import sys
import os
from matplotlib import pyplot
sys.path.append(os.path.expanduser('.'))
from rigol import RigolScope
from waverunner import Waverunner
from utils import makeDataFilePath
""" Capture data from Rigol oscilloscope and write to a file
usage: python get_data.py <filename>
if filename is not given STDOUT will be used"""
SCOPE_ADDRESS = 'nigpib1'
try:
filename = sys.argv[1]
except:
filename = makeDataFilePath()
if filename == "--help":
print """Usage: 1%s [filename]\n Reads both traces from oscilloscope and writes as ASCII tabular data to filename. If no filename is given the program outputs to STDOUT. STDOUT can be directed into a file or piped into another application. For example:\n 1%s myfile\n 1%s > myfile\n 1%s | ./plot_data.py"""%sys.argv[0]
sys.exit(1)
print filename
scope = RigolScope("/dev/usbtmc0")
#scope = Waverunner(SCOPE_ADDRESS)
scope.grabData()
scope.writeWaveformToFile(filename)
scope.unlock()
scope.close()
style=wx.SAVE)
if dialog.ShowModal() == wx.ID_OK:
filepath = dialog.GetPath()
self.scope.writeWaveformToFile(filepath, header)
dialog.Destroy()
def save(self, filename):
header = ''
self.scope.writeWaveformToFile(filename, header)
if __name__ == '__main__':
app = wx.PySimpleApp()
try:
device = sys.argv[1]
except:
device = 'rigol'
if device == 'rigol':
from rigol import RigolScope
scope = RigolScope('/dev/usbtmc-rigol')
elif device == 'waverunner':
from waverunner import Waverunner
scope = Waverunner('127.0.0.1')
elif device == 'dummy':
from oscope import DummyScope
scope = DummyScope()
app.frame = ScopePlotTestFrame(scope)
app.frame.Show()
app.MainLoop()
#!/usr/bin/python
import matplotlib.pyplot as plt
from rigol import RigolScope
scope = RigolScope("/dev/usbtmc0")
print scope.getName()
scope.setupAndTrigger()
# Docs say that first acq gives 600 samples and second gives all of them.
# But this doesn't appear to be true.
A = scope.getWave('CHAN1')
t = scope.getWaveTime(len(A))
samp_rate = scope.askFloat(":ACQ:SAMP?")
print '%d samples' % len(A)
print 'Sampling rate is %f' % samp_rate
# Put the scope back in local mode
scope.write(":KEY:FORC")
plt.specgram(A, Fs=samp_rate)
plt.show()
''' realtime_plot_demo.py
Realtime plot of both channels
This is a fork of realtime_chart.py to use the newer RigolScope interface
NOTE: This code has not yet been adapted or tested with pyoscope
'''
import numpy
from matplotlib import pyplot
import sys
import os
sys.path.append(os.path.expanduser('.'))
from rigol import RigolScope
import time
# Initialize our scope
scope = RigolScope("/dev/usbtmc0")
# Turn on interactive plotting
pyplot.ion()
while 1: # How can this loop be broken other than ^C?
# introduce a delay so that a break is recognized?
time.sleep(0.1)
scope.grabData()
data1 = scope.getScaledWaveform(1)
data2 = scope.getScaledWaveform(2)
t = scope.getTimeAxis()
# Start data acquisition again, and put the scope back in local mode
scope.forceTrigger()
#
# Copyright (c) 2011 Mike Hadmack
# Copyright (c) 2010 Matt Mets
# This code is distributed under the MIT license
#
# This script is just to test rigolscope functionality as a module
#
import numpy
from matplotlib import pyplot
import sys
import os
sys.path.append(os.path.expanduser('.'))
from rigol import RigolScope
# Initialize our scope
scope = RigolScope("/dev/usbtmc0")
scope.grabData()
data1 = scope.getScaledWaveform(1)
data2 = scope.getScaledWaveform(2)
# Now, generate a time axis.
time = scope.getTimeAxis()
# See if we should use a different time axis
if (time[599] < 1e-3):
time = time * 1e6
tUnit = "uS"
elif (time[599] < 1):
time = time * 1e3
tUnit = "mS"
else: