 334, 366]
for idx, ydays in enumerate(ydayidx):
if yday <= ydays:
self.month = idx+1
if idx == 0:
self.day = yday
else:
self.day = yday-ydayidx[idx-1]
break
else:
raise ValueError("invalid year day (%d)" % yday)
self._fix()
def _fix(self):
if abs(self.microseconds) > 999999:
s = _sign(self.microseconds)
div, mod = divmod(self.microseconds * s, 1000000)
self.microseconds = mod * s
self.seconds += div * s
if abs(self.seconds) > 59:
s = _sign(self.seconds)
div, mod = divmod(self.seconds * s, 60)
self.seconds = mod * s
self.minutes += div * s
if abs(self.minutes) > 59:
s = _sign(self.minutes)
div, mod = divmod(self.minutes * s, 60)
self.minutes = mod * s
self.hours += div * s
if abs(self.hours) > 23:
s = _sign(self.hours)
div, mod = divmod(self.hours * s, 24)
self.hours = mod * s
self.days += div * s
if abs(self.months) > 11:
s = _sign(self.months)
div, mod = divmod(self.months * s, 12)
self.months = mod * s
self.years += div * s
if (self.hours or self.minutes or self.seconds or self.microseconds
or self.hour is not None or self.minute is not None or
self.second is not None or self.microsecond is not None):
self._has_time = 1
else:
self._has_time = 0
@property
def weeks(self):
return int(self.days / 7.0)
@weeks.setter
def weeks(self, value):
self.days = self.days - (self.weeks * 7) + value * 7
def _set_months(self, months):
self.months = months
if abs(self.months) > 11:
s = _sign(self.months)
div, mod = divmod(self.months * s, 12)
self.months = mod * s
self.years = div * s
else:
self.years = 0
def normalized(self):
"""
Return a version of this object represented entirely using integer
values for the relative attributes.
>>> relativedelta(days=1.5, hours=2).normalized()
relativedelta(days=1, hours=14)
:return:
Returns a :class:`dateutil.relativedelta.relativedelta` object.
"""
# Cascade remainders down (rounding each to roughly nearest microsecond)
days = int(self.days)
hours_f = round(self.hours + 24 * (self.days - days), 11)
hours = int(hours_f)
minutes_f = round(self.minutes + 60 * (hours_f - hours), 10)
minutes = int(minutes_f)
seconds_f = round(self.seconds + 60 * (minutes_f - minutes), 8)
seconds = int(seconds_f)
microseconds = round(self.microseconds + 1e6 * (seconds_f - seconds))
# Constructor carries overflow back up with call to _fix()
return self.__class__(years=self.years, months=self.months,
days=days, hours=hours, minutes=minutes,
seconds=seconds, microseconds=microseconds,
leapdays=self.leapdays, year=self.year,
month=self.month, day=self.day,
weekday=self.weekday, hour=self.hour,
minute=self.minute, second=self.second,
microsecond=self.microsecond)
def __add__(self, other):
if isinstance(other, relativedelta):
return self.__class__(years=other.years + self.years,
months=other.months + self.months,
days=other.days + self.days,
hours=other.hours + self.hours,
minutes=other.minutes + self.minutes,
seconds=other.seconds + self.seconds,
microseconds=(other.microseconds +
self.microseconds),
leapdays=other.leapdays or self.leapdays,
year=(other.year if other.year is not None
else self.year),
month=(other.month if other.month is not None
else self.month),
day=(other.day if other.day is not None
else self.day),
weekday=(other.weekday if other.weekday is not None
else self.weekday),
hour=(other.hour if other.hour is not None
else self.hour),
minute=(other.minute if other.minute is not None
else self.minute),
second=(other.second if other.second is not None
else self.second),
microsecond=(other.microsecond if other.microsecond
is not None else
self.microsecond))
if isinstance(other, datetime.timedelta):
return self.__class__(years=self.years,
months=self.months,
days=self.days + other.days,
hours=self.hours,
minutes=self.minutes,
seconds=self.seconds + other.seconds,
microseconds=self.microseconds + other.microseconds,
leapdays=self.leapdays,
year=self.year,
month=self.month,
day=self.day,
weekday=self.weekday,
hour=self.hour,
minute=self.minute,
second=self.second,
microsecond=self.microsecond)
if not isinstance(other, datetime.date):
return NotImplemented
elif self._has_time and not isinstance(other, datetime.datetime):
other = datetime.datetime.fromordinal(other.toordinal())
year = (self.year or other.year)+self.years
month = self.month or other.month
if self.months:
assert 1 <= abs(self.months) <= 12
month += self.months
if month > 12:
year += 1
month -= 12
elif month < 1:
year -= 1
month += 12
day = min(calendar.monthrange(year, month)[1],
self.day or other.day)
repl = {"year": year, "month": month, "day": day}
for attr in ["hour", "minute", "second", "microsecond"]:
value = getattr(self, attr)
if value is not None:
repl[attr] = value
days = self.days
if self.leapdays and month > 2 and calendar.isleap(year):
days += self.leapdays
ret = (other.replace(**repl)
+ datetime.timedelta(days=days,
hours=self.hours,
minutes=self.minutes,
seconds=self.seconds,
microseconds=self.microseconds))
if self.weekday:
weekday, nth = self.weekday.weekday, self.weekday.n or 1
jumpdays = (abs(nth) - 1) * 7
if nth > 0:
jumpdays += (7 - ret.weekday() + weekday) % 7
else:
jumpdays += (ret.weekday() - weekday) % 7
jumpdays *= -1
ret += datetime.timedelta(days=jumpdays)
return ret
def __radd__(self, other):
return self.__add__(other)
def __rsub__(self, other):
return self.__neg__().__radd__(other)
def __sub__(self, other):
if not isinstance(other, relativedelta):
return NotImplemented # In case the other object defines __rsub__
return self.__class__(years=self.years - other.years,
months=self.months - other.months,
days=self.days - other.days,
hours=self.hours - other.hours,
minutes=self.minutes - other.minutes,
seconds=self.seconds - other.seconds,
microseconds=self.microseconds - other.microseconds,
leapdays=self.leapdays or other.leapdays,
year=(self.year if self.year is not None
else other.year),
month=(self.month if self.month is not None else
other.month),
day=(self.day if self.day is not None else
other.day),
weekday=(self.weekday if self.weekday is not None else
other.weekday),
hour=(self.hour if self.hour is not None else
other.hour),
minute=(self.minute if self.minute is not None else
other.minute),
second=(self.second if self.second is not None else
other.second),
microsecond=(self.microsecond if self.microsecond
is not None else
other.microsecond))
def __abs__(self):
return self.__class__(years=abs(self.years),
months=abs(self.months),
days=abs(self.days),
hours=abs(self.hours),
minutes=abs(self.minutes),
seconds=abs(self.seconds),
microseconds=abs(self.microseconds),
leapdays=self.leapdays,
year=self.year,
month=self.month,
day=self.day,
weekday=self.weekday,
hour=self.hour,
minute=self.minute,
second=self.second,
microsecond=self.microsecond)
def __neg__(self):
return self.__class__(years=-self.years,
months=-self.months,
days=-self.days,
hours=-self.hours,
minutes=-self.minutes,
seconds=-self.seconds,
microseconds=-self.microseconds,
leapdays=self.leapdays,
year=self.year,
month=self.month,
day=self.day,
weekday=self.weekday,
hour=self.hour,
minute=self.minute,
second=self.second,
microsecond=self.microsecond)
def __bool__(self):
return not (not self.years and
not self.months and
not self.days and
not self.hours and
not self.minutes and
not self.seconds and
not self.microseconds and
not self.leapdays and
self.year is None and
self.month is None and
self.day is None and
self.weekday is None and
self.hour is None and
self.minute is None and
self.second is None and
self.microsecond is None)
# Compatibility with Python 2.x
__nonzero__ = __bool__
def __mul__(self, other):
try:
f = float(other)
except TypeError:
return NotImplemented
return self.__class__(years=int(self.years * f),
months=int(self.months * f),
days=int(self.days * f),
hours=int(self.hours * f),
minutes=int(self.minutes * f),
seconds=int(self.seconds * f),
microseconds=int(self.microseconds * f),
leapdays=self.leapdays,
year=self.year,
month=self.month,
day=self.day,
weekday=self.weekday,
hour=self.hour,
minute=self.minute,
second=self.second,
microsecond=self.microsecond)
__rmul__ = __mul__
def __eq__(self, other):
if not isinstance(other, relativedelta):
return NotImplemented
if self.weekday or other.weekday:
if not self.weekday or not other.weekday:
return False
if self.weekday.weekday != other.weekday.weekday:
return False
n1, n2 = self.weekday.n, other.weekday.n
if n1 != n2 and not ((not n1 or n1 == 1) and (not n2 or n2 == 1)):
return False
return (self.years == other.years and
self.months == other.months and
self.days == other.days and
self.hours == other.hours and
self.minutes == other.minutes and
self.seconds == other.seconds and
self.microseconds == other.microseconds and
self.leapdays == other.leapdays and
self.year == other.year and
self.month == other.month and
self.day == other.day and
self.hour == other.hour and
self.minute == other.minute and
self.second == other.second and
self.microsecond == other.microsecond)
def __hash__(self):
return hash((
self.weekday,
self.years,
self.months,
self.days,
self.hours,
self.minutes,
self.seconds,
self.microseconds,
self.leapdays,
self.year,
self.month,
self.day,
self.hour,
self.minute,
self.second,
self.microsecond,
))
def __ne__(self, other):
return not self.__eq__(other)
def __div__(self, other):
try:
reciprocal = 1 / float(other)
except TypeError:
return NotImplemented
return self.__mul__(reciprocal)
__truediv__ = __div__
def __repr__(self):
l = []
for attr in ["years", "months", "days", "leapdays",
"hours", "minutes", "seconds", "microseconds"]:
value = getattr(self, attr)
if value:
l.append("{attr}={value:+g}".format(attr=attr, value=value))
for attr in ["year", "month", "day", "weekday",
"hour", "minute", "second", "microsecond"]:
value = getattr(self, attr)
if value is not None:
l.append("{attr}={value}".format(attr=attr, value=repr(value)))
return "{classname}({attrs})".format(classname=self.__class__.__name__,
attrs=", ".join(l))
def _sign(x):
return int(copysign(1, x))
# vim:ts=4:sw=4:et
File diff suppressed because it is too large Load Diff
@@ -1,17 +0,0 @@
# -*- coding: utf-8 -*-
from .tz import *
from .tz import __doc__
#: Convenience constant providing a :class:`tzutc()` instance
#:
#: .. versionadded:: 2.7.0
UTC = tzutc()
__all__ = ["tzutc", "tzoffset", "tzlocal", "tzfile", "tzrange",
"tzstr", "tzical", "tzwin", "tzwinlocal", "gettz",
"enfold", "datetime_ambiguous", "datetime_exists",
"resolve_imaginary", "UTC", "DeprecatedTzFormatWarning"]
class DeprecatedTzFormatWarning(Warning):
"""Warning raised when time zones are parsed from deprecated formats."""
@@ -1,415 +0,0 @@
from six import PY3
from functools import wraps
from datetime import datetime, timedelta, tzinfo
ZERO = timedelta(0)
__all__ = ['tzname_in_python2', 'enfold']
def tzname_in_python2(namefunc):
"""Change unicode output into bytestrings in Python 2
tzname() API changed in Python 3. It used to return bytes, but was changed
to unicode strings
"""
def adjust_encoding(*args, **kwargs):
name = namefunc(*args, **kwargs)
if name is not None and not PY3:
name = name.encode()
return name
return adjust_encoding
# The following is adapted from Alexander Belopolsky's tz library
# https://github.com/abalkin/tz
if hasattr(datetime, 'fold'):
# This is the pre-python 3.6 fold situation
def enfold(dt, fold=1):
"""
Provides a unified interface for assigning the ``fold`` attribute to
datetimes both before and after the implementation of PEP-495.
:param fold:
The value for the ``fold`` attribute in the returned datetime. This
should be either 0 or 1.
:return:
Returns an object for which ``getattr(dt, 'fold', 0)`` returns
``fold`` for all versions of Python. In versions prior to
Python 3.6, this is a ``_DatetimeWithFold`` object, which is a
subclass of :py:class:`datetime.datetime` with the ``fold``
attribute added, if ``fold`` is 1.
.. versionadded:: 2.6.0
"""
return dt.replace(fold=fold)
else:
class _DatetimeWithFold(datetime):
"""
This is a class designed to provide a PEP 495-compliant interface for
Python versions before 3.6. It is used only for dates in a fold, so
the ``fold`` attribute is fixed at ``1``.
.. versionadded:: 2.6.0
"""
__slots__ = ()
def replace(self, *args, **kwargs):
"""
Return a datetime with the same attributes, except for those
attributes given new values by whichever keyword arguments are
specified. Note that tzinfo=None can be specified to create a naive
datetime from an aware datetime with no conversion of date and time
data.
This is reimplemented in ``_DatetimeWithFold`` because pypy3 will
return a ``datetime.datetime`` even if ``fold`` is unchanged.
"""
argnames = (
'year', 'month', 'day', 'hour', 'minute', 'second',
'microsecond', 'tzinfo'
)
for arg, argname in zip(args, argnames):
if argname in kwargs:
raise TypeError('Duplicate argument: {}'.format(argname))
kwargs[argname] = arg
for argname in argnames:
if argname not in kwargs:
kwargs[argname] = getattr(self, argname)
dt_class = self.__class__ if kwargs.get('fold', 1) else datetime
return dt_class(**kwargs)
@property
def fold(self):
return 1
def enfold(dt, fold=1):
"""
Provides a unified interface for assigning the ``fold`` attribute to
datetimes both before and after the implementation of PEP-495.
:param fold:
The value for the ``fold`` attribute in the returned datetime. This
should be either 0 or 1.
:return:
Returns an object for which ``getattr(dt, 'fold', 0)`` returns
``fold`` for all versions of Python. In versions prior to
Python 3.6, this is a ``_DatetimeWithFold`` object, which is a
subclass of :py:class:`datetime.datetime` with the ``fold``
attribute added, if ``fold`` is 1.
.. versionadded:: 2.6.0
"""
if getattr(dt, 'fold', 0) == fold:
return dt
args = dt.timetuple()[:6]
args += (dt.microsecond, dt.tzinfo)
if fold:
return _DatetimeWithFold(*args)
else:
return datetime(*args)
def _validate_fromutc_inputs(f):
"""
The CPython version of ``fromutc`` checks that the input is a ``datetime``
object and that ``self`` is attached as its ``tzinfo``.
"""
@wraps(f)
def fromutc(self, dt):
if not isinstance(dt, datetime):
raise TypeError("fromutc() requires a datetime argument")
if dt.tzinfo is not self:
raise ValueError("dt.tzinfo is not self")
return f(self, dt)
return fromutc
class _tzinfo(tzinfo):
"""
Base class for all ``dateutil`` ``tzinfo`` objects.
"""
def is_ambiguous(self, dt):
"""
Whether or not the "wall time" of a given datetime is ambiguous in this
zone.
:param dt:
A :py:class:`datetime.datetime`, naive or time zone aware.
:return:
Returns ``True`` if ambiguous, ``False`` otherwise.
.. versionadded:: 2.6.0
"""
dt = dt.replace(tzinfo=self)
wall_0 = enfold(dt, fold=0)
wall_1 = enfold(dt, fold=1)
same_offset = wall_0.utcoffset() == wall_1.utcoffset()
same_dt = wall_0.replace(tzinfo=None) == wall_1.replace(tzinfo=None)
return same_dt and not same_offset
def _fold_status(self, dt_utc, dt_wall):
"""
Determine the fold status of a "wall" datetime, given a representation
of the same datetime as a (naive) UTC datetime. This is calculated based
on the assumption that ``dt.utcoffset() - dt.dst()`` is constant for all
datetimes, and that this offset is the actual number of hours separating
``dt_utc`` and ``dt_wall``.
:param dt_utc:
Representation of the datetime as UTC
:param dt_wall:
Representation of the datetime as "wall time". This parameter must
either have a `fold` attribute or have a fold-naive
:class:`datetime.tzinfo` attached, otherwise the calculation may
fail.
"""
if self.is_ambiguous(dt_wall):
delta_wall = dt_wall - dt_utc
_fold = int(delta_wall == (dt_utc.utcoffset() - dt_utc.dst()))
else:
_fold = 0
return _fold
def _fold(self, dt):
return getattr(dt, 'fold', 0)
def _fromutc(self, dt):
"""
Given a timezone-aware datetime in a given timezone, calculates a
timezone-aware datetime in a new timezone.
Since this is the one time that we *know* we have an unambiguous
datetime object, we take this opportunity to determine whether the
datetime is ambiguous and in a "fold" state (e.g. if it's the first
occurence, chronologically, of the ambiguous datetime).
:param dt:
A timezone-aware :class:`datetime.datetime` object.
"""
# Re-implement the algorithm from Python's datetime.py
dtoff = dt.utcoffset()
if dtoff is None:
raise ValueError("fromutc() requires a non-None utcoffset() "
"result")
# The original datetime.py code assumes that `dst()` defaults to
# zero during ambiguous times. PEP 495 inverts this presumption, so
# for pre-PEP 495 versions of python, we need to tweak the algorithm.
dtdst = dt.dst()
if dtdst is None:
raise ValueError("fromutc() requires a non-None dst() result")
delta = dtoff - dtdst
dt += delta
# Set fold=1 so we can default to being in the fold for
# ambiguous dates.
dtdst = enfold(dt, fold=1).dst()
if dtdst is None:
raise ValueError("fromutc(): dt.dst gave inconsistent "
"results; cannot convert")
return dt + dtdst
@_validate_fromutc_inputs
def fromutc(self, dt):
"""
Given a timezone-aware datetime in a given timezone, calculates a
timezone-aware datetime in a new timezone.
Since this is the one time that we *know* we have an unambiguous
datetime object, we take this opportunity to determine whether the
datetime is ambiguous and in a "fold" state (e.g. if it's the first
occurance, chronologically, of the ambiguous datetime).
:param dt:
A timezone-aware :class:`datetime.datetime` object.
"""
dt_wall = self._fromutc(dt)
# Calculate the fold status given the two datetimes.
_fold = self._fold_status(dt, dt_wall)
# Set the default fold value for ambiguous dates
return enfold(dt_wall, fold=_fold)
class tzrangebase(_tzinfo):
"""
This is an abstract base class for time zones represented by an annual
transition into and out of DST. Child classes should implement the following
methods:
* ``__init__(self, *args, **kwargs)``
* ``transitions(self, year)`` - this is expected to return a tuple of
datetimes representing the DST on and off transitions in standard
time.
A fully initialized ``tzrangebase`` subclass should also provide the
following attributes:
* ``hasdst``: Boolean whether or not the zone uses DST.
* ``_dst_offset`` / ``_std_offset``: :class:`datetime.timedelta` objects
representing the respective UTC offsets.
* ``_dst_abbr`` / ``_std_abbr``: Strings representing the timezone short
abbreviations in DST and STD, respectively.
* ``_hasdst``: Whether or not the zone has DST.
.. versionadded:: 2.6.0
"""
def __init__(self):
raise NotImplementedError('tzrangebase is an abstract base class')
def utcoffset(self, dt):
isdst = self._isdst(dt)
if isdst is None:
return None
elif isdst:
return self._dst_offset
else:
return self._std_offset
def dst(self, dt):
isdst = self._isdst(dt)
if isdst is None:
return None
elif isdst:
return self._dst_base_offset
else:
return ZERO
@tzname_in_python2
def tzname(self, dt):
if self._isdst(dt):
return self._dst_abbr
else:
return self._std_abbr
def fromutc(self, dt):
""" Given a datetime in UTC, return local time """
if not isinstance(dt, datetime):
raise TypeError("fromutc() requires a datetime argument")
if dt.tzinfo is not self:
raise ValueError("dt.tzinfo is not self")
# Get transitions - if there are none, fixed offset
transitions = self.transitions(dt.year)
if transitions is None:
return dt + self.utcoffset(dt)
# Get the transition times in UTC
dston, dstoff = transitions
dston -= self._std_offset
dstoff -= self._std_offset
utc_transitions = (dston, dstoff)
dt_utc = dt.replace(tzinfo=None)
isdst = self._naive_isdst(dt_utc, utc_transitions)
if isdst:
dt_wall = dt + self._dst_offset
else:
dt_wall = dt + self._std_offset
_fold = int(not isdst and self.is_ambiguous(dt_wall))
return enfold(dt_wall, fold=_fold)
def is_ambiguous(self, dt):
"""
Whether or not the "wall time" of a given datetime is ambiguous in this
zone.
:param dt:
A :py:class:`datetime.datetime`, naive or time zone aware.
:return:
Returns ``True`` if ambiguous, ``False`` otherwise.
.. versionadded:: 2.6.0
"""
if not self.hasdst:
return False
start, end = self.transitions(dt.year)
dt = dt.replace(tzinfo=None)
return (end <= dt < end + self._dst_base_offset)
def _isdst(self, dt):
if not self.hasdst:
return False
elif dt is None:
return None
transitions = self.transitions(dt.year)
if transitions is None:
return False
dt = dt.replace(tzinfo=None)
isdst = self._naive_isdst(dt, transitions)
# Handle ambiguous dates
if not isdst and self.is_ambiguous(dt):
return not self._fold(dt)
else:
return isdst
def _naive_isdst(self, dt, transitions):
dston, dstoff = transitions
dt = dt.replace(tzinfo=None)
if dston < dstoff:
isdst = dston <= dt < dstoff
else:
isdst = not dstoff <= dt < dston
return isdst
@property
def _dst_base_offset(self):
return self._dst_offset - self._std_offset
__hash__ = None
def __ne__(self, other):
return not (self == other)
def __repr__(self):
return "%s(...)" % self.__class__.__name__
__reduce__ = object.__reduce__
@@ -1,49 +0,0 @@
from datetime import timedelta
class _TzSingleton(type):
def __init__(cls, *args, **kwargs):
cls.__instance = None
super(_TzSingleton, cls).__init__(*args, **kwargs)
def __call__(cls):
if cls.__instance is None:
cls.__instance = super(_TzSingleton, cls).__call__()
return cls.__instance
class _TzFactory(type):
def instance(cls, *args, **kwargs):
"""Alternate constructor that returns a fresh instance"""
return type.__call__(cls, *args, **kwargs)
class _TzOffsetFactory(_TzFactory):
def __init__(cls, *args, **kwargs):
cls.__instances = {}
def __call__(cls, name, offset):
if isinstance(offset, timedelta):
key = (name, offset.total_seconds())
else:
key = (name, offset)
instance = cls.__instances.get(key, None)
if instance is None:
instance = cls.__instances.setdefault(key,
cls.instance(name, offset))
return instance
class _TzStrFactory(_TzFactory):
def __init__(cls, *args, **kwargs):
cls.__instances = {}
def __call__(cls, s, posix_offset=False):
key = (s, posix_offset)
instance = cls.__instances.get(key, None)
if instance is None:
instance = cls.__instances.setdefault(key,
cls.instance(s, posix_offset))
return instance
File diff suppressed because it is too large Load Diff
@@ -1,331 +0,0 @@
# This code was originally contributed by Jeffrey Harris.
import datetime
import struct
from six.moves import winreg
from six import text_type
try:
import ctypes
from ctypes import wintypes
except ValueError:
# ValueError is raised on non-Windows systems for some horrible reason.
raise ImportError("Running tzwin on non-Windows system")
from ._common import tzrangebase
__all__ = ["tzwin", "tzwinlocal", "tzres"]
ONEWEEK = datetime.timedelta(7)
TZKEYNAMENT = r"SOFTWARE\Microsoft\Windows NT\CurrentVersion\Time Zones"
TZKEYNAME9X = r"SOFTWARE\Microsoft\Windows\CurrentVersion\Time Zones"
TZLOCALKEYNAME = r"SYSTEM\CurrentControlSet\Control\TimeZoneInformation"
def _settzkeyname():
handle = winreg.ConnectRegistry(None, winreg.HKEY_LOCAL_MACHINE)
try:
winreg.OpenKey(handle, TZKEYNAMENT).Close()
TZKEYNAME = TZKEYNAMENT
except WindowsError:
TZKEYNAME = TZKEYNAME9X
handle.Close()
return TZKEYNAME
TZKEYNAME = _settzkeyname()
class tzres(object):
"""
Class for accessing `tzres.dll`, which contains timezone name related
resources.
.. versionadded:: 2.5.0
"""
p_wchar = ctypes.POINTER(wintypes.WCHAR) # Pointer to a wide char
def __init__(self, tzres_loc='tzres.dll'):
# Load the user32 DLL so we can load strings from tzres
user32 = ctypes.WinDLL('user32')
# Specify the LoadStringW function
user32.LoadStringW.argtypes = (wintypes.HINSTANCE,
wintypes.UINT,
wintypes.LPWSTR,
ctypes.c_int)
self.LoadStringW = user32.LoadStringW
self._tzres = ctypes.WinDLL(tzres_loc)
self.tzres_loc = tzres_loc
def load_name(self, offset):
"""
Load a timezone name from a DLL offset (integer).
>>> from dateutil.tzwin import tzres
>>> tzr = tzres()
>>> print(tzr.load_name(112))
'Eastern Standard Time'
:param offset:
A positive integer value referring to a string from the tzres dll.
..note:
Offsets found in the registry are generally of the form
`@tzres.dll,-114`. The offset in this case if 114, not -114.
"""
resource = self.p_wchar()
lpBuffer = ctypes.cast(ctypes.byref(resource), wintypes.LPWSTR)
nchar = self.LoadStringW(self._tzres._handle, offset, lpBuffer, 0)
return resource[:nchar]
def name_from_string(self, tzname_str):
"""
Parse strings as returned from the Windows registry into the time zone
name as defined in the registry.
>>> from dateutil.tzwin import tzres
>>> tzr = tzres()
>>> print(tzr.name_from_string('@tzres.dll,-251'))
'Dateline Daylight Time'
>>> print(tzr.name_from_string('Eastern Standard Time'))
'Eastern Standard Time'
:param tzname_str:
A timezone name string as returned from a Windows registry key.
:return:
Returns the localized timezone string from tzres.dll if the string
is of the form `@tzres.dll,-offset`, else returns the input string.
"""
if not tzname_str.startswith('@'):
return tzname_str
name_splt = tzname_str.split(',-')
try:
offset = int(name_splt[1])
except:
raise ValueError("Malformed timezone string.")
return self.load_name(offset)
class tzwinbase(tzrangebase):
"""tzinfo class based on win32's timezones available in the registry."""
def __init__(self):
raise NotImplementedError('tzwinbase is an abstract base class')
def __eq__(self, other):
# Compare on all relevant dimensions, including name.
if not isinstance(other, tzwinbase):
return NotImplemented
return (self._std_offset == other._std_offset and
self._dst_offset == other._dst_offset and
self._stddayofweek == other._stddayofweek and
self._dstdayofweek == other._dstdayofweek and
self._stdweeknumber == other._stdweeknumber and
self._dstweeknumber == other._dstweeknumber and
self._stdhour == other._stdhour and
self._dsthour == other._dsthour and
self._stdminute == other._stdminute and
self._dstminute == other._dstminute and
self._std_abbr == other._std_abbr and
self._dst_abbr == other._dst_abbr)
@staticmethod
def list():
"""Return a list of all time zones known to the system."""
with winreg.ConnectRegistry(None, winreg.HKEY_LOCAL_MACHINE) as handle:
with winreg.OpenKey(handle, TZKEYNAME) as tzkey:
result = [winreg.EnumKey(tzkey, i)
for i in range(winreg.QueryInfoKey(tzkey)[0])]
return result
def display(self):
return self._display
def transitions(self, year):
"""
For a given year, get the DST on and off transition times, expressed
always on the standard time side. For zones with no transitions, this
function returns ``None``.
:param year:
The year whose transitions you would like to query.
:return:
Returns a :class:`tuple` of :class:`datetime.datetime` objects,
``(dston, dstoff)`` for zones with an annual DST transition, or
``None`` for fixed offset zones.
"""
if not self.hasdst:
return None
dston = picknthweekday(year, self._dstmonth, self._dstdayofweek,
self._dsthour, self._dstminute,
self._dstweeknumber)
dstoff = picknthweekday(year, self._stdmonth, self._stddayofweek,
self._stdhour, self._stdminute,
self._stdweeknumber)
# Ambiguous dates default to the STD side
dstoff -= self._dst_base_offset
return dston, dstoff
def _get_hasdst(self):
return self._dstmonth != 0
@property
def _dst_base_offset(self):
return self._dst_base_offset_
class tzwin(tzwinbase):
def __init__(self, name):
self._name = name
with winreg.ConnectRegistry(None, winreg.HKEY_LOCAL_MACHINE) as handle:
tzkeyname = text_type("{kn}\\{name}").format(kn=TZKEYNAME, name=name)
with winreg.OpenKey(handle, tzkeyname) as tzkey:
keydict = valuestodict(tzkey)
self._std_abbr = keydict["Std"]
self._dst_abbr = keydict["Dlt"]
self._display = keydict["Display"]
# See http://ww_winreg.jsiinc.com/SUBA/tip0300/rh0398.htm
tup = struct.unpack("=3l16h", keydict["TZI"])
stdoffset = -tup[0]-tup[1] # Bias + StandardBias * -1
dstoffset = stdoffset-tup[2] # + DaylightBias * -1
self._std_offset = datetime.timedelta(minutes=stdoffset)
self._dst_offset = datetime.timedelta(minutes=dstoffset)
# for the meaning see the win32 TIME_ZONE_INFORMATION structure docs
# http://msdn.microsoft.com/en-us/library/windows/desktop/ms725481(v=vs.85).aspx
(self._stdmonth,
self._stddayofweek, # Sunday = 0
self._stdweeknumber, # Last = 5
self._stdhour,
self._stdminute) = tup[4:9]
(self._dstmonth,
self._dstdayofweek, # Sunday = 0
self._dstweeknumber, # Last = 5
self._dsthour,
self._dstminute) = tup[12:17]
self._dst_base_offset_ = self._dst_offset - self._std_offset
self.hasdst = self._get_hasdst()
def __repr__(self):
return "tzwin(%s)" % repr(self._name)
def __reduce__(self):
return (self.__class__, (self._name,))
class tzwinlocal(tzwinbase):
def __init__(self):
with winreg.ConnectRegistry(None, winreg.HKEY_LOCAL_MACHINE) as handle:
with winreg.OpenKey(handle, TZLOCALKEYNAME) as tzlocalkey:
keydict = valuestodict(tzlocalkey)
self._std_abbr = keydict["StandardName"]
self._dst_abbr = keydict["DaylightName"]
try:
tzkeyname = text_type('{kn}\\{sn}').format(kn=TZKEYNAME,
sn=self._std_abbr)
with winreg.OpenKey(handle, tzkeyname) as tzkey:
_keydict = valuestodict(tzkey)
self._display = _keydict["Display"]
except OSError:
self._display = None
stdoffset = -keydict["Bias"]-keydict["StandardBias"]
dstoffset = stdoffset-keydict["DaylightBias"]
self._std_offset = datetime.timedelta(minutes=stdoffset)
self._dst_offset = datetime.timedelta(minutes=dstoffset)
# For reasons unclear, in this particular key, the day of week has been
# moved to the END of the SYSTEMTIME structure.
tup = struct.unpack("=8h", keydict["StandardStart"])
(self._stdmonth,
self._stdweeknumber, # Last = 5
self._stdhour,
self._stdminute) = tup[1:5]
self._stddayofweek = tup[7]
tup = struct.unpack("=8h", keydict["DaylightStart"])
(self._dstmonth,
self._dstweeknumber, # Last = 5
self._dsthour,
self._dstminute) = tup[1:5]
self._dstdayofweek = tup[7]
self._dst_base_offset_ = self._dst_offset - self._std_offset
self.hasdst = self._get_hasdst()
def __repr__(self):
return "tzwinlocal()"
def __str__(self):
# str will return the standard name, not the daylight name.
return "tzwinlocal(%s)" % repr(self._std_abbr)
def __reduce__(self):
return (self.__class__, ())
def picknthweekday(year, month, dayofweek, hour, minute, whichweek):
""" dayofweek == 0 means Sunday, whichweek 5 means last instance """
first = datetime.datetime(year, month, 1, hour, minute)
# This will work if dayofweek is ISO weekday (1-7) or Microsoft-style (0-6),
# Because 7 % 7 = 0
weekdayone = first.replace(day=((dayofweek - first.isoweekday()) % 7) + 1)
wd = weekdayone + ((whichweek - 1) * ONEWEEK)
if (wd.month != month):
wd -= ONEWEEK
return wd
def valuestodict(key):
"""Convert a registry key's values to a dictionary."""
dout = {}
size = winreg.QueryInfoKey(key)[1]
tz_res = None
for i in range(size):
key_name, value, dtype = winreg.EnumValue(key, i)
if dtype == winreg.REG_DWORD or dtype == winreg.REG_DWORD_LITTLE_ENDIAN:
# If it's a DWORD (32-bit integer), it's stored as unsigned - convert
# that to a proper signed integer
if value & (1 << 31):
value = value - (1 << 32)
elif dtype == winreg.REG_SZ:
# If it's a reference to the tzres DLL, load the actual string
if value.startswith('@tzres'):
tz_res = tz_res or tzres()
value = tz_res.name_from_string(value)
value = value.rstrip('\x00') # Remove trailing nulls
dout[key_name] = value
return dout
@@ -1,2 +0,0 @@
# tzwin has moved to dateutil.tz.win
from .tz.win import *
@@ -1,71 +0,0 @@
# -*- coding: utf-8 -*-
"""
This module offers general convenience and utility functions for dealing with
datetimes.
.. versionadded:: 2.7.0
"""
from __future__ import unicode_literals
from datetime import datetime, time
def today(tzinfo=None):
"""
Returns a :py:class:`datetime` representing the current day at midnight
:param tzinfo:
The time zone to attach (also used to determine the current day).
:return:
A :py:class:`datetime.datetime` object representing the current day
at midnight.
"""
dt = datetime.now(tzinfo)
return datetime.combine(dt.date(), time(0, tzinfo=tzinfo))
def default_tzinfo(dt, tzinfo):
"""
Sets the the ``tzinfo`` parameter on naive datetimes only
This is useful for example when you are provided a datetime that may have
either an implicit or explicit time zone, such as when parsing a time zone
string.
.. doctest::
>>> from dateutil.tz import tzoffset
>>> from dateutil.parser import parse
>>> from dateutil.utils import default_tzinfo
>>> dflt_tz = tzoffset("EST", -18000)
>>> print(default_tzinfo(parse('2014-01-01 12:30 UTC'), dflt_tz))
2014-01-01 12:30:00+00:00
>>> print(default_tzinfo(parse('2014-01-01 12:30'), dflt_tz))
2014-01-01 12:30:00-05:00
:param dt:
The datetime on which to replace the time zone
:param tzinfo:
The :py:class:`datetime.tzinfo` subclass instance to assign to
``dt`` if (and only if) it is naive.
:return:
Returns an aware :py:class:`datetime.datetime`.
"""
if dt.tzinfo is not None:
return dt
else:
return dt.replace(tzinfo=tzinfo)
def within_delta(dt1, dt2, delta):
"""
Useful for comparing two datetimes that may a negilible difference
to be considered equal.
"""
delta = abs(delta)
difference = dt1 - dt2
return -delta <= difference <= delta
@@ -1,167 +0,0 @@
# -*- coding: utf-8 -*-
import warnings
import json
from tarfile import TarFile
from pkgutil import get_data
from io import BytesIO
from dateutil.tz import tzfile as _tzfile
__all__ = ["get_zonefile_instance", "gettz", "gettz_db_metadata"]
ZONEFILENAME = "dateutil-zoneinfo.tar.gz"
METADATA_FN = 'METADATA'
class tzfile(_tzfile):
def __reduce__(self):
return (gettz, (self._filename,))
def getzoneinfofile_stream():
try:
return BytesIO(get_data(__name__, ZONEFILENAME))
except IOError as e: # TODO switch to FileNotFoundError?
warnings.warn("I/O error({0}): {1}".format(e.errno, e.strerror))
return None
class ZoneInfoFile(object):
def __init__(self, zonefile_stream=None):
if zonefile_stream is not None:
with TarFile.open(fileobj=zonefile_stream) as tf:
self.zones = {zf.name: tzfile(tf.extractfile(zf), filename=zf.name)
for zf in tf.getmembers()
if zf.isfile() and zf.name != METADATA_FN}
# deal with links: They'll point to their parent object. Less
# waste of memory
links = {zl.name: self.zones[zl.linkname]
for zl in tf.getmembers() if
zl.islnk() or zl.issym()}
self.zones.update(links)
try:
metadata_json = tf.extractfile(tf.getmember(METADATA_FN))
metadata_str = metadata_json.read().decode('UTF-8')
self.metadata = json.loads(metadata_str)
except KeyError:
# no metadata in tar file
self.metadata = None
else:
self.zones = {}
self.metadata = None
def get(self, name, default=None):
"""
Wrapper for :func:`ZoneInfoFile.zones.get`. This is a convenience method
for retrieving zones from the zone dictionary.
:param name:
The name of the zone to retrieve. (Generally IANA zone names)
:param default:
The value to return in the event of a missing key.
.. versionadded:: 2.6.0
"""
return self.zones.get(name, default)
# The current API has gettz as a module function, although in fact it taps into
# a stateful class. So as a workaround for now, without changing the API, we
# will create a new "global" class instance the first time a user requests a
# timezone. Ugly, but adheres to the api.
#
# TODO: Remove after deprecation period.
_CLASS_ZONE_INSTANCE = []
def get_zonefile_instance(new_instance=False):
"""
This is a convenience function which provides a :class:`ZoneInfoFile`
instance using the data provided by the ``dateutil`` package. By default, it
caches a single instance of the ZoneInfoFile object and returns that.
:param new_instance:
If ``True``, a new instance of :class:`ZoneInfoFile` is instantiated and
used as the cached instance for the next call. Otherwise, new instances
are created only as necessary.
:return:
Returns a :class:`ZoneInfoFile` object.
.. versionadded:: 2.6
"""
if new_instance:
zif = None
else:
zif = getattr(get_zonefile_instance, '_cached_instance', None)
if zif is None:
zif = ZoneInfoFile(getzoneinfofile_stream())
get_zonefile_instance._cached_instance = zif
return zif
def gettz(name):
"""
This retrieves a time zone from the local zoneinfo tarball that is packaged
with dateutil.
:param name:
An IANA-style time zone name, as found in the zoneinfo file.
:return:
Returns a :class:`dateutil.tz.tzfile` time zone object.
.. warning::
It is generally inadvisable to use this function, and it is only
provided for API compatibility with earlier versions. This is *not*
equivalent to ``dateutil.tz.gettz()``, which selects an appropriate
time zone based on the inputs, favoring system zoneinfo. This is ONLY
for accessing the dateutil-specific zoneinfo (which may be out of
date compared to the system zoneinfo).
.. deprecated:: 2.6
If you need to use a specific zoneinfofile over the system zoneinfo,
instantiate a :class:`dateutil.zoneinfo.ZoneInfoFile` object and call
:func:`dateutil.zoneinfo.ZoneInfoFile.get(name)` instead.
Use :func:`get_zonefile_instance` to retrieve an instance of the
dateutil-provided zoneinfo.
"""
warnings.warn("zoneinfo.gettz() will be removed in future versions, "
"to use the dateutil-provided zoneinfo files, instantiate a "
"ZoneInfoFile object and use ZoneInfoFile.zones.get() "
"instead. See the documentation for details.",
DeprecationWarning)
if len(_CLASS_ZONE_INSTANCE) == 0:
_CLASS_ZONE_INSTANCE.append(ZoneInfoFile(getzoneinfofile_stream()))
return _CLASS_ZONE_INSTANCE[0].zones.get(name)
def gettz_db_metadata():
""" Get the zonefile metadata
See `zonefile_metadata`_
:returns:
A dictionary with the database metadata
.. deprecated:: 2.6
See deprecation warning in :func:`zoneinfo.gettz`. To get metadata,
query the attribute ``zoneinfo.ZoneInfoFile.metadata``.
"""
warnings.warn("zoneinfo.gettz_db_metadata() will be removed in future "
"versions, to use the dateutil-provided zoneinfo files, "
"ZoneInfoFile object and query the 'metadata' attribute "
"instead. See the documentation for details.",
DeprecationWarning)
if len(_CLASS_ZONE_INSTANCE) == 0:
_CLASS_ZONE_INSTANCE.append(ZoneInfoFile(getzoneinfofile_stream()))
return _CLASS_ZONE_INSTANCE[0].metadata
@@ -1,53 +0,0 @@
import logging
import os
import tempfile
import shutil
import json
from subprocess import check_call
from tarfile import TarFile
from dateutil.zoneinfo import METADATA_FN, ZONEFILENAME
def rebuild(filename, tag=None, format="gz", zonegroups=[], metadata=None):
"""Rebuild the internal timezone info in dateutil/zoneinfo/zoneinfo*tar*
filename is the timezone tarball from ``ftp.iana.org/tz``.
"""
tmpdir = tempfile.mkdtemp()
zonedir = os.path.join(tmpdir, "zoneinfo")
moduledir = os.path.dirname(__file__)
try:
with TarFile.open(filename) as tf:
for name in zonegroups:
tf.extract(name, tmpdir)
filepaths = [os.path.join(tmpdir, n) for n in zonegroups]
try:
check_call(["zic", "-d", zonedir] + filepaths)
except OSError as e:
_print_on_nosuchfile(e)
raise
# write metadata file
with open(os.path.join(zonedir, METADATA_FN), 'w') as f:
json.dump(metadata, f, indent=4, sort_keys=True)
target = os.path.join(moduledir, ZONEFILENAME)
with TarFile.open(target, "w:%s" % format) as tf:
for entry in os.listdir(zonedir):
entrypath = os.path.join(zonedir, entry)
tf.add(entrypath, entry)
finally:
shutil.rmtree(tmpdir)
def _print_on_nosuchfile(e):
"""Print helpful troubleshooting message
e is an exception raised by subprocess.check_call()
"""
if e.errno == 2:
logging.error(
"Could not find zic. Perhaps you need to install "
"libc-bin or some other package that provides it, "
"or it's not in your PATH?")
@@ -1,5 +0,0 @@
"""Run the EasyInstall command"""
if __name__ == '__main__':
from setuptools.command.easy_install import main
main()
@@ -1,16 +0,0 @@
Welcome to Kiwi
===============
.. image:: https://travis-ci.org/nucleic/kiwi.svg?branch=master
:target: https://travis-ci.org/nucleic/kiwi
Kiwi is an efficient C++ implementation of the Cassowary constraint solving
algorithm. Kiwi is an implementation of the algorithm based on the seminal
Cassowary paper. It is *not* a refactoring of the original C++ solver. Kiwi
has been designed from the ground up to be lightweight and fast. Kiwi ranges
from 10x to 500x faster than the original Cassowary solver with typical use
cases gaining a 40x improvement. Memory savings are consistently > 5x.
In addition to the C++ solver, Kiwi ships with hand-rolled Python bindings.
@@ -1,28 +0,0 @@
Metadata-Version: 2.0
Name: kiwisolver
Version: 1.0.1
Summary: A fast implementation of the Cassowary constraint solver
Home-page: https://github.com/nucleic/kiwi
Author: The Nucleic Development Team
Author-email: sccolbert@gmail.com
License: UNKNOWN
Description-Content-Type: UNKNOWN
Platform: UNKNOWN
Requires-Dist: setuptools
Welcome to Kiwi
===============
.. image:: https://travis-ci.org/nucleic/kiwi.svg?branch=master
:target: https://travis-ci.org/nucleic/kiwi
Kiwi is an efficient C++ implementation of the Cassowary constraint solving
algorithm. Kiwi is an implementation of the algorithm based on the seminal
Cassowary paper. It is *not* a refactoring of the original C++ solver. Kiwi
has been designed from the ground up to be lightweight and fast. Kiwi ranges
from 10x to 500x faster than the original Cassowary solver with typical use
cases gaining a 40x improvement. Memory savings are consistently > 5x.
In addition to the C++ solver, Kiwi ships with hand-rolled Python bindings.
@@ -1,8 +0,0 @@
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kiwisolver-1.0.1.dist-info/metadata.json,sha256=H-tQ6em1_t3jGeivswhlBiHFJ7CBAI6G_RZAsT-QHCs,535
kiwisolver-1.0.1.dist-info/top_level.txt,sha256=xqwWj7oSHlpIjcw2QMJb8puTFPdjDBO78AZp9gjTh9c,11
kiwisolver.cpython-36m-x86_64-linux-gnu.so,sha256=4GkBV_S_pJ93VLqTL5uPrsTtcIaTx6RIvdblto_AmVg,3860760
@@ -1,5 +0,0 @@
Wheel-Version: 1.0
Generator: bdist_wheel (0.30.0)
Root-Is-Purelib: false
Tag: cp36-cp36m-manylinux1_x86_64
@@ -1 +0,0 @@
{"description_content_type": "UNKNOWN", "extensions": {"python.details": {"contacts": [{"email": "sccolbert@gmail.com", "name": "The Nucleic Development Team", "role": "author"}], "document_names": {"description": "DESCRIPTION.rst"}, "project_urls": {"Home": "https://github.com/nucleic/kiwi"}}}, "extras": [], "generator": "bdist_wheel (0.30.0)", "metadata_version": "2.0", "name": "kiwisolver", "run_requires": [{"requires": ["setuptools"]}], "summary": "A fast implementation of the Cassowary constraint solver", "version": "1.0.1"}
@@ -1,2 +0,0 @@
import sys, types, os;has_mfs = sys.version_info > (3, 5);p = os.path.join(sys._getframe(1).f_locals['sitedir'], *('mpl_toolkits',));importlib = has_mfs and __import__('importlib.util');has_mfs and __import__('importlib.machinery');m = has_mfs and sys.modules.setdefault('mpl_toolkits', importlib.util.module_from_spec(importlib.machinery.PathFinder.find_spec('mpl_toolkits', [os.path.dirname(p)])));m = m or sys.modules.setdefault('mpl_toolkits', types.ModuleType('mpl_toolkits'));mp = (m or []) and m.__dict__.setdefault('__path__',[]);(p not in mp) and mp.append(p)
import sys, types, os;has_mfs = sys.version_info > (3, 5);p = os.path.join(sys._getframe(1).f_locals['sitedir'], *('mpl_toolkits',));importlib = has_mfs and __import__('importlib.util');has_mfs and __import__('importlib.machinery');m = has_mfs and sys.modules.setdefault('mpl_toolkits', importlib.util.module_from_spec(importlib.machinery.PathFinder.find_spec('mpl_toolkits', [os.path.dirname(p)])));m = m or sys.modules.setdefault('mpl_toolkits', types.ModuleType('mpl_toolkits'));mp = (m or []) and m.__dict__.setdefault('__path__',[]);(p not in mp) and mp.append(p)
@@ -1,33 +0,0 @@
Metadata-Version: 2.1
Name: matplotlib
Version: 3.0.2
Summary: Python plotting package
Home-page: http://matplotlib.org
Author: John D. Hunter, Michael Droettboom
Author-email: matplotlib-users@python.org
License: BSD
Download-URL: http://matplotlib.org/users/installing.html
Platform: any
Classifier: Development Status :: 5 - Production/Stable
Classifier: Intended Audience :: Science/Research
Classifier: License :: OSI Approved :: Python Software Foundation License
Classifier: Programming Language :: Python
Classifier: Programming Language :: Python :: 3
Classifier: Programming Language :: Python :: 3.5
Classifier: Programming Language :: Python :: 3.6
Classifier: Programming Language :: Python :: 3.7
Classifier: Topic :: Scientific/Engineering :: Visualization
Requires-Python: >=3.5
Requires-Dist: numpy (>=1.10.0)
Requires-Dist: cycler (>=0.10)
Requires-Dist: kiwisolver (>=1.0.1)
Requires-Dist: pyparsing (!=2.0.4,!=2.1.2,!=2.1.6,>=2.0.1)
Requires-Dist: python-dateutil (>=2.1)
Matplotlib strives to produce publication quality 2D graphics
for interactive graphing, scientific publishing, user interface
development and web application servers targeting multiple user
interfaces and hardcopy output formats.
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this.frames[i].src = frames[i];
}
document.getElementById(this.slider_id).max = this.frames.length - 1;
this.set_frame(this.current_frame);
}
Animation.prototype.get_loop_state = function(){
var button_group = document[this.loop_select_id].state;
for (var i = 0; i < button_group.length; i++) {
var button = button_group[i];
if (button.checked) {
return button.value;
}
}
return undefined;
}
Animation.prototype.set_frame = function(frame){
this.current_frame = frame;
document.getElementById(this.img_id).src =
this.frames[this.current_frame].src;
document.getElementById(this.slider_id).value = this.current_frame;
}
Animation.prototype.next_frame = function()
{
this.set_frame(Math.min(this.frames.length - 1, this.current_frame + 1));
}
Animation.prototype.previous_frame = function()
{
this.set_frame(Math.max(0, this.current_frame - 1));
}
Animation.prototype.first_frame = function()
{
this.set_frame(0);
}
Animation.prototype.last_frame = function()
{
this.set_frame(this.frames.length - 1);
}
Animation.prototype.slower = function()
{
this.interval /= 0.7;
if(this.direction > 0){this.play_animation();}
else if(this.direction < 0){this.reverse_animation();}
}
Animation.prototype.faster = function()
{
this.interval *= 0.7;
if(this.direction > 0){this.play_animation();}
else if(this.direction < 0){this.reverse_animation();}
}
Animation.prototype.anim_step_forward = function()
{
this.current_frame += 1;
if(this.current_frame < this.frames.length){
this.set_frame(this.current_frame);
}else{
var loop_state = this.get_loop_state();
if(loop_state == "loop"){
this.first_frame();
}else if(loop_state == "reflect"){
this.last_frame();
this.reverse_animation();
}else{
this.pause_animation();
this.last_frame();
}
}
}
Animation.prototype.anim_step_reverse = function()
{
this.current_frame -= 1;
if(this.current_frame >= 0){
this.set_frame(this.current_frame);
}else{
var loop_state = this.get_loop_state();
if(loop_state == "loop"){
this.last_frame();
}else if(loop_state == "reflect"){
this.first_frame();
this.play_animation();
}else{
this.pause_animation();
this.first_frame();
}
}
}
Animation.prototype.pause_animation = function()
{
this.direction = 0;
if (this.timer){
clearInterval(this.timer);
this.timer = null;
}
}
Animation.prototype.play_animation = function()
{
this.pause_animation();
this.direction = 1;
var t = this;
if (!this.timer) this.timer = setInterval(function() {
t.anim_step_forward();
}, this.interval);
}
Animation.prototype.reverse_animation = function()
{
this.pause_animation();
this.direction = -1;
var t = this;
if (!this.timer) this.timer = setInterval(function() {
t.anim_step_reverse();
}, this.interval);
}
</script>
"""
# HTML template for HTMLWriter
DISPLAY_TEMPLATE = """
<div class="animation" align="center">
<img id="_anim_img{id}">
<br>
<input id="_anim_slider{id}" type="range" style="width:350px"
name="points" min="0" max="1" step="1" value="0"
onchange="anim{id}.set_frame(parseInt(this.value));"></input>
<br>
<button onclick="anim{id}.slower()"><i class="fa fa-minus"></i></button>
<button onclick="anim{id}.first_frame()"><i class="fa fa-fast-backward">
</i></button>
<button onclick="anim{id}.previous_frame()">
<i class="fa fa-step-backward"></i></button>
<button onclick="anim{id}.reverse_animation()">
<i class="fa fa-play fa-flip-horizontal"></i></button>
<button onclick="anim{id}.pause_animation()"><i class="fa fa-pause">
</i></button>
<button onclick="anim{id}.play_animation()"><i class="fa fa-play"></i>
</button>
<button onclick="anim{id}.next_frame()"><i class="fa fa-step-forward">
</i></button>
<button onclick="anim{id}.last_frame()"><i class="fa fa-fast-forward">
</i></button>
<button onclick="anim{id}.faster()"><i class="fa fa-plus"></i></button>
<form action="#n" name="_anim_loop_select{id}" class="anim_control">
<input type="radio" name="state"
value="once" {once_checked}> Once </input>
<input type="radio" name="state"
value="loop" {loop_checked}> Loop </input>
<input type="radio" name="state"
value="reflect" {reflect_checked}> Reflect </input>
</form>
</div>
<script language="javascript">
/* Instantiate the Animation class. */
/* The IDs given should match those used in the template above. */
(function() {{
var img_id = "_anim_img{id}";
var slider_id = "_anim_slider{id}";
var loop_select_id = "_anim_loop_select{id}";
var frames = new Array({Nframes});
{fill_frames}
/* set a timeout to make sure all the above elements are created before
the object is initialized. */
setTimeout(function() {{
anim{id} = new Animation(frames, img_id, slider_id, {interval},
loop_select_id);
}}, 0);
}})()
</script>
"""
INCLUDED_FRAMES = """
for (var i=0; i<{Nframes}; i++){{
frames[i] = "{frame_dir}/frame" + ("0000000" + i).slice(-7) +
".{frame_format}";
}}
"""
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@@ -1,729 +0,0 @@
"""
This module provides the routine to adjust subplot layouts so that there are
no overlapping axes or axes decorations. All axes decorations are dealt with
(labels, ticks, titles, ticklabels) and some dependent artists are also dealt
with (colorbar, suptitle, legend).
Layout is done via :meth:`~matplotlib.gridspec`, with one constraint per
gridspec, so it is possible to have overlapping axes if the gridspecs
overlap (i.e. using :meth:`~matplotlib.gridspec.GridSpecFromSubplotSpec`).
Axes placed using ``figure.subplots()`` or ``figure.add_subplots()`` will
participate in the layout. Axes manually placed via ``figure.add_axes()``
will not.
See Tutorial: :doc:`/tutorials/intermediate/constrainedlayout_guide`
"""
# Development Notes:
# What gets a layoutbox:
# - figure
# - gridspec
# - subplotspec
# EITHER:
# - axes + pos for the axes (i.e. the total area taken by axis and
# the actual "position" argument that needs to be sent to
# ax.set_position.)
# - The axes layout box will also encomapss the legend, and that is
# how legends get included (axes legeneds, not figure legends)
# - colorbars are sibblings of the axes if they are single-axes
# colorbars
# OR:
# - a gridspec can be inside a subplotspec.
# - subplotspec
# EITHER:
# - axes...
# OR:
# - gridspec... with arbitrary nesting...
# - colorbars are siblings of the subplotspecs if they are multi-axes
# colorbars.
# - suptitle:
# - right now suptitles are just stacked atop everything else in figure.
# Could imagine suptitles being gridspec suptitles, but not implimented
#
# Todo: AnchoredOffsetbox connected to gridspecs or axes. This would
# be more general way to add extra-axes annotations.
import numpy as np
import logging
import warnings
from matplotlib.legend import Legend
import matplotlib.transforms as transforms
import matplotlib._layoutbox as layoutbox
_log = logging.getLogger(__name__)
def _in_same_column(colnum0min, colnum0max, colnumCmin, colnumCmax):
return (colnumCmin <= colnum0min <= colnumCmax
or colnumCmin <= colnum0max <= colnumCmax)
def _in_same_row(rownum0min, rownum0max, rownumCmin, rownumCmax):
return (rownumCmin <= rownum0min <= rownumCmax
or rownumCmin <= rownum0max <= rownumCmax)
def _axes_all_finite_sized(fig):
"""
helper function to make sure all axes in the
figure have a finite width and height. If not, return False
"""
for ax in fig.axes:
if ax._layoutbox is not None:
newpos = ax._poslayoutbox.get_rect()
if newpos[2] <= 0 or newpos[3] <= 0:
return False
return True
######################################################
def do_constrained_layout(fig, renderer, h_pad, w_pad,
hspace=None, wspace=None):
"""
Do the constrained_layout. Called at draw time in
``figure.constrained_layout()``
Parameters
----------
fig: Figure
is the ``figure`` instance to do the layout in.
renderer: Renderer
the renderer to use.
h_pad, w_pad : float
are in figure-normalized units, and are a padding around the axes
elements.
hspace, wspace : float
are in fractions of the subplot sizes.
"""
''' Steps:
1. get a list of unique gridspecs in this figure. Each gridspec will be
constrained separately.
2. Check for gaps in the gridspecs. i.e. if not every axes slot in the
gridspec has been filled. If empty, add a ghost axis that is made so
that it cannot be seen (though visible=True). This is needed to make
a blank spot in the layout.
3. Compare the tight_bbox of each axes to its `position`, and assume that
the difference is the space needed by the elements around the edge of
the axes (decorations) like the title, ticklabels, x-labels, etc. This
can include legends who overspill the axes boundaries.
4. Constrain gridspec elements to line up:
a) if colnum0 neq colnumC, the two subplotspecs are stacked next to
each other, with the appropriate order.
b) if colnum0 == columnC line up the left or right side of the
_poslayoutbox (depending if it is the min or max num that is equal).
c) do the same for rows...
5. The above doesn't constrain relative sizes of the _poslayoutboxes at
all, and indeed zero-size is a solution that the solver often finds more
convenient than expanding the sizes. Right now the solution is to compare
subplotspec sizes (i.e. drowsC and drows0) and constrain the larger
_poslayoutbox to be larger than the ratio of the sizes. i.e. if drows0 >
drowsC, then ax._poslayoutbox > axc._poslayoutbox * drowsC / drows0. This
works fine *if* the decorations are similar between the axes. If the
larger subplotspec has much larger axes decorations, then the constraint
above is incorrect.
We need the greater than in the above, in general, rather than an equals
sign. Consider the case of the left column having 2 rows, and the right
column having 1 row. We want the top and bottom of the _poslayoutboxes to
line up. So that means if there are decorations on the left column axes
they will be smaller than half as large as the right hand axis.
This can break down if the decoration size for the right hand axis (the
margins) is very large. There must be a math way to check for this case.
'''
invTransFig = fig.transFigure.inverted().transform_bbox
# list of unique gridspecs that contain child axes:
gss = set()
for ax in fig.axes:
if hasattr(ax, 'get_subplotspec'):
gs = ax.get_subplotspec().get_gridspec()
if gs._layoutbox is not None:
gss.add(gs)
if len(gss) == 0:
warnings.warn('There are no gridspecs with layoutboxes. '
'Possibly did not call parent GridSpec with the figure= '
'keyword')
if fig._layoutbox.constrained_layout_called < 1:
for gs in gss:
# fill in any empty gridspec slots w/ ghost axes...
_make_ghost_gridspec_slots(fig, gs)
for nnn in range(2):
# do the algrithm twice. This has to be done because decorators
# change size after the first re-position (i.e. x/yticklabels get
# larger/smaller). This second reposition tends to be much milder,
# so doing twice makes things work OK.
for ax in fig.axes:
_log.debug(ax._layoutbox)
if ax._layoutbox is not None:
# make margins for each layout box based on the size of
# the decorators.
_make_layout_margins(ax, renderer, h_pad, w_pad)
# do layout for suptitle.
if fig._suptitle is not None and fig._suptitle._layoutbox is not None:
sup = fig._suptitle
bbox = invTransFig(sup.get_window_extent(renderer=renderer))
height = bbox.y1 - bbox.y0
sup._layoutbox.edit_height(height+h_pad)
# OK, the above lines up ax._poslayoutbox with ax._layoutbox
# now we need to
# 1) arrange the subplotspecs. We do it at this level because
# the subplotspecs are meant to contain other dependent axes
# like colorbars or legends.
# 2) line up the right and left side of the ax._poslayoutbox
# that have the same subplotspec maxes.
if fig._layoutbox.constrained_layout_called < 1:
# arrange the subplotspecs... This is all done relative to each
# other. Some subplotspecs conatain axes, and others contain
# gridspecs the ones that contain gridspecs are a set proportion
# of their parent gridspec. The ones that contain axes are
# not so constrained.
figlb = fig._layoutbox
for child in figlb.children:
if child._is_gridspec_layoutbox():
# This routine makes all the subplot spec containers
# have the correct arrangement. It just stacks the
# subplot layoutboxes in the correct order...
_arrange_subplotspecs(child, hspace=hspace, wspace=wspace)
for gs in gss:
_align_spines(fig, gs)
fig._layoutbox.constrained_layout_called += 1
fig._layoutbox.update_variables()
# check if any axes collapsed to zero. If not, don't change positions:
if _axes_all_finite_sized(fig):
# Now set the position of the axes...
for ax in fig.axes:
if ax._layoutbox is not None:
newpos = ax._poslayoutbox.get_rect()
# Now set the new position.
# ax.set_position will zero out the layout for
# this axis, allowing users to hard-code the position,
# so this does the same w/o zeroing layout.
ax._set_position(newpos, which='original')
else:
warnings.warn('constrained_layout not applied. At least '
'one axes collapsed to zero width or height.')
def _make_ghost_gridspec_slots(fig, gs):
"""
Check for unoccupied gridspec slots and make ghost axes for these
slots... Do for each gs separately. This is a pretty big kludge
but shoudn't have too much ill effect. The worst is that
someone querrying the figure will wonder why there are more
axes than they thought.
"""
nrows, ncols = gs.get_geometry()
hassubplotspec = np.zeros(nrows * ncols, dtype=bool)
axs = []
for ax in fig.axes:
if (hasattr(ax, 'get_subplotspec')
and ax._layoutbox is not None
and ax.get_subplotspec().get_gridspec() == gs):
axs += [ax]
for ax in axs:
ss0 = ax.get_subplotspec()
if ss0.num2 is None:
ss0.num2 = ss0.num1
hassubplotspec[ss0.num1:(ss0.num2 + 1)] = True
for nn, hss in enumerate(hassubplotspec):
if not hss:
# this gridspec slot doesn't have an axis so we
# make a "ghost".
ax = fig.add_subplot(gs[nn])
ax.set_frame_on(False)
ax.set_xticks([])
ax.set_yticks([])
ax.set_facecolor((1, 0, 0, 0))
def _make_layout_margins(ax, renderer, h_pad, w_pad):
"""
For each axes, make a margin between the *pos* layoutbox and the
*axes* layoutbox be a minimum size that can accommodate the
decorations on the axis.
"""
fig = ax.figure
invTransFig = fig.transFigure.inverted().transform_bbox
pos = ax.get_position(original=True)
tightbbox = ax.get_tightbbox(renderer=renderer)
bbox = invTransFig(tightbbox)
# use stored h_pad if it exists
h_padt = ax._poslayoutbox.h_pad
if h_padt is None:
h_padt = h_pad
w_padt = ax._poslayoutbox.w_pad
if w_padt is None:
w_padt = w_pad
ax._poslayoutbox.edit_left_margin_min(-bbox.x0 +
pos.x0 + w_padt)
ax._poslayoutbox.edit_right_margin_min(bbox.x1 -
pos.x1 + w_padt)
ax._poslayoutbox.edit_bottom_margin_min(
-bbox.y0 + pos.y0 + h_padt)
ax._poslayoutbox.edit_top_margin_min(bbox.y1-pos.y1+h_padt)
_log.debug('left %f', (-bbox.x0 + pos.x0 + w_pad))
_log.debug('right %f', (bbox.x1 - pos.x1 + w_pad))
_log.debug('bottom %f', (-bbox.y0 + pos.y0 + h_padt))
# Sometimes its possible for the solver to collapse
# rather than expand axes, so they all have zero height
# or width. This stops that... It *should* have been
# taken into account w/ pref_width...
if fig._layoutbox.constrained_layout_called < 1:
ax._poslayoutbox.constrain_height_min(20, strength='weak')
ax._poslayoutbox.constrain_width_min(20, strength='weak')
ax._layoutbox.constrain_height_min(20, strength='weak')
ax._layoutbox.constrain_width_min(20, strength='weak')
ax._poslayoutbox.constrain_top_margin(0, strength='weak')
ax._poslayoutbox.constrain_bottom_margin(0,
strength='weak')
ax._poslayoutbox.constrain_right_margin(0, strength='weak')
ax._poslayoutbox.constrain_left_margin(0, strength='weak')
def _align_spines(fig, gs):
"""
- Align right/left and bottom/top spines of appropriate subplots.
- Compare size of subplotspec including height and width ratios
and make sure that the axes spines are at least as large
as they should be.
"""
# for each gridspec...
nrows, ncols = gs.get_geometry()
width_ratios = gs.get_width_ratios()
height_ratios = gs.get_height_ratios()
if width_ratios is None:
width_ratios = np.ones(ncols)
if height_ratios is None:
height_ratios = np.ones(nrows)
# get axes in this gridspec....
axs = []
for ax in fig.axes:
if (hasattr(ax, 'get_subplotspec')
and ax._layoutbox is not None):
if ax.get_subplotspec().get_gridspec() == gs:
axs += [ax]
rownummin = np.zeros(len(axs), dtype=np.int8)
rownummax = np.zeros(len(axs), dtype=np.int8)
colnummin = np.zeros(len(axs), dtype=np.int8)
colnummax = np.zeros(len(axs), dtype=np.int8)
width = np.zeros(len(axs))
height = np.zeros(len(axs))
for n, ax in enumerate(axs):
ss0 = ax.get_subplotspec()
if ss0.num2 is None:
ss0.num2 = ss0.num1
rownummin[n], colnummin[n] = divmod(ss0.num1, ncols)
rownummax[n], colnummax[n] = divmod(ss0.num2, ncols)
width[n] = np.sum(
width_ratios[colnummin[n]:(colnummax[n] + 1)])
height[n] = np.sum(
height_ratios[rownummin[n]:(rownummax[n] + 1)])
for nn, ax in enumerate(axs[:-1]):
ss0 = ax.get_subplotspec()
# now compare ax to all the axs:
#
# If the subplotspecs have the same colnumXmax, then line
# up their right sides. If they have the same min, then
# line up their left sides (and vertical equivalents).
rownum0min, colnum0min = rownummin[nn], colnummin[nn]
rownum0max, colnum0max = rownummax[nn], colnummax[nn]
width0, height0 = width[nn], height[nn]
alignleft = False
alignright = False
alignbot = False
aligntop = False
alignheight = False
alignwidth = False
for mm in range(nn+1, len(axs)):
axc = axs[mm]
rownumCmin, colnumCmin = rownummin[mm], colnummin[mm]
rownumCmax, colnumCmax = rownummax[mm], colnummax[mm]
widthC, heightC = width[mm], height[mm]
# Horizontally align axes spines if they have the
# same min or max:
if not alignleft and colnum0min == colnumCmin:
# we want the _poslayoutboxes to line up on left
# side of the axes spines...
layoutbox.align([ax._poslayoutbox,
axc._poslayoutbox],
'left')
alignleft = True
if not alignright and colnum0max == colnumCmax:
# line up right sides of _poslayoutbox
layoutbox.align([ax._poslayoutbox,
axc._poslayoutbox],
'right')
alignright = True
# Vertically align axes spines if they have the
# same min or max:
if not aligntop and rownum0min == rownumCmin:
# line up top of _poslayoutbox
_log.debug('rownum0min == rownumCmin')
layoutbox.align([ax._poslayoutbox, axc._poslayoutbox],
'top')
aligntop = True
if not alignbot and rownum0max == rownumCmax:
# line up bottom of _poslayoutbox
_log.debug('rownum0max == rownumCmax')
layoutbox.align([ax._poslayoutbox, axc._poslayoutbox],
'bottom')
alignbot = True
###########
# Now we make the widths and heights of position boxes
# similar. (i.e the spine locations)
# This allows vertically stacked subplots to have
# different sizes if they occupy different amounts
# of the gridspec: i.e.
# gs = gridspec.GridSpec(3,1)
# ax1 = gs[0,:]
# ax2 = gs[1:,:]
# then drows0 = 1, and drowsC = 2, and ax2
# should be at least twice as large as ax1.
# But it can be more than twice as large because
# it needs less room for the labeling.
#
# For height, this only needs to be done if the
# subplots share a column. For width if they
# share a row.
drowsC = (rownumCmax - rownumCmin + 1)
drows0 = (rownum0max - rownum0min + 1)
dcolsC = (colnumCmax - colnumCmin + 1)
dcols0 = (colnum0max - colnum0min + 1)
if not alignheight and drows0 == drowsC:
ax._poslayoutbox.constrain_height(
axc._poslayoutbox.height * height0 / heightC)
alignheight = True
elif _in_same_column(colnum0min, colnum0max,
colnumCmin, colnumCmax):
if height0 > heightC:
ax._poslayoutbox.constrain_height_min(
axc._poslayoutbox.height * height0 / heightC)
# these constraints stop the smaller axes from
# being allowed to go to zero height...
axc._poslayoutbox.constrain_height_min(
ax._poslayoutbox.height * heightC /
(height0*1.8))
elif height0 < heightC:
axc._poslayoutbox.constrain_height_min(
ax._poslayoutbox.height * heightC / height0)
ax._poslayoutbox.constrain_height_min(
ax._poslayoutbox.height * height0 /
(heightC*1.8))
# widths...
if not alignwidth and dcols0 == dcolsC:
ax._poslayoutbox.constrain_width(
axc._poslayoutbox.width * width0 / widthC)
alignwidth = True
elif _in_same_row(rownum0min, rownum0max,
rownumCmin, rownumCmax):
if width0 > widthC:
ax._poslayoutbox.constrain_width_min(
axc._poslayoutbox.width * width0 / widthC)
axc._poslayoutbox.constrain_width_min(
ax._poslayoutbox.width * widthC /
(width0*1.8))
elif width0 < widthC:
axc._poslayoutbox.constrain_width_min(
ax._poslayoutbox.width * widthC / width0)
ax._poslayoutbox.constrain_width_min(
axc._poslayoutbox.width * width0 /
(widthC*1.8))
def _arrange_subplotspecs(gs, hspace=0, wspace=0):
"""
arrange the subplotspec children of this gridspec, and then recursively
do the same of any gridspec children of those gridspecs...
"""
sschildren = []
for child in gs.children:
if child._is_subplotspec_layoutbox():
for child2 in child.children:
# check for gridspec children...
if child2._is_gridspec_layoutbox():
_arrange_subplotspecs(child2, hspace=hspace, wspace=wspace)
sschildren += [child]
# now arrange the subplots...
for child0 in sschildren:
ss0 = child0.artist
nrows, ncols = ss0.get_gridspec().get_geometry()
if ss0.num2 is None:
ss0.num2 = ss0.num1
rowNum0min, colNum0min = divmod(ss0.num1, ncols)
rowNum0max, colNum0max = divmod(ss0.num2, ncols)
sschildren = sschildren[1:]
for childc in sschildren:
ssc = childc.artist
rowNumCmin, colNumCmin = divmod(ssc.num1, ncols)
if ssc.num2 is None:
ssc.num2 = ssc.num1
rowNumCmax, colNumCmax = divmod(ssc.num2, ncols)
# OK, this tells us the relative layout of ax
# with axc
thepad = wspace / ncols
if colNum0max < colNumCmin:
layoutbox.hstack([ss0._layoutbox, ssc._layoutbox],
padding=thepad)
if colNumCmax < colNum0min:
layoutbox.hstack([ssc._layoutbox, ss0._layoutbox],
padding=thepad)
####
# vertical alignment
thepad = hspace / nrows
if rowNum0max < rowNumCmin:
layoutbox.vstack([ss0._layoutbox,
ssc._layoutbox],
padding=thepad)
if rowNumCmax < rowNum0min:
layoutbox.vstack([ssc._layoutbox,
ss0._layoutbox],
padding=thepad)
def layoutcolorbarsingle(ax, cax, shrink, aspect, location, pad=0.05):
"""
Do the layout for a colorbar, to not oeverly pollute colorbar.py
`pad` is in fraction of the original axis size.
"""
axlb = ax._layoutbox
axpos = ax._poslayoutbox
axsslb = ax.get_subplotspec()._layoutbox
lb = layoutbox.LayoutBox(
parent=axsslb,
name=axsslb.name + '.cbar',
artist=cax)
if location in ('left', 'right'):
lbpos = layoutbox.LayoutBox(
parent=lb,
name=lb.name + '.pos',
tightwidth=False,
pos=True,
subplot=False,
artist=cax)
if location == 'right':
# arrange to right of parent axis
layoutbox.hstack([axlb, lb], padding=pad * axlb.width,
strength='strong')
else:
layoutbox.hstack([lb, axlb], padding=pad * axlb.width)
# constrain the height and center...
layoutbox.match_heights([axpos, lbpos], [1, shrink])
layoutbox.align([axpos, lbpos], 'v_center')
# set the width of the pos box
lbpos.constrain_width(shrink * axpos.height * (1/aspect),
strength='strong')
elif location in ('bottom', 'top'):
lbpos = layoutbox.LayoutBox(
parent=lb,
name=lb.name + '.pos',
tightheight=True,
pos=True,
subplot=False,
artist=cax)
if location == 'bottom':
layoutbox.vstack([axlb, lb], padding=pad * axlb.height)
else:
layoutbox.vstack([lb, axlb], padding=pad * axlb.height)
# constrain the height and center...
layoutbox.match_widths([axpos, lbpos],
[1, shrink], strength='strong')
layoutbox.align([axpos, lbpos], 'h_center')
# set the height of the pos box
lbpos.constrain_height(axpos.width * aspect * shrink,
strength='medium')
return lb, lbpos
def _getmaxminrowcolumn(axs):
# helper to get the min/max rows and columns of a list of axes.
maxrow = -100000
minrow = 1000000
maxax = None
minax = None
maxcol = -100000
mincol = 1000000
maxax_col = None
minax_col = None
for ax in axs:
subspec = ax.get_subplotspec()
nrows, ncols, row_start, row_stop, col_start, col_stop = \
subspec.get_rows_columns()
if row_stop > maxrow:
maxrow = row_stop
maxax = ax
if row_start < minrow:
minrow = row_start
minax = ax
if col_stop > maxcol:
maxcol = col_stop
maxax_col = ax
if col_start < mincol:
mincol = col_start
minax_col = ax
return (minrow, maxrow, minax, maxax, mincol, maxcol, minax_col, maxax_col)
def layoutcolorbargridspec(parents, cax, shrink, aspect, location, pad=0.05):
"""
Do the layout for a colorbar, to not oeverly pollute colorbar.py
`pad` is in fraction of the original axis size.
"""
gs = parents[0].get_subplotspec().get_gridspec()
# parent layout box....
gslb = gs._layoutbox
lb = layoutbox.LayoutBox(parent=gslb.parent,
name=gslb.parent.name + '.cbar',
artist=cax)
# figure out the row and column extent of the parents.
(minrow, maxrow, minax_row, maxax_row,
mincol, maxcol, minax_col, maxax_col) = _getmaxminrowcolumn(parents)
if location in ('left', 'right'):
lbpos = layoutbox.LayoutBox(
parent=lb,
name=lb.name + '.pos',
tightwidth=False,
pos=True,
subplot=False,
artist=cax)
for ax in parents:
if location == 'right':
order = [ax._layoutbox, lb]
else:
order = [lb, ax._layoutbox]
layoutbox.hstack(order, padding=pad * gslb.width,
strength='strong')
# constrain the height and center...
# This isn't quite right. We'd like the colorbar
# pos to line up w/ the axes poss, not the size of the
# gs.
# Horizontal Layout: need to check all the axes in this gridspec
for ch in gslb.children:
subspec = ch.artist
nrows, ncols, row_start, row_stop, col_start, col_stop = \
subspec.get_rows_columns()
if location == 'right':
if col_stop <= maxcol:
order = [subspec._layoutbox, lb]
# arrange to right of the parents
if col_start > maxcol:
order = [lb, subspec._layoutbox]
elif location == 'left':
if col_start >= mincol:
order = [lb, subspec._layoutbox]
if col_stop < mincol:
order = [subspec._layoutbox, lb]
layoutbox.hstack(order, padding=pad * gslb.width,
strength='strong')
# Vertical layout:
maxposlb = minax_row._poslayoutbox
minposlb = maxax_row._poslayoutbox
# now we want the height of the colorbar pos to be
# set by the top and bottom of the min/max axes...
# bottom top
# b t
# h = (top-bottom)*shrink
# b = bottom + (top-bottom - h) / 2.
lbpos.constrain_height(
(maxposlb.top - minposlb.bottom) *
shrink, strength='strong')
lbpos.constrain_bottom(
(maxposlb.top - minposlb.bottom) *
(1 - shrink)/2 + minposlb.bottom,
strength='strong')
# set the width of the pos box
lbpos.constrain_width(lbpos.height * (shrink / aspect),
strength='strong')
elif location in ('bottom', 'top'):
lbpos = layoutbox.LayoutBox(
parent=lb,
name=lb.name + '.pos',
tightheight=True,
pos=True,
subplot=False,
artist=cax)
for ax in parents:
if location == 'bottom':
order = [ax._layoutbox, lb]
else:
order = [lb, ax._layoutbox]
layoutbox.vstack(order, padding=pad * gslb.width,
strength='strong')
# Vertical Layout: need to check all the axes in this gridspec
for ch in gslb.children:
subspec = ch.artist
nrows, ncols, row_start, row_stop, col_start, col_stop = \
subspec.get_rows_columns()
if location == 'bottom':
if row_stop <= minrow:
order = [subspec._layoutbox, lb]
if row_start > maxrow:
order = [lb, subspec._layoutbox]
elif location == 'top':
if row_stop < minrow:
order = [subspec._layoutbox, lb]
if row_start >= maxrow:
order = [lb, subspec._layoutbox]
layoutbox.vstack(order, padding=pad * gslb.width,
strength='strong')
# Do horizontal layout...
maxposlb = maxax_col._poslayoutbox
minposlb = minax_col._poslayoutbox
lbpos.constrain_width((maxposlb.right - minposlb.left) *
shrink)
lbpos.constrain_left(
(maxposlb.right - minposlb.left) *
(1-shrink)/2 + minposlb.left)
# set the height of the pos box
lbpos.constrain_height(lbpos.width * shrink * aspect,
strength='medium')
return lb, lbpos
@@ -1,735 +0,0 @@
"""
Conventions:
"constrain_x" means to constrain the variable with either
another kiwisolver variable, or a float. i.e. `constrain_width(0.2)`
will set a constraint that the width has to be 0.2 and this constraint is
permanent - i.e. it will not be removed if it becomes obsolete.
"edit_x" means to set x to a value (just a float), and that this value can
change. So `edit_width(0.2)` will set width to be 0.2, but `edit_width(0.3)`
will allow it to change to 0.3 later. Note that these values are still just
"suggestions" in `kiwisolver` parlance, and could be over-ridden by
other constrains.
"""
import itertools
import kiwisolver as kiwi
import logging
import numpy as np
import warnings
import matplotlib
_log = logging.getLogger(__name__)
# renderers can be complicated
def get_renderer(fig):
if fig._cachedRenderer:
renderer = fig._cachedRenderer
else:
canvas = fig.canvas
if canvas and hasattr(canvas, "get_renderer"):
renderer = canvas.get_renderer()
else:
# not sure if this can happen
# seems to with PDF...
_log.info("constrained_layout : falling back to Agg renderer")
from matplotlib.backends.backend_agg import FigureCanvasAgg
canvas = FigureCanvasAgg(fig)
renderer = canvas.get_renderer()
return renderer
class LayoutBox(object):
"""
Basic rectangle representation using kiwi solver variables
"""
def __init__(self, parent=None, name='', tightwidth=False,
tightheight=False, artist=None,
lower_left=(0, 0), upper_right=(1, 1), pos=False,
subplot=False, h_pad=None, w_pad=None):
Variable = kiwi.Variable
self.parent = parent
self.name = name
sn = self.name + '_'
if parent is None:
self.solver = kiwi.Solver()
self.constrained_layout_called = 0
else:
self.solver = parent.solver
self.constrained_layout_called = None
# parent wants to know about this child!
parent.add_child(self)
# keep track of artist associated w/ this layout. Can be none
self.artist = artist
# keep track if this box is supposed to be a pos that is constrained
# by the parent.
self.pos = pos
# keep track of whether we need to match this subplot up with others.
self.subplot = subplot
# we need the str below for Py 2 which complains the string is unicode
self.top = Variable(str(sn + 'top'))
self.bottom = Variable(str(sn + 'bottom'))
self.left = Variable(str(sn + 'left'))
self.right = Variable(str(sn + 'right'))
self.width = Variable(str(sn + 'width'))
self.height = Variable(str(sn + 'height'))
self.h_center = Variable(str(sn + 'h_center'))
self.v_center = Variable(str(sn + 'v_center'))
self.min_width = Variable(str(sn + 'min_width'))
self.min_height = Variable(str(sn + 'min_height'))
self.pref_width = Variable(str(sn + 'pref_width'))
self.pref_height = Variable(str(sn + 'pref_height'))
# margis are only used for axes-position layout boxes. maybe should
# be a separate subclass:
self.left_margin = Variable(str(sn + 'left_margin'))
self.right_margin = Variable(str(sn + 'right_margin'))
self.bottom_margin = Variable(str(sn + 'bottom_margin'))
self.top_margin = Variable(str(sn + 'top_margin'))
# mins
self.left_margin_min = Variable(str(sn + 'left_margin_min'))
self.right_margin_min = Variable(str(sn + 'right_margin_min'))
self.bottom_margin_min = Variable(str(sn + 'bottom_margin_min'))
self.top_margin_min = Variable(str(sn + 'top_margin_min'))
right, top = upper_right
left, bottom = lower_left
self.tightheight = tightheight
self.tightwidth = tightwidth
self.add_constraints()
self.children = []
self.subplotspec = None
if self.pos:
self.constrain_margins()
self.h_pad = h_pad
self.w_pad = w_pad
def constrain_margins(self):
"""
Only do this for pos. This sets a variable distance
margin between the position of the axes and the outer edge of
the axes.
Margins are variable because they change with the fogure size.
Margin minimums are set to make room for axes decorations. However,
the margins can be larger if we are mathicng the position size to
otehr axes.
"""
sol = self.solver
# left
if not sol.hasEditVariable(self.left_margin_min):
sol.addEditVariable(self.left_margin_min, 'strong')
sol.suggestValue(self.left_margin_min, 0.0001)
c = (self.left_margin == self.left - self.parent.left)
self.solver.addConstraint(c | 'required')
c = (self.left_margin >= self.left_margin_min)
self.solver.addConstraint(c | 'strong')
# right
if not sol.hasEditVariable(self.right_margin_min):
sol.addEditVariable(self.right_margin_min, 'strong')
sol.suggestValue(self.right_margin_min, 0.0001)
c = (self.right_margin == self.parent.right - self.right)
self.solver.addConstraint(c | 'required')
c = (self.right_margin >= self.right_margin_min)
self.solver.addConstraint(c | 'required')
# bottom
if not sol.hasEditVariable(self.bottom_margin_min):
sol.addEditVariable(self.bottom_margin_min, 'strong')
sol.suggestValue(self.bottom_margin_min, 0.0001)
c = (self.bottom_margin == self.bottom - self.parent.bottom)
self.solver.addConstraint(c | 'required')
c = (self.bottom_margin >= self.bottom_margin_min)
self.solver.addConstraint(c | 'required')
# top
if not sol.hasEditVariable(self.top_margin_min):
sol.addEditVariable(self.top_margin_min, 'strong')
sol.suggestValue(self.top_margin_min, 0.0001)
c = (self.top_margin == self.parent.top - self.top)
self.solver.addConstraint(c | 'required')
c = (self.top_margin >= self.top_margin_min)
self.solver.addConstraint(c | 'required')
def add_child(self, child):
self.children += [child]
def remove_child(self, child):
try:
self.children.remove(child)
except ValueError:
_log.info("Tried to remove child that doesn't belong to parent")
def add_constraints(self):
sol = self.solver
# never let width and height go negative.
for i in [self.min_width, self.min_height]:
sol.addEditVariable(i, 1e9)
sol.suggestValue(i, 0.0)
# define relation ships between things thing width and right and left
self.hard_constraints()
# self.soft_constraints()
if self.parent:
self.parent_constrain()
# sol.updateVariables()
def parent_constrain(self):
parent = self.parent
hc = [self.left >= parent.left,
self.bottom >= parent.bottom,
self.top <= parent.top,
self.right <= parent.right]
for c in hc:
self.solver.addConstraint(c | 'required')
def hard_constraints(self):
hc = [self.width == self.right - self.left,
self.height == self.top - self.bottom,
self.h_center == (self.left + self.right) * 0.5,
self.v_center == (self.top + self.bottom) * 0.5,
self.width >= self.min_width,
self.height >= self.min_height]
for c in hc:
self.solver.addConstraint(c | 'required')
def soft_constraints(self):
sol = self.solver
if self.tightwidth:
suggest = 0.
else:
suggest = 20.
c = (self.pref_width == suggest)
for i in c:
sol.addConstraint(i | 'required')
if self.tightheight:
suggest = 0.
else:
suggest = 20.
c = (self.pref_height == suggest)
for i in c:
sol.addConstraint(i | 'required')
c = [(self.width >= suggest),
(self.height >= suggest)]
for i in c:
sol.addConstraint(i | 150000)
def set_parent(self, parent):
''' replace the parent of this with the new parent
'''
self.parent = parent
self.parent_constrain()
def constrain_geometry(self, left, bottom, right, top, strength='strong'):
hc = [self.left == left,
self.right == right,
self.bottom == bottom,
self.top == top]
for c in hc:
self.solver.addConstraint((c | strength))
# self.solver.updateVariables()
def constrain_same(self, other, strength='strong'):
"""
Make the layoutbox have same position as other layoutbox
"""
hc = [self.left == other.left,
self.right == other.right,
self.bottom == other.bottom,
self.top == other.top]
for c in hc:
self.solver.addConstraint((c | strength))
def constrain_left_margin(self, margin, strength='strong'):
c = (self.left == self.parent.left + margin)
self.solver.addConstraint(c | strength)
def edit_left_margin_min(self, margin):
self.solver.suggestValue(self.left_margin_min, margin)
def constrain_right_margin(self, margin, strength='strong'):
c = (self.right == self.parent.right - margin)
self.solver.addConstraint(c | strength)
def edit_right_margin_min(self, margin):
self.solver.suggestValue(self.right_margin_min, margin)
def constrain_bottom_margin(self, margin, strength='strong'):
c = (self.bottom == self.parent.bottom + margin)
self.solver.addConstraint(c | strength)
def edit_bottom_margin_min(self, margin):
self.solver.suggestValue(self.bottom_margin_min, margin)
def constrain_top_margin(self, margin, strength='strong'):
c = (self.top == self.parent.top - margin)
self.solver.addConstraint(c | strength)
def edit_top_margin_min(self, margin):
self.solver.suggestValue(self.top_margin_min, margin)
def get_rect(self):
return (self.left.value(), self.bottom.value(),
self.width.value(), self.height.value())
def update_variables(self):
'''
Update *all* the variables that are part of the solver this LayoutBox
is created with
'''
self.solver.updateVariables()
def edit_height(self, height, strength='strong'):
'''
Set the height of the layout box.
This is done as an editable variable so that the value can change
due to resizing.
'''
sol = self.solver
for i in [self.height]:
if not sol.hasEditVariable(i):
sol.addEditVariable(i, strength)
sol.suggestValue(self.height, height)
def constrain_height(self, height, strength='strong'):
'''
Constrain the height of the layout box. height is
either a float or a layoutbox.height.
'''
c = (self.height == height)
self.solver.addConstraint(c | strength)
def constrain_height_min(self, height, strength='strong'):
c = (self.height >= height)
self.solver.addConstraint(c | strength)
def edit_width(self, width, strength='strong'):
sol = self.solver
for i in [self.width]:
if not sol.hasEditVariable(i):
sol.addEditVariable(i, strength)
sol.suggestValue(self.width, width)
def constrain_width(self, width, strength='strong'):
'''
Constrain the width of the layout box. `width` is
either a float or a layoutbox.width.
'''
c = (self.width == width)
self.solver.addConstraint(c | strength)
def constrain_width_min(self, width, strength='strong'):
c = (self.width >= width)
self.solver.addConstraint(c | strength)
def constrain_left(self, left, strength='strong'):
c = (self.left == left)
self.solver.addConstraint(c | strength)
def constrain_bottom(self, bottom, strength='strong'):
c = (self.bottom == bottom)
self.solver.addConstraint(c | strength)
def constrain_right(self, right, strength='strong'):
c = (self.right == right)
self.solver.addConstraint(c | strength)
def constrain_top(self, top, strength='strong'):
c = (self.top == top)
self.solver.addConstraint(c | strength)
def _is_subplotspec_layoutbox(self):
'''
Helper to check if this layoutbox is the layoutbox of a
subplotspec
'''
name = (self.name).split('.')[-1]
return name[:2] == 'ss'
def _is_gridspec_layoutbox(self):
'''
Helper to check if this layoutbox is the layoutbox of a
gridspec
'''
name = (self.name).split('.')[-1]
return name[:8] == 'gridspec'
def find_child_subplots(self):
'''
Find children of this layout box that are subplots. We want to line
poss up, and this is an easy way to find them all.
'''
if self.subplot:
subplots = [self]
else:
subplots = []
for child in self.children:
subplots += child.find_child_subplots()
return subplots
def layout_from_subplotspec(self, subspec,
name='', artist=None, pos=False):
''' Make a layout box from a subplotspec. The layout box is
constrained to be a fraction of the width/height of the parent,
and be a fraction of the parent width/height from the left/bottom
of the parent. Therefore the parent can move around and the
layout for the subplot spec should move with it.
The parent is *usually* the gridspec that made the subplotspec.??
'''
lb = LayoutBox(parent=self, name=name, artist=artist, pos=pos)
gs = subspec.get_gridspec()
nrows, ncols = gs.get_geometry()
parent = self.parent
# OK, now, we want to set the position of this subplotspec
# based on its subplotspec parameters. The new gridspec will inherit.
# from gridspec. prob should be new method in gridspec
left = 0.0
right = 1.0
bottom = 0.0
top = 1.0
totWidth = right-left
totHeight = top-bottom
hspace = 0.
wspace = 0.
# calculate accumulated heights of columns
cellH = totHeight / (nrows + hspace * (nrows - 1))
sepH = hspace*cellH
if gs._row_height_ratios is not None:
netHeight = cellH * nrows
tr = float(sum(gs._row_height_ratios))
cellHeights = [netHeight*r/tr for r in gs._row_height_ratios]
else:
cellHeights = [cellH] * nrows
sepHeights = [0] + ([sepH] * (nrows - 1))
cellHs = np.add.accumulate(np.ravel(
list(zip(sepHeights, cellHeights))))
# calculate accumulated widths of rows
cellW = totWidth/(ncols + wspace * (ncols - 1))
sepW = wspace*cellW
if gs._col_width_ratios is not None:
netWidth = cellW * ncols
tr = float(sum(gs._col_width_ratios))
cellWidths = [netWidth * r / tr for r in gs._col_width_ratios]
else:
cellWidths = [cellW] * ncols
sepWidths = [0] + ([sepW] * (ncols - 1))
cellWs = np.add.accumulate(np.ravel(list(zip(sepWidths, cellWidths))))
figTops = [top - cellHs[2 * rowNum] for rowNum in range(nrows)]
figBottoms = [top - cellHs[2 * rowNum + 1] for rowNum in range(nrows)]
figLefts = [left + cellWs[2 * colNum] for colNum in range(ncols)]
figRights = [left + cellWs[2 * colNum + 1] for colNum in range(ncols)]
rowNum, colNum = divmod(subspec.num1, ncols)
figBottom = figBottoms[rowNum]
figTop = figTops[rowNum]
figLeft = figLefts[colNum]
figRight = figRights[colNum]
if subspec.num2 is not None:
rowNum2, colNum2 = divmod(subspec.num2, ncols)
figBottom2 = figBottoms[rowNum2]
figTop2 = figTops[rowNum2]
figLeft2 = figLefts[colNum2]
figRight2 = figRights[colNum2]
figBottom = min(figBottom, figBottom2)
figLeft = min(figLeft, figLeft2)
figTop = max(figTop, figTop2)
figRight = max(figRight, figRight2)
# These are numbers relative to 0,0,1,1. Need to constrain
# relative to parent.
width = figRight - figLeft
height = figTop - figBottom
parent = self.parent
cs = [self.left == parent.left + parent.width * figLeft,
self.bottom == parent.bottom + parent.height * figBottom,
self.width == parent.width * width,
self.height == parent.height * height]
for c in cs:
self.solver.addConstraint((c | 'required'))
return lb
def __repr__(self):
args = (self.name, self.left.value(), self.bottom.value(),
self.right.value(), self.top.value())
return ('LayoutBox: %25s, (left: %1.3f) (bot: %1.3f) '
'(right: %1.3f) (top: %1.3f) ') % args
# Utility functions that act on layoutboxes...
def hstack(boxes, padding=0, strength='strong'):
'''
Stack LayoutBox instances from left to right.
`padding` is in figure-relative units.
'''
for i in range(1, len(boxes)):
c = (boxes[i-1].right + padding <= boxes[i].left)
boxes[i].solver.addConstraint(c | strength)
def hpack(boxes, padding=0, strength='strong'):
'''
Stack LayoutBox instances from left to right.
'''
for i in range(1, len(boxes)):
c = (boxes[i-1].right + padding == boxes[i].left)
boxes[i].solver.addConstraint(c | strength)
def vstack(boxes, padding=0, strength='strong'):
'''
Stack LayoutBox instances from top to bottom
'''
for i in range(1, len(boxes)):
c = (boxes[i-1].bottom - padding >= boxes[i].top)
boxes[i].solver.addConstraint(c | strength)
def vpack(boxes, padding=0, strength='strong'):
'''
Stack LayoutBox instances from top to bottom
'''
for i in range(1, len(boxes)):
c = (boxes[i-1].bottom - padding >= boxes[i].top)
boxes[i].solver.addConstraint(c | strength)
def match_heights(boxes, height_ratios=None, strength='medium'):
'''
Stack LayoutBox instances from top to bottom
'''
if height_ratios is None:
height_ratios = np.ones(len(boxes))
for i in range(1, len(boxes)):
c = (boxes[i-1].height ==
boxes[i].height*height_ratios[i-1]/height_ratios[i])
boxes[i].solver.addConstraint(c | strength)
def match_widths(boxes, width_ratios=None, strength='medium'):
'''
Stack LayoutBox instances from top to bottom
'''
if width_ratios is None:
width_ratios = np.ones(len(boxes))
for i in range(1, len(boxes)):
c = (boxes[i-1].width ==
boxes[i].width*width_ratios[i-1]/width_ratios[i])
boxes[i].solver.addConstraint(c | strength)
def vstackeq(boxes, padding=0, height_ratios=None):
vstack(boxes, padding=padding)
match_heights(boxes, height_ratios=height_ratios)
def hstackeq(boxes, padding=0, width_ratios=None):
hstack(boxes, padding=padding)
match_widths(boxes, width_ratios=width_ratios)
def align(boxes, attr, strength='strong'):
cons = []
for box in boxes[1:]:
cons = (getattr(boxes[0], attr) == getattr(box, attr))
boxes[0].solver.addConstraint(cons | strength)
def match_top_margins(boxes, levels=1):
box0 = boxes[0]
top0 = box0
for n in range(levels):
top0 = top0.parent
for box in boxes[1:]:
topb = box
for n in range(levels):
topb = topb.parent
c = (box0.top-top0.top == box.top-topb.top)
box0.solver.addConstraint(c | 'strong')
def match_bottom_margins(boxes, levels=1):
box0 = boxes[0]
top0 = box0
for n in range(levels):
top0 = top0.parent
for box in boxes[1:]:
topb = box
for n in range(levels):
topb = topb.parent
c = (box0.bottom-top0.bottom == box.bottom-topb.bottom)
box0.solver.addConstraint(c | 'strong')
def match_left_margins(boxes, levels=1):
box0 = boxes[0]
top0 = box0
for n in range(levels):
top0 = top0.parent
for box in boxes[1:]:
topb = box
for n in range(levels):
topb = topb.parent
c = (box0.left-top0.left == box.left-topb.left)
box0.solver.addConstraint(c | 'strong')
def match_right_margins(boxes, levels=1):
box0 = boxes[0]
top0 = box0
for n in range(levels):
top0 = top0.parent
for box in boxes[1:]:
topb = box
for n in range(levels):
topb = topb.parent
c = (box0.right-top0.right == box.right-topb.right)
box0.solver.addConstraint(c | 'strong')
def match_width_margins(boxes, levels=1):
match_left_margins(boxes, levels=levels)
match_right_margins(boxes, levels=levels)
def match_height_margins(boxes, levels=1):
match_top_margins(boxes, levels=levels)
match_bottom_margins(boxes, levels=levels)
def match_margins(boxes, levels=1):
match_width_margins(boxes, levels=levels)
match_height_margins(boxes, levels=levels)
_layoutboxobjnum = itertools.count()
def seq_id():
'''
Generate a short sequential id for layoutbox objects...
'''
global _layoutboxobjnum
return ('%06d' % (next(_layoutboxobjnum)))
def print_children(lb):
'''
Print the children of the layoutbox
'''
print(lb)
for child in lb.children:
print_children(child)
def nonetree(lb):
'''
Make all elements in this tree none... This signals not to do any more
layout.
'''
if lb is not None:
if lb.parent is None:
# Clear the solver. Hopefully this garbage collects.
lb.solver.reset()
nonechildren(lb)
else:
nonetree(lb.parent)
def nonechildren(lb):
for child in lb.children:
nonechildren(child)
lb.artist._layoutbox = None
lb = None
def print_tree(lb):
'''
Print the tree of layoutboxes
'''
if lb.parent is None:
print('LayoutBox Tree\n')
print('==============\n')
print_children(lb)
print('\n')
else:
print_tree(lb.parent)
def plot_children(fig, box, level=0, printit=True):
'''
Simple plotting to show where boxes are
'''
import matplotlib
import matplotlib.pyplot as plt
if isinstance(fig, matplotlib.figure.Figure):
ax = fig.add_axes([0., 0., 1., 1.])
ax.set_facecolor([1., 1., 1., 0.7])
ax.set_alpha(0.3)
fig.draw(fig.canvas.get_renderer())
else:
ax = fig
import matplotlib.patches as patches
colors = plt.rcParams["axes.prop_cycle"].by_key()["color"]
if printit:
print("Level:", level)
for child in box.children:
rect = child.get_rect()
if printit:
print(child)
ax.add_patch(
patches.Rectangle(
(child.left.value(), child.bottom.value()), # (x,y)
child.width.value(), # width
child.height.value(), # height
fc='none',
alpha=0.8,
ec=colors[level]
)
)
if level > 0:
name = child.name.split('.')[-1]
if level % 2 == 0:
ax.text(child.left.value(), child.bottom.value(), name,
size=12-level, color=colors[level])
else:
ax.text(child.right.value(), child.top.value(), name,
ha='right', va='top', size=12-level,
color=colors[level])
plot_children(ax, child, level=level+1, printit=printit)
File diff suppressed because it is too large Load Diff
@@ -1,134 +0,0 @@
"""
Manage figures for pyplot interface.
"""
import atexit
import gc
import sys
class Gcf(object):
"""
Singleton to manage a set of integer-numbered figures.
This class is never instantiated; it consists of two class
attributes (a list and a dictionary), and a set of static
methods that operate on those attributes, accessing them
directly as class attributes.
Attributes:
*figs*:
dictionary of the form {*num*: *manager*, ...}
*_activeQue*:
list of *managers*, with active one at the end
"""
_activeQue = []
figs = {}
@classmethod
def get_fig_manager(cls, num):
"""
If figure manager *num* exists, make it the active
figure and return the manager; otherwise return *None*.
"""
manager = cls.figs.get(num, None)
if manager is not None:
cls.set_active(manager)
return manager
@classmethod
def destroy(cls, num):
"""
Try to remove all traces of figure *num*.
In the interactive backends, this is bound to the
window "destroy" and "delete" events.
"""
if not cls.has_fignum(num):
return
manager = cls.figs[num]
manager.canvas.mpl_disconnect(manager._cidgcf)
cls._activeQue.remove(manager)
del cls.figs[num]
manager.destroy()
gc.collect(1)
@classmethod
def destroy_fig(cls, fig):
"*fig* is a Figure instance"
num = next((manager.num for manager in cls.figs.values()
if manager.canvas.figure == fig), None)
if num is not None:
cls.destroy(num)
@classmethod
def destroy_all(cls):
# this is need to ensure that gc is available in corner cases
# where modules are being torn down after install with easy_install
import gc # noqa
for manager in list(cls.figs.values()):
manager.canvas.mpl_disconnect(manager._cidgcf)
manager.destroy()
cls._activeQue = []
cls.figs.clear()
gc.collect(1)
@classmethod
def has_fignum(cls, num):
"""
Return *True* if figure *num* exists.
"""
return num in cls.figs
@classmethod
def get_all_fig_managers(cls):
"""
Return a list of figure managers.
"""
return list(cls.figs.values())
@classmethod
def get_num_fig_managers(cls):
"""
Return the number of figures being managed.
"""
return len(cls.figs)
@classmethod
def get_active(cls):
"""
Return the manager of the active figure, or *None*.
"""
if len(cls._activeQue) == 0:
return None
else:
return cls._activeQue[-1]
@classmethod
def set_active(cls, manager):
"""
Make the figure corresponding to *manager* the active one.
"""
oldQue = cls._activeQue[:]
cls._activeQue = []
for m in oldQue:
if m != manager:
cls._activeQue.append(m)
cls._activeQue.append(manager)
cls.figs[manager.num] = manager
@classmethod
def draw_all(cls, force=False):
"""
Redraw all figures registered with the pyplot
state machine.
"""
for f_mgr in cls.get_all_fig_managers():
if force or f_mgr.canvas.figure.stale:
f_mgr.canvas.draw_idle()
atexit.register(Gcf.destroy_all)
@@ -1,21 +0,0 @@
# This file was generated by 'versioneer.py' (0.15) from
# revision-control system data, or from the parent directory name of an
# unpacked source archive. Distribution tarballs contain a pre-generated copy
# of this file.
import json
import sys
version_json = '''
{
"dirty": false,
"error": null,
"full-revisionid": "8858a0d1bdd149a0897789e8503ac586be14676d",
"version": "3.0.2"
}
''' # END VERSION_JSON
def get_versions():
return json.loads(version_json)
@@ -1,562 +0,0 @@
"""
This is a python interface to Adobe Font Metrics Files. Although a
number of other python implementations exist, and may be more complete
than this, it was decided not to go with them because they were
either:
1) copyrighted or used a non-BSD compatible license
2) had too many dependencies and a free standing lib was needed
3) Did more than needed and it was easier to write afresh rather than
figure out how to get just what was needed.
It is pretty easy to use, and requires only built-in python libs:
>>> from matplotlib import rcParams
>>> import os.path
>>> afm_fname = os.path.join(rcParams['datapath'],
... 'fonts', 'afm', 'ptmr8a.afm')
>>>
>>> from matplotlib.afm import AFM
>>> with open(afm_fname, 'rb') as fh:
... afm = AFM(fh)
>>> afm.string_width_height('What the heck?')
(6220.0, 694)
>>> afm.get_fontname()
'Times-Roman'
>>> afm.get_kern_dist('A', 'f')
0
>>> afm.get_kern_dist('A', 'y')
-92.0
>>> afm.get_bbox_char('!')
[130, -9, 238, 676]
As in the Adobe Font Metrics File Format Specification, all dimensions
are given in units of 1/1000 of the scale factor (point size) of the font
being used.
"""
from collections import namedtuple
import re
import sys
from ._mathtext_data import uni2type1
from matplotlib.cbook import deprecated
# some afm files have floats where we are expecting ints -- there is
# probably a better way to handle this (support floats, round rather
# than truncate). But I don't know what the best approach is now and
# this change to _to_int should at least prevent mpl from crashing on
# these JDH (2009-11-06)
def _to_int(x):
return int(float(x))
_to_float = float
def _to_str(x):
return x.decode('utf8')
def _to_list_of_ints(s):
s = s.replace(b',', b' ')
return [_to_int(val) for val in s.split()]
def _to_list_of_floats(s):
return [_to_float(val) for val in s.split()]
def _to_bool(s):
if s.lower().strip() in (b'false', b'0', b'no'):
return False
else:
return True
def _sanity_check(fh):
"""
Check if the file at least looks like AFM.
If not, raise :exc:`RuntimeError`.
"""
# Remember the file position in case the caller wants to
# do something else with the file.
pos = fh.tell()
try:
line = next(fh)
finally:
fh.seek(pos, 0)
# AFM spec, Section 4: The StartFontMetrics keyword [followed by a
# version number] must be the first line in the file, and the
# EndFontMetrics keyword must be the last non-empty line in the
# file. We just check the first line.
if not line.startswith(b'StartFontMetrics'):
raise RuntimeError('Not an AFM file')
def _parse_header(fh):
"""
Reads the font metrics header (up to the char metrics) and returns
a dictionary mapping *key* to *val*. *val* will be converted to the
appropriate python type as necessary; e.g.:
* 'False'->False
* '0'->0
* '-168 -218 1000 898'-> [-168, -218, 1000, 898]
Dictionary keys are
StartFontMetrics, FontName, FullName, FamilyName, Weight,
ItalicAngle, IsFixedPitch, FontBBox, UnderlinePosition,
UnderlineThickness, Version, Notice, EncodingScheme, CapHeight,
XHeight, Ascender, Descender, StartCharMetrics
"""
headerConverters = {
b'StartFontMetrics': _to_float,
b'FontName': _to_str,
b'FullName': _to_str,
b'FamilyName': _to_str,
b'Weight': _to_str,
b'ItalicAngle': _to_float,
b'IsFixedPitch': _to_bool,
b'FontBBox': _to_list_of_ints,
b'UnderlinePosition': _to_int,
b'UnderlineThickness': _to_int,
b'Version': _to_str,
b'Notice': _to_str,
b'EncodingScheme': _to_str,
b'CapHeight': _to_float, # Is the second version a mistake, or
b'Capheight': _to_float, # do some AFM files contain 'Capheight'? -JKS
b'XHeight': _to_float,
b'Ascender': _to_float,
b'Descender': _to_float,
b'StdHW': _to_float,
b'StdVW': _to_float,
b'StartCharMetrics': _to_int,
b'CharacterSet': _to_str,
b'Characters': _to_int,
}
d = {}
for line in fh:
line = line.rstrip()
if line.startswith(b'Comment'):
continue
lst = line.split(b' ', 1)
key = lst[0]
if len(lst) == 2:
val = lst[1]
else:
val = b''
try:
d[key] = headerConverters[key](val)
except ValueError:
print('Value error parsing header in AFM:', key, val,
file=sys.stderr)
continue
except KeyError:
print('Found an unknown keyword in AFM header (was %r)' % key,
file=sys.stderr)
continue
if key == b'StartCharMetrics':
return d
raise RuntimeError('Bad parse')
CharMetrics = namedtuple('CharMetrics', 'width, name, bbox')
CharMetrics.__doc__ = """
Represents the character metrics of a single character.
Notes
-----
The fields do currently only describe a subset of character metrics
information defined in the AFM standard.
"""
CharMetrics.width.__doc__ = """The character width (WX)."""
CharMetrics.name.__doc__ = """The character name (N)."""
CharMetrics.bbox.__doc__ = """
The bbox of the character (B) as a tuple (*llx*, *lly*, *urx*, *ury*)."""
def _parse_char_metrics(fh):
"""
Parse the given filehandle for character metrics information and return
the information as dicts.
It is assumed that the file cursor is on the line behind
'StartCharMetrics'.
Returns
-------
ascii_d : dict
A mapping "ASCII num of the character" to `.CharMetrics`.
name_d : dict
A mapping "character name" to `.CharMetrics`.
Notes
-----
This function is incomplete per the standard, but thus far parses
all the sample afm files tried.
"""
required_keys = {'C', 'WX', 'N', 'B'}
ascii_d = {}
name_d = {}
for line in fh:
# We are defensively letting values be utf8. The spec requires
# ascii, but there are non-compliant fonts in circulation
line = _to_str(line.rstrip()) # Convert from byte-literal
if line.startswith('EndCharMetrics'):
return ascii_d, name_d
# Split the metric line into a dictionary, keyed by metric identifiers
vals = dict(s.strip().split(' ', 1) for s in line.split(';') if s)
# There may be other metrics present, but only these are needed
if not required_keys.issubset(vals):
raise RuntimeError('Bad char metrics line: %s' % line)
num = _to_int(vals['C'])
wx = _to_float(vals['WX'])
name = vals['N']
bbox = _to_list_of_floats(vals['B'])
bbox = list(map(int, bbox))
metrics = CharMetrics(wx, name, bbox)
# Workaround: If the character name is 'Euro', give it the
# corresponding character code, according to WinAnsiEncoding (see PDF
# Reference).
if name == 'Euro':
num = 128
if num != -1:
ascii_d[num] = metrics
name_d[name] = metrics
raise RuntimeError('Bad parse')
def _parse_kern_pairs(fh):
"""
Return a kern pairs dictionary; keys are (*char1*, *char2*) tuples and
values are the kern pair value. For example, a kern pairs line like
``KPX A y -50``
will be represented as::
d[ ('A', 'y') ] = -50
"""
line = next(fh)
if not line.startswith(b'StartKernPairs'):
raise RuntimeError('Bad start of kern pairs data: %s' % line)
d = {}
for line in fh:
line = line.rstrip()
if not line:
continue
if line.startswith(b'EndKernPairs'):
next(fh) # EndKernData
return d
vals = line.split()
if len(vals) != 4 or vals[0] != b'KPX':
raise RuntimeError('Bad kern pairs line: %s' % line)
c1, c2, val = _to_str(vals[1]), _to_str(vals[2]), _to_float(vals[3])
d[(c1, c2)] = val
raise RuntimeError('Bad kern pairs parse')
CompositePart = namedtuple('CompositePart', 'name, dx, dy')
CompositePart.__doc__ = """
Represents the information on a composite element of a composite char."""
CompositePart.name.__doc__ = """Name of the part, e.g. 'acute'."""
CompositePart.dx.__doc__ = """x-displacement of the part from the origin."""
CompositePart.dy.__doc__ = """y-displacement of the part from the origin."""
def _parse_composites(fh):
"""
Parse the given filehandle for composites information return them as a
dict.
It is assumed that the file cursor is on the line behind 'StartComposites'.
Returns
-------
composites : dict
A dict mapping composite character names to a parts list. The parts
list is a list of `.CompositePart` entries describing the parts of
the composite.
Example
-------
A composite definition line::
CC Aacute 2 ; PCC A 0 0 ; PCC acute 160 170 ;
will be represented as::
composites['Aacute'] = [CompositePart(name='A', dx=0, dy=0),
CompositePart(name='acute', dx=160, dy=170)]
"""
composites = {}
for line in fh:
line = line.rstrip()
if not line:
continue
if line.startswith(b'EndComposites'):
return composites
vals = line.split(b';')
cc = vals[0].split()
name, numParts = cc[1], _to_int(cc[2])
pccParts = []
for s in vals[1:-1]:
pcc = s.split()
part = CompositePart(pcc[1], _to_float(pcc[2]), _to_float(pcc[3]))
pccParts.append(part)
composites[name] = pccParts
raise RuntimeError('Bad composites parse')
def _parse_optional(fh):
"""
Parse the optional fields for kern pair data and composites.
Returns
-------
kern_data : dict
A dict containing kerning information. May be empty.
See `._parse_kern_pairs`.
composites : dict
A dict containing composite information. May be empty.
See `._parse_composites`.
"""
optional = {
b'StartKernData': _parse_kern_pairs,
b'StartComposites': _parse_composites,
}
d = {b'StartKernData': {},
b'StartComposites': {}}
for line in fh:
line = line.rstrip()
if not line:
continue
key = line.split()[0]
if key in optional:
d[key] = optional[key](fh)
return d[b'StartKernData'], d[b'StartComposites']
@deprecated("3.0", "Use the class AFM instead.")
def parse_afm(fh):
return _parse_afm(fh)
def _parse_afm(fh):
"""
Parse the Adobe Font Metrics file in file handle *fh*.
Returns
-------
header : dict
A header dict. See :func:`_parse_header`.
cmetrics_by_ascii : dict
From :func:`_parse_char_metrics`.
cmetrics_by_name : dict
From :func:`_parse_char_metrics`.
kernpairs : dict
From :func:`_parse_kern_pairs`.
composites : dict
From :func:`_parse_composites`
"""
_sanity_check(fh)
header = _parse_header(fh)
cmetrics_by_ascii, cmetrics_by_name = _parse_char_metrics(fh)
kernpairs, composites = _parse_optional(fh)
return header, cmetrics_by_ascii, cmetrics_by_name, kernpairs, composites
class AFM(object):
def __init__(self, fh):
"""Parse the AFM file in file object *fh*."""
(self._header,
self._metrics,
self._metrics_by_name,
self._kern,
self._composite) = _parse_afm(fh)
def get_bbox_char(self, c, isord=False):
if not isord:
c = ord(c)
return self._metrics[c].bbox
def string_width_height(self, s):
"""
Return the string width (including kerning) and string height
as a (*w*, *h*) tuple.
"""
if not len(s):
return 0, 0
total_width = 0
namelast = None
miny = 1e9
maxy = 0
for c in s:
if c == '\n':
continue
wx, name, bbox = self._metrics[ord(c)]
total_width += wx + self._kern.get((namelast, name), 0)
l, b, w, h = bbox
miny = min(miny, b)
maxy = max(maxy, b + h)
namelast = name
return total_width, maxy - miny
def get_str_bbox_and_descent(self, s):
"""Return the string bounding box and the maximal descent."""
if not len(s):
return 0, 0, 0, 0, 0
total_width = 0
namelast = None
miny = 1e9
maxy = 0
left = 0
if not isinstance(s, str):
s = _to_str(s)
for c in s:
if c == '\n':
continue
name = uni2type1.get(ord(c), 'question')
try:
wx, _, bbox = self._metrics_by_name[name]
except KeyError:
name = 'question'
wx, _, bbox = self._metrics_by_name[name]
total_width += wx + self._kern.get((namelast, name), 0)
l, b, w, h = bbox
left = min(left, l)
miny = min(miny, b)
maxy = max(maxy, b + h)
namelast = name
return left, miny, total_width, maxy - miny, -miny
def get_str_bbox(self, s):
"""Return the string bounding box."""
return self.get_str_bbox_and_descent(s)[:4]
def get_name_char(self, c, isord=False):
"""Get the name of the character, i.e., ';' is 'semicolon'."""
if not isord:
c = ord(c)
return self._metrics[c].name
def get_width_char(self, c, isord=False):
"""
Get the width of the character from the character metric WX field.
"""
if not isord:
c = ord(c)
return self._metrics[c].width
def get_width_from_char_name(self, name):
"""Get the width of the character from a type1 character name."""
return self._metrics_by_name[name].width
def get_height_char(self, c, isord=False):
"""Get the bounding box (ink) height of character *c* (space is 0)."""
if not isord:
c = ord(c)
return self._metrics[c].bbox[-1]
def get_kern_dist(self, c1, c2):
"""
Return the kerning pair distance (possibly 0) for chars *c1* and *c2*.
"""
name1, name2 = self.get_name_char(c1), self.get_name_char(c2)
return self.get_kern_dist_from_name(name1, name2)
def get_kern_dist_from_name(self, name1, name2):
"""
Return the kerning pair distance (possibly 0) for chars
*name1* and *name2*.
"""
return self._kern.get((name1, name2), 0)
def get_fontname(self):
"""Return the font name, e.g., 'Times-Roman'."""
return self._header[b'FontName']
def get_fullname(self):
"""Return the font full name, e.g., 'Times-Roman'."""
name = self._header.get(b'FullName')
if name is None: # use FontName as a substitute
name = self._header[b'FontName']
return name
def get_familyname(self):
"""Return the font family name, e.g., 'Times'."""
name = self._header.get(b'FamilyName')
if name is not None:
return name
# FamilyName not specified so we'll make a guess
name = self.get_fullname()
extras = (r'(?i)([ -](regular|plain|italic|oblique|bold|semibold|'
r'light|ultralight|extra|condensed))+$')
return re.sub(extras, '', name)
@property
def family_name(self):
"""The font family name, e.g., 'Times'."""
return self.get_familyname()
def get_weight(self):
"""Return the font weight, e.g., 'Bold' or 'Roman'."""
return self._header[b'Weight']
def get_angle(self):
"""Return the fontangle as float."""
return self._header[b'ItalicAngle']
def get_capheight(self):
"""Return the cap height as float."""
return self._header[b'CapHeight']
def get_xheight(self):
"""Return the xheight as float."""
return self._header[b'XHeight']
def get_underline_thickness(self):
"""Return the underline thickness as float."""
return self._header[b'UnderlineThickness']
def get_horizontal_stem_width(self):
"""
Return the standard horizontal stem width as float, or *None* if
not specified in AFM file.
"""
return self._header.get(b'StdHW', None)
def get_vertical_stem_width(self):
"""
Return the standard vertical stem width as float, or *None* if
not specified in AFM file.
"""
return self._header.get(b'StdVW', None)
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File diff suppressed because it is too large Load Diff
@@ -1,2 +0,0 @@
from ._subplots import *
from ._axes import *
File diff suppressed because it is too large Load Diff
File diff suppressed because it is too large Load Diff
@@ -1,242 +0,0 @@
import functools
import warnings
from matplotlib import docstring
import matplotlib.artist as martist
from matplotlib.axes._axes import Axes
from matplotlib.gridspec import GridSpec, SubplotSpec
import matplotlib._layoutbox as layoutbox
class SubplotBase(object):
"""
Base class for subplots, which are :class:`Axes` instances with
additional methods to facilitate generating and manipulating a set
of :class:`Axes` within a figure.
"""
def __init__(self, fig, *args, **kwargs):
"""
*fig* is a :class:`matplotlib.figure.Figure` instance.
*args* is the tuple (*numRows*, *numCols*, *plotNum*), where
the array of subplots in the figure has dimensions *numRows*,
*numCols*, and where *plotNum* is the number of the subplot
being created. *plotNum* starts at 1 in the upper left
corner and increases to the right.
If *numRows* <= *numCols* <= *plotNum* < 10, *args* can be the
decimal integer *numRows* * 100 + *numCols* * 10 + *plotNum*.
"""
self.figure = fig
if len(args) == 1:
if isinstance(args[0], SubplotSpec):
self._subplotspec = args[0]
else:
try:
s = str(int(args[0]))
rows, cols, num = map(int, s)
except ValueError:
raise ValueError('Single argument to subplot must be '
'a 3-digit integer')
self._subplotspec = GridSpec(rows, cols,
figure=self.figure)[num - 1]
# num - 1 for converting from MATLAB to python indexing
elif len(args) == 3:
rows, cols, num = args
rows = int(rows)
cols = int(cols)
if isinstance(num, tuple) and len(num) == 2:
num = [int(n) for n in num]
self._subplotspec = GridSpec(
rows, cols,
figure=self.figure)[(num[0] - 1):num[1]]
else:
if num < 1 or num > rows*cols:
raise ValueError(
("num must be 1 <= num <= {maxn}, not {num}"
).format(maxn=rows*cols, num=num))
self._subplotspec = GridSpec(
rows, cols, figure=self.figure)[int(num) - 1]
# num - 1 for converting from MATLAB to python indexing
else:
raise ValueError('Illegal argument(s) to subplot: %s' % (args,))
self.update_params()
# _axes_class is set in the subplot_class_factory
self._axes_class.__init__(self, fig, self.figbox, **kwargs)
# add a layout box to this, for both the full axis, and the poss
# of the axis. We need both because the axes may become smaller
# due to parasitic axes and hence no longer fill the subplotspec.
if self._subplotspec._layoutbox is None:
self._layoutbox = None
self._poslayoutbox = None
else:
name = self._subplotspec._layoutbox.name + '.ax'
name = name + layoutbox.seq_id()
self._layoutbox = layoutbox.LayoutBox(
parent=self._subplotspec._layoutbox,
name=name,
artist=self)
self._poslayoutbox = layoutbox.LayoutBox(
parent=self._layoutbox,
name=self._layoutbox.name+'.pos',
pos=True, subplot=True, artist=self)
def __reduce__(self):
# get the first axes class which does not inherit from a subplotbase
axes_class = next(
c for c in type(self).__mro__
if issubclass(c, Axes) and not issubclass(c, SubplotBase))
return (_picklable_subplot_class_constructor,
(axes_class,),
self.__getstate__())
def get_geometry(self):
"""get the subplot geometry, e.g., 2,2,3"""
rows, cols, num1, num2 = self.get_subplotspec().get_geometry()
return rows, cols, num1 + 1 # for compatibility
# COVERAGE NOTE: Never used internally or from examples
def change_geometry(self, numrows, numcols, num):
"""change subplot geometry, e.g., from 1,1,1 to 2,2,3"""
self._subplotspec = GridSpec(numrows, numcols,
figure=self.figure)[num - 1]
self.update_params()
self.set_position(self.figbox)
def get_subplotspec(self):
"""get the SubplotSpec instance associated with the subplot"""
return self._subplotspec
def set_subplotspec(self, subplotspec):
"""set the SubplotSpec instance associated with the subplot"""
self._subplotspec = subplotspec
def get_gridspec(self):
"""get the GridSpec instance associated with the subplot"""
return self._subplotspec.get_gridspec()
def update_params(self):
"""update the subplot position from fig.subplotpars"""
self.figbox, self.rowNum, self.colNum, self.numRows, self.numCols = \
self.get_subplotspec().get_position(self.figure,
return_all=True)
def is_first_col(self):
return self.colNum == 0
def is_first_row(self):
return self.rowNum == 0
def is_last_row(self):
return self.rowNum == self.numRows - 1
def is_last_col(self):
return self.colNum == self.numCols - 1
# COVERAGE NOTE: Never used internally.
def label_outer(self):
"""Only show "outer" labels and tick labels.
x-labels are only kept for subplots on the last row; y-labels only for
subplots on the first column.
"""
lastrow = self.is_last_row()
firstcol = self.is_first_col()
if not lastrow:
for label in self.get_xticklabels(which="both"):
label.set_visible(False)
self.get_xaxis().get_offset_text().set_visible(False)
self.set_xlabel("")
if not firstcol:
for label in self.get_yticklabels(which="both"):
label.set_visible(False)
self.get_yaxis().get_offset_text().set_visible(False)
self.set_ylabel("")
def _make_twin_axes(self, *kl, **kwargs):
"""
Make a twinx axes of self. This is used for twinx and twiny.
"""
from matplotlib.projections import process_projection_requirements
if 'sharex' in kwargs and 'sharey' in kwargs:
# The following line is added in v2.2 to avoid breaking Seaborn,
# which currently uses this internal API.
if kwargs["sharex"] is not self and kwargs["sharey"] is not self:
raise ValueError("Twinned Axes may share only one axis.")
kl = (self.get_subplotspec(),) + kl
projection_class, kwargs, key = process_projection_requirements(
self.figure, *kl, **kwargs)
ax2 = subplot_class_factory(projection_class)(self.figure,
*kl, **kwargs)
self.figure.add_subplot(ax2)
self.set_adjustable('datalim')
ax2.set_adjustable('datalim')
if self._layoutbox is not None and ax2._layoutbox is not None:
# make the layout boxes be explicitly the same
ax2._layoutbox.constrain_same(self._layoutbox)
ax2._poslayoutbox.constrain_same(self._poslayoutbox)
self._twinned_axes.join(self, ax2)
return ax2
# this here to support cartopy which was using a private part of the
# API to register their Axes subclasses.
# In 3.1 this should be changed to a dict subclass that warns on use
# In 3.3 to a dict subclass that raises a useful exception on use
# In 3.4 should be removed
# The slow timeline is to give cartopy enough time to get several
# release out before we break them.
_subplot_classes = {}
@functools.lru_cache(None)
def subplot_class_factory(axes_class=None):
"""
This makes a new class that inherits from `.SubplotBase` and the
given axes_class (which is assumed to be a subclass of `.axes.Axes`).
This is perhaps a little bit roundabout to make a new class on
the fly like this, but it means that a new Subplot class does
not have to be created for every type of Axes.
"""
if axes_class is None:
axes_class = Axes
try:
# Avoid creating two different instances of GeoAxesSubplot...
# Only a temporary backcompat fix. This should be removed in
# 3.4
return next(cls for cls in SubplotBase.__subclasses__()
if cls.__bases__ == (SubplotBase, axes_class))
except StopIteration:
return type("%sSubplot" % axes_class.__name__,
(SubplotBase, axes_class),
{'_axes_class': axes_class})
# This is provided for backward compatibility
Subplot = subplot_class_factory()
def _picklable_subplot_class_constructor(axes_class):
"""
This stub class exists to return the appropriate subplot class when called
with an axes class. This is purely to allow pickling of Axes and Subplots.
"""
subplot_class = subplot_class_factory(axes_class)
return subplot_class.__new__(subplot_class)
docstring.interpd.update(Axes=martist.kwdoc(Axes))
docstring.dedent_interpd(Axes.__init__)
docstring.interpd.update(Subplot=martist.kwdoc(Axes))
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File diff suppressed because it is too large Load Diff
@@ -1,433 +0,0 @@
"""
`ToolManager`
Class that makes the bridge between user interaction (key press,
toolbar clicks, ..) and the actions in response to the user inputs.
"""
import warnings
import matplotlib.cbook as cbook
import matplotlib.widgets as widgets
from matplotlib.rcsetup import validate_stringlist
import matplotlib.backend_tools as tools
class ToolEvent(object):
"""Event for tool manipulation (add/remove)"""
def __init__(self, name, sender, tool, data=None):
self.name = name
self.sender = sender
self.tool = tool
self.data = data
class ToolTriggerEvent(ToolEvent):
"""Event to inform that a tool has been triggered"""
def __init__(self, name, sender, tool, canvasevent=None, data=None):
ToolEvent.__init__(self, name, sender, tool, data)
self.canvasevent = canvasevent
class ToolManagerMessageEvent(object):
"""
Event carrying messages from toolmanager
Messages usually get displayed to the user by the toolbar
"""
def __init__(self, name, sender, message):
self.name = name
self.sender = sender
self.message = message
class ToolManager(object):
"""
Helper class that groups all the user interactions for a Figure.
Attributes
----------
figure: `Figure`
keypresslock: `widgets.LockDraw`
`LockDraw` object to know if the `canvas` key_press_event is locked
messagelock: `widgets.LockDraw`
`LockDraw` object to know if the message is available to write
"""
def __init__(self, figure=None):
warnings.warn('Treat the new Tool classes introduced in v1.5 as ' +
'experimental for now, the API will likely change in ' +
'version 2.1 and perhaps the rcParam as well')
self._key_press_handler_id = None
self._tools = {}
self._keys = {}
self._toggled = {}
self._callbacks = cbook.CallbackRegistry()
# to process keypress event
self.keypresslock = widgets.LockDraw()
self.messagelock = widgets.LockDraw()
self._figure = None
self.set_figure(figure)
@property
def canvas(self):
"""Canvas managed by FigureManager"""
if not self._figure:
return None
return self._figure.canvas
@property
def figure(self):
"""Figure that holds the canvas"""
return self._figure
@figure.setter
def figure(self, figure):
self.set_figure(figure)
def set_figure(self, figure, update_tools=True):
"""
Bind the given figure to the tools.
Parameters
----------
figure : `.Figure`
update_tools : bool
Force tools to update figure
"""
if self._key_press_handler_id:
self.canvas.mpl_disconnect(self._key_press_handler_id)
self._figure = figure
if figure:
self._key_press_handler_id = self.canvas.mpl_connect(
'key_press_event', self._key_press)
if update_tools:
for tool in self._tools.values():
tool.figure = figure
def toolmanager_connect(self, s, func):
"""
Connect event with string *s* to *func*.
Parameters
----------
s : String
Name of the event
The following events are recognized
- 'tool_message_event'
- 'tool_removed_event'
- 'tool_added_event'
For every tool added a new event is created
- 'tool_trigger_TOOLNAME`
Where TOOLNAME is the id of the tool.
func : function
Function to be called with signature
def func(event)
"""
return self._callbacks.connect(s, func)
def toolmanager_disconnect(self, cid):
"""
Disconnect callback id *cid*
Example usage::
cid = toolmanager.toolmanager_connect('tool_trigger_zoom',
on_press)
#...later
toolmanager.toolmanager_disconnect(cid)
"""
return self._callbacks.disconnect(cid)
def message_event(self, message, sender=None):
""" Emit a `ToolManagerMessageEvent`"""
if sender is None:
sender = self
s = 'tool_message_event'
event = ToolManagerMessageEvent(s, sender, message)
self._callbacks.process(s, event)
@property
def active_toggle(self):
"""Currently toggled tools"""
return self._toggled
def get_tool_keymap(self, name):
"""
Get the keymap associated with the specified tool
Parameters
----------
name : string
Name of the Tool
Returns
-------
list : list of keys associated with the Tool
"""
keys = [k for k, i in self._keys.items() if i == name]
return keys
def _remove_keys(self, name):
for k in self.get_tool_keymap(name):
del self._keys[k]
def update_keymap(self, name, *keys):
"""
Set the keymap to associate with the specified tool
Parameters
----------
name : string
Name of the Tool
keys : keys to associate with the Tool
"""
if name not in self._tools:
raise KeyError('%s not in Tools' % name)
self._remove_keys(name)
for key in keys:
for k in validate_stringlist(key):
if k in self._keys:
warnings.warn('Key %s changed from %s to %s' %
(k, self._keys[k], name))
self._keys[k] = name
def remove_tool(self, name):
"""
Remove tool from `ToolManager`
Parameters
----------
name : string
Name of the Tool
"""
tool = self.get_tool(name)
tool.destroy()
# If is a toggle tool and toggled, untoggle
if getattr(tool, 'toggled', False):
self.trigger_tool(tool, 'toolmanager')
self._remove_keys(name)
s = 'tool_removed_event'
event = ToolEvent(s, self, tool)
self._callbacks.process(s, event)
del self._tools[name]
def add_tool(self, name, tool, *args, **kwargs):
"""
Add *tool* to `ToolManager`
If successful adds a new event `tool_trigger_name` where **name** is
the **name** of the tool, this event is fired everytime
the tool is triggered.
Parameters
----------
name : str
Name of the tool, treated as the ID, has to be unique
tool : class_like, i.e. str or type
Reference to find the class of the Tool to added.
Notes
-----
args and kwargs get passed directly to the tools constructor.
See Also
--------
matplotlib.backend_tools.ToolBase : The base class for tools.
"""
tool_cls = self._get_cls_to_instantiate(tool)
if not tool_cls:
raise ValueError('Impossible to find class for %s' % str(tool))
if name in self._tools:
warnings.warn('A "Tool class" with the same name already exists, '
'not added')
return self._tools[name]
tool_obj = tool_cls(self, name, *args, **kwargs)
self._tools[name] = tool_obj
if tool_cls.default_keymap is not None:
self.update_keymap(name, tool_cls.default_keymap)
# For toggle tools init the radio_group in self._toggled
if isinstance(tool_obj, tools.ToolToggleBase):
# None group is not mutually exclusive, a set is used to keep track
# of all toggled tools in this group
if tool_obj.radio_group is None:
self._toggled.setdefault(None, set())
else:
self._toggled.setdefault(tool_obj.radio_group, None)
# If initially toggled
if tool_obj.toggled:
self._handle_toggle(tool_obj, None, None, None)
tool_obj.set_figure(self.figure)
self._tool_added_event(tool_obj)
return tool_obj
def _tool_added_event(self, tool):
s = 'tool_added_event'
event = ToolEvent(s, self, tool)
self._callbacks.process(s, event)
def _handle_toggle(self, tool, sender, canvasevent, data):
"""
Toggle tools, need to untoggle prior to using other Toggle tool
Called from trigger_tool
Parameters
----------
tool: Tool object
sender: object
Object that wishes to trigger the tool
canvasevent : Event
Original Canvas event or None
data : Object
Extra data to pass to the tool when triggering
"""
radio_group = tool.radio_group
# radio_group None is not mutually exclusive
# just keep track of toggled tools in this group
if radio_group is None:
if tool.name in self._toggled[None]:
self._toggled[None].remove(tool.name)
else:
self._toggled[None].add(tool.name)
return
# If the tool already has a toggled state, untoggle it
if self._toggled[radio_group] == tool.name:
toggled = None
# If no tool was toggled in the radio_group
# toggle it
elif self._toggled[radio_group] is None:
toggled = tool.name
# Other tool in the radio_group is toggled
else:
# Untoggle previously toggled tool
self.trigger_tool(self._toggled[radio_group],
self,
canvasevent,
data)
toggled = tool.name
# Keep track of the toggled tool in the radio_group
self._toggled[radio_group] = toggled
def _get_cls_to_instantiate(self, callback_class):
# Find the class that corresponds to the tool
if isinstance(callback_class, str):
# FIXME: make more complete searching structure
if callback_class in globals():
callback_class = globals()[callback_class]
else:
mod = 'backend_tools'
current_module = __import__(mod,
globals(), locals(), [mod], 1)
callback_class = getattr(current_module, callback_class, False)
if callable(callback_class):
return callback_class
else:
return None
def trigger_tool(self, name, sender=None, canvasevent=None,
data=None):
"""
Trigger a tool and emit the tool_trigger_[name] event
Parameters
----------
name : string
Name of the tool
sender: object
Object that wishes to trigger the tool
canvasevent : Event
Original Canvas event or None
data : Object
Extra data to pass to the tool when triggering
"""
tool = self.get_tool(name)
if tool is None:
return
if sender is None:
sender = self
self._trigger_tool(name, sender, canvasevent, data)
s = 'tool_trigger_%s' % name
event = ToolTriggerEvent(s, sender, tool, canvasevent, data)
self._callbacks.process(s, event)
def _trigger_tool(self, name, sender=None, canvasevent=None, data=None):
"""
Trigger on a tool
Method to actually trigger the tool
"""
tool = self.get_tool(name)
if isinstance(tool, tools.ToolToggleBase):
self._handle_toggle(tool, sender, canvasevent, data)
# Important!!!
# This is where the Tool object gets triggered
tool.trigger(sender, canvasevent, data)
def _key_press(self, event):
if event.key is None or self.keypresslock.locked():
return
name = self._keys.get(event.key, None)
if name is None:
return
self.trigger_tool(name, canvasevent=event)
@property
def tools(self):
"""Return the tools controlled by `ToolManager`"""
return self._tools
def get_tool(self, name, warn=True):
"""
Return the tool object, also accepts the actual tool for convenience
Parameters
----------
name : str, ToolBase
Name of the tool, or the tool itself
warn : bool, optional
If this method should give warnings.
"""
if isinstance(name, tools.ToolBase) and name.name in self._tools:
return name
if name not in self._tools:
if warn:
warnings.warn("ToolManager does not control tool %s" % name)
return None
return self._tools[name]
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@@ -1,107 +0,0 @@
import importlib
import logging
import os
import sys
import traceback
import matplotlib
from matplotlib import cbook
from matplotlib.backend_bases import _Backend
_log = logging.getLogger(__name__)
# NOTE: plt.switch_backend() (called at import time) will add a "backend"
# attribute here for backcompat.
def _get_running_interactive_framework():
"""
Return the interactive framework whose event loop is currently running, if
any, or "headless" if no event loop can be started, or None.
Returns
-------
Optional[str]
One of the following values: "qt5", "qt4", "gtk3", "wx", "tk",
"macosx", "headless", ``None``.
"""
QtWidgets = (sys.modules.get("PyQt5.QtWidgets")
or sys.modules.get("PySide2.QtWidgets"))
if QtWidgets and QtWidgets.QApplication.instance():
return "qt5"
QtGui = (sys.modules.get("PyQt4.QtGui")
or sys.modules.get("PySide.QtGui"))
if QtGui and QtGui.QApplication.instance():
return "qt4"
Gtk = (sys.modules.get("gi.repository.Gtk")
or sys.modules.get("pgi.repository.Gtk"))
if Gtk and Gtk.main_level():
return "gtk3"
wx = sys.modules.get("wx")
if wx and wx.GetApp():
return "wx"
tkinter = sys.modules.get("tkinter")
if tkinter:
for frame in sys._current_frames().values():
while frame:
if frame.f_code == tkinter.mainloop.__code__:
return "tk"
frame = frame.f_back
if 'matplotlib.backends._macosx' in sys.modules:
if sys.modules["matplotlib.backends._macosx"].event_loop_is_running():
return "macosx"
if sys.platform.startswith("linux") and not os.environ.get("DISPLAY"):
return "headless"
return None
@cbook.deprecated("3.0")
def pylab_setup(name=None):
"""
Return new_figure_manager, draw_if_interactive and show for pyplot.
This provides the backend-specific functions that are used by pyplot to
abstract away the difference between backends.
Parameters
----------
name : str, optional
The name of the backend to use. If `None`, falls back to
``matplotlib.get_backend()`` (which return :rc:`backend`).
Returns
-------
backend_mod : module
The module which contains the backend of choice
new_figure_manager : function
Create a new figure manager (roughly maps to GUI window)
draw_if_interactive : function
Redraw the current figure if pyplot is interactive
show : function
Show (and possibly block) any unshown figures.
"""
# Import the requested backend into a generic module object.
if name is None:
name = matplotlib.get_backend()
backend_name = (name[9:] if name.startswith("module://")
else "matplotlib.backends.backend_{}".format(name.lower()))
backend_mod = importlib.import_module(backend_name)
# Create a local Backend class whose body corresponds to the contents of
# the backend module. This allows the Backend class to fill in the missing
# methods through inheritance.
Backend = type("Backend", (_Backend,), vars(backend_mod))
# Need to keep a global reference to the backend for compatibility reasons.
# See https://github.com/matplotlib/matplotlib/issues/6092
global backend
backend = name
_log.debug('backend %s version %s', name, Backend.backend_version)
return (backend_mod,
Backend.new_figure_manager,
Backend.draw_if_interactive,
Backend.show)

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