def RedPitaya_Connect ():
global rp_s, samplingrate_pitaya, buffersize_pitaya, pointernow, pointerold, actual_time_pitaya, old_time_pitaya, decimation
##OPEN CONNECTION TO RED PITAYA 1
rp_s = scpi.scpi('148.122.56.1')
decimation = 8192
buffersize_pitaya = 16384 #Buffersize [S]
samplingrate_pitaya = 125e6/decimation #Sampling rate [S/s]
rp_s.tx_txt('ACQ:RST') #reset aquire
rp_s.tx_txt('ACQ:DEC ' + str(decimation)) #set the decimation value
rp_s.tx_txt('ACQ:SOUR1:GAIN LV') #set voltage level according to jumpers (HV max 20V)
rp_s.tx_txt('ACQ:SOUR2:GAIN LV') #set voltage level according to jumpers (HV max 20V)
rp_s.tx_txt('ACQ:TRIG:LEV 0') #Trigger Level: 0 default = 0
rp_s.tx_txt('ACQ:TRIG:DLY 8192') #Trigger Delay: 8192 Samples default = 0
##Start the first acquisition
rp_s.tx_txt('ACQ:START') #Starts acquisition
rp_s.tx_txt('ACQ:TRIG DISABLED') #disabled --> continuous sampling
rp_s.tx_txt('ACQ:WPOS?') #ask for the actual pointer position
actual_time_pitaya = int(round(time.time() * 1000)) #in ms
old_time_pitaya = actual_time_pitaya
pointernow = int(rp_s.rx_txt())
def eval_scpi_slow_out_trigger_speed(rp_ip: str):
# Establish connection
rp_s = scpi.scpi(rp_ip)
# Reset acquisition
rp_s.tx_txt(f"ACQ:RST")
# Setup acquisition
rp_s.tx_txt(f"ACQ:DEC 64")
rp_s.tx_txt(f"ACQ:TRIG:LEV 0")
rp_s.tx_txt(f"ACQ:TRIG:DLY 0")
# Start acquisition
rp_s.tx_txt(f"ACQ:START")
time.sleep(1)
rp_s.tx_txt(f"ACQ:SOUR1:GAIN HV")
rp_s.tx_txt(f"ACQ:SOUR2:GAIN HV")
rp_s.tx_txt(f"ACQ:TRIG AWG_PE")
rp_s.tx_txt(f"SOUR2:TRIG:IMM")
rp_s.tx_txt(f"ANALOG:PIN AOUT0,1.8")
time.sleep(0.001)
rp_s.tx_txt(f"ANALOG:PIN AOUT0,0.1")
gen_data = get_data_on_trigger(rp_s, 2)
data_line_plt, data_line_ax = plt.subplots()
data_line_ax = data_line_ax.plot(gen_data)
data_line_plt.show()
def LED_blinking(number):
rp_s = scpi.scpi('192.168.128.1')
for i in range(5):
time.sleep(1 / 2.0)
rp_s.tx_txt('DIG:PIN LED' + str(number) + ',' + str(1))
time.sleep(1 / 2.0)
rp_s.tx_txt('DIG:PIN LED' + str(number) + ',' + str(0))
def scpi_server():
# Scpi args are in form ARG1 ARG2,...,ARGN
# as defined in scpi-99 standard
post_request = json.loads(request.data.decode())
rp_s = None
response = {'success': False, 'data': "Pitaya not connected!"}
print session['rp'].get('connected')
if (session['rp'].get('connected') == True):
rp_s = scpi.scpi(session.get('rp')['ip'])
print session.get('rp')['ip']
else:
pass
rp = session['rp']
exec_type = post_request.get('type')
if exec_type == 'single':
scpi_command = post_request.get('scpi_command')
scpi_args = post_request.get('scpi_args')
if scpi_args:
scpi_args = scpi_args.split(' ')
rp_s.tx_txt(scpi_command + ' ' + ''.join(scpi_args))
print scpi_command + ''.join(scpi_args)
elif exec_type == 'script':
scpi_script = post_request.get('scpi_script')
print scpi_script
response = {'success': True}
return jsonify(response), 200
def connect(self):
if self.rp_s is None:
self.rp_s = scpi.scpi(self.IP) # setting a timeout does not help (random crashes)
self.rp_s.tx_txt('ACQ:RST')
self.rp_s.tx_txt('ACQ:DEC 1')
self.rp_s.tx_txt('ACQ:TRIG:DLY 16384')
self.rp_s.tx_txt('ACQ:DATA:UNITS VOLTS')
self.rp_s.tx_txt('ACQ:AVG ON')
self.rp_s.tx_txt('ACQ:SOUR1:GAIN HV')
self.set_state(DevState.ON)
print('diode connected')
def eval_scpi_fast_out_trigger_speed(rp_ip: str):
# Establish connection
rp_s = scpi.scpi(rp_ip)
# Reset signal generator & oscilloscope
rp_s.tx_txt(f"GEN:RST")
rp_s.tx_txt(f"ACQ:RST")
# Setup siggen
# rp_s.tx_txt(f"SOUR1:FUNC SINE")
# rp_s.tx_txt(f"SOUR1:FREQ:FIX 1000")
# rp_s.tx_txt(f"SOUR1:VOLT 1")
# Setup arbitrary waveform
# wav = [0 for _ in range(1)] + [1 for _ in range(10000)]
wav = [0] + [1 for _ in range(10000)]
rp_s.tx_txt(
f"SOUR1:TRAC:DATA:DATA {str(wav).strip('[]').replace(' ', '')}")
rp_s.tx_txt(f"SOUR1:FUNC ARBITRARY")
# Set burst mode, 1 pulse
rp_s.tx_txt(f"SOUR1:BURS:STAT ON")
rp_s.tx_txt(f"SOUR1:BURS:NCYC 1")
rp_s.tx_txt(f"OUTPUT1:STATE ON")
# Setup acquisition
rp_s.tx_txt(f"ACQ:DEC 64")
rp_s.tx_txt(f"ACQ:TRIG:LEV 0")
rp_s.tx_txt(f"ACQ:TRIG:DLY 0")
# Start acquisition
rp_s.tx_txt(f"ACQ:START")
time.sleep(1)
rp_s.tx_txt(f"ACQ:SOUR1:GAIN HV")
rp_s.tx_txt(f"ACQ:SOUR2:GAIN HV")
rp_s.tx_txt(f"ACQ:TRIG AWG_PE")
rp_s.tx_txt(f"SOUR1:TRIG:IMM")
while True:
rp_s.tx_txt('ACQ:TRIG:STAT?')
if rp_s.rx_txt() == 'TD':
break
rp_s.tx_txt('ACQ:SOUR1:DATA?')
buff_string = rp_s.rx_txt()
gen_data = np.genfromtxt(
buff_string.strip('{}\n\r').replace(" ", "").split(','))
data_line_plt, data_line_ax = plt.subplots()
data_line_ax = data_line_ax.plot(gen_data)
data_line_plt.show()
def meas_start(self):
#if self.ui.ad_ver.text.isempty or self.ui.ad_name_meas.isempyty:
# self.ui.msg_text.setText("no path selcted")
#elif self.ui.ad_val_meas.isempty:
# self.ui.msg_text.setText("no num of cycle set")
#else:
# Variables
ip_adress = '192.168.128.1'
file_path = str(self.ui.ad_ver.text())+'/'+str(self.ui.ad_name_meas.text())+'.csv'
num_of_cycle = int(self.ui.ad_val_meas.text())
buff_array = ''
buff_np = np.zeros((num_of_cycle, 16384), float)
# inizilation trigger
rp_s = scpi.scpi(host=ip_adress)
rp_s.tx_txt('ACQ:DEC 64')
rp_s.tx_txt('ACQ:TRIG:LEVEL -21')
rp_s.tx_txt('ACQ:TRIG:DLY 12192')
rp_s.tx_txt('ACQ:START')
rp_s.tx_txt('ACQ:TRIG EXT_NE')
# wait untill trigger is activated
while 1:
rp_s.tx_txt('ACQ:TRIG:STAT?')
if rp_s.rx_txt() == 'TD':
break
for x in range(num_of_cycle):
# collecting all 16xxx values and save and convert
rp_s.tx_txt('ACQ:SOUR1:DATA?')
buff_string = rp_s.rx_txt()
buff_string = buff_string.strip('{}\n\r').replace(" ", "")
buff = np.fromstring(buff_string, sep=',')
buff = np.round(buff, 3)
buff_np[x:] = buff
np.savetxt(file_path, buff_np, delimiter=';', fmt='%.3f')
print('done')
import time
import redpitaya_scpi as scpi
import matplotlib.pyplot as plt
import numpy as np
from scipy.optimize import curve_fit
# redpitaya_scpi.py is used to connect to the SCPI server
def gaussian(x,a,b,n):
return n*np.exp(-(x-b)**2/(2*a))
# intialize fit function
ip = '169.254.174.98'
# Get IP by typing arp -a in cmd line and looking for RP MAC address
# Can also include ip as an argument when calling this script, use sys.argv
rp = scpi.scpi(ip)
# Initialize connection
rp.tx_txt('ACQ:RST')
# Reset acquisition parameters
decimation = 8
buff_time_ms = decimation * 131.072 * 10**-3
rp.tx_txt('ACQ:DEC '+str(decimation))
rp.tx_txt('ACQ:DEC?')
print('Decimation factor is '+rp.rx_txt())
print('Buffer length is ' +str(buff_time_ms) + ' ms')
# Set decimation, {1,8,64,1024,8192,65536}
avg = 'ON'
rp.tx_txt('ACQ:AVG '+ str(avg))
__author__ = "Luka Golinar <*****@*****.**>"
#Imports
import redpitaya_scpi as scpi
import unittest
#Scpi declaration
rp_scpi = scpi.scpi('192.168.1.241')
#Global variables
rp_dpin_p = {i: 'DIO' + str(i) + '_P' for i in range(8)}
rp_dpin_n = {i: 'DIO' + str(i) + '_N' for i in range(8)}
rp_a_pin_o = {i: 'AOUT' + str(i) for i in range(4)}
rp_a_pin_i = {i: 'AIN' + str(i) for i in range(4)}
rp_leds = {i: 'LED' + str(i) for i in range(8)}
rp_freq_range = [100, 1000, 10000, 100000, 1e+06, 1e+07, 3e+07]
rp_volt_range = [0.25, 0.5, 0.75, 1.0]
rp_phase_range = [-360, -180, -90, -30, 30, 90, 180, 360]
rp_offs_range = [-0.75, -0.5, -0.25, 0.25, 0.5, 0.75]
rp_dcyc_range = [0.5, 1, 10, 50, 75, 100]
rp_ncyc_range = [0, 1, 10, 100, 1000, 10000, 50000]
rp_nor_range = rp_ncyc_range[:]
rp_inp_range = [i * 100 for i in range(1, 6)]
rp_channels = ['CH1', 'CH2', 'MATH']
rp_scales = [0.5, 1, 2, 3, 10]
rp_decimation = ['1', '8', '64', '1024', '8192', '65536']
rp_sampling = ['100', '10000', '100000', '1000000', '10000000', '125000000']
rp_trig_dly = ['10', '1000', '10000', '16500']
rp_trig_dly_ns = ['10', '100', '250', '500']
rp_trig_level = ['10', '100', '1000'] #TODO: Add more options
# Before beginning, must execute: # ssh [email protected] "nohup systemctl start redpitaya_scpi &" # Send a guassian pulse from out1, acquire the pulse from in1, plot both import redpitaya_scpi as scpi import sys import math from scipy.signal import gaussian import matplotlib.pyplot as plt import matplotlib.ticker as mtick import numpy as np import time rp = scpi.scpi('rp-f06b95.local') # in secs decToTimeScale = { 1: 131.072E-6, 8: 1.049E-3, 64: 8.389E-3, 1024: 134.218E-3, 8192: 1.074, 65536: 8.590 } # ========= parameters ========= gaussAmpl = 1 freq = 3000 volt = 1 dec = 8 totalAmpl = gaussAmpl * volt
#!/usr/bin/python
import sys
import redpitaya_scpi as scpi
rp_s = scpi.scpi(sys.argv[1])
wave_form = 'sine'
freq = 10000
ampl = 1
rp_s.tx_txt('GEN:RST')
rp_s.tx_txt('SOUR1:FUNC ' + str(wave_form).upper())
rp_s.tx_txt('SOUR1:FREQ:FIX ' + str(freq))
rp_s.tx_txt('SOUR1:VOLT ' + str(ampl))
rp_s.tx_txt('SOUR1:BURS:NCYC 2')
rp_s.tx_txt('OUTPUT1:STATE ON')
rp_s.tx_txt('SOUR1:BURS:STAT ON')
rp_s.tx_txt('SOUR1:TRIG:SOUR EXT_PE')
#!192.168.158.88
import redpitaya_scpi as scpi
import matplotlib.pyplot as plt
import numpy as np
import time
import math
plt.close('all')
rp_s = scpi.scpi('192.168.158.88')
print('Connected to RedPitaya')
rp_s.tx_txt('GEN:RST')
rp_s.tx_txt('ACQ:RST')
rp_s.tx_txt('ACQ:BUF:SIZE?')
BUFF_SIZE = int(rp_s.rx_txt())
#BUFF_SIZE = 15644
print(BUFF_SIZE)
f = 50
y1 = ''
t = []
#set up the values of the waveform
u50 = 1
f50 = 1
uharm = 0.1
fharm = 5
#calculate total waveform to normalize later
x = np.linspace(
0, 2 * np.pi,
BUFF_SIZE) # generates x axis in range 0 to 6 with 20000 points
y = u50 * np.sin(2 * np.pi * x) + uharm * np.sin(2 * fharm * np.pi * x)
import redpitaya_scpi as scpi
import time
rp_s = scpi.scpi('152.78.194.163') #connect to red pitaya ip
#-----------------------------------------------------------------------------
def startRP(dec=1, lvl=0, dly=8192):
sample_rate_dict = {'125':'125MHz', '15.6': '15_6MHz', '1.9': '1_9MHz'} #possible sample rates
rp_s.tx_txt('ACQ:DEC %d' %dec) #decimation
rp_s.tx_txt('ACQ:SRAT '+ sample_rate_dict['125']) #sample rate
rp_s.tx_txt('ACQ:TRIG:LEV %d' %lvl) #trigger level in mV
rp_s.tx_txt('ACQ:TRIG:DLY %d' %dly) #trigger delay in sample steps
#-----------------------------------------------------------------------------
'''Function to read data from Red Pitaya and return as array'''
def getdata(ch=1, tch=1):
rp_s.tx_txt('ACQ:START')
rp_s.tx_txt('ACQ:TRIG CH%d_PE' % tch)
while 1:
rp_s.tx_txt('ACQ:TRIG:STAT?')
if rp_s.rx_txt() == 'TD':
break
rp_s.tx_txt('ACQ:SOUR%d:DATA:LAT:N? 16384' % ch)
buff_string = rp_s.rx_txt()
buff_string = buff_string.strip('{}\n\r').replace(" ", "").split(',')
buff = map(float, buff_string)
return buff
#!/usr/bin/python
import sys
import redpitaya_scpi as scpi
import matplotlib.pyplot as plot
import time
rp_s = scpi.scpi("148.122.56.1")
buff_string = ""
dec = 1.00000000
freq = 7632.0
while (1):
mode = input("Select mode")
if mode == "acq":
x = []
rp_s.tx_txt("ACQ:DEC " + str(int(dec)))
rp_s.tx_txt('ACQ:START')
rp_s.tx_txt("ACQ:TRIG:DLY 16384")
rp_s.tx_txt('ACQ:TRIG NOW')
while 1:
rp_s.tx_txt('ACQ:TRIG:STAT?')
if rp_s.rx_txt() == 'TD':
break
rp_s.tx_txt('ACQ:SOUR1:DATA?')
buff_string = rp_s.rx_txt()
rp_s.tx_txt('ACQ:WPOS?')
print(rp_s.rx_txt())
buff_string = buff_string.strip('{}\n\r').replace(" ", "").split(',')
buff = list(map(float, buff_string))
err = 0
for item in buff:
if item > 1 or item < -1:
import peakutils
from peakutils.plot import plot as pplt
#-----------------------------------------------------------------------------
'''Create figure'''
plt.ion()
fig = plt.figure(figsize=(8,6))
ax = fig.add_subplot(111)
#ax2 = fig.add_subplot(212)
ax.set_ylabel('Voltage(V)')
ax.set_xlabel('Arbitrary Scale')
#-----------------------------------------------------------------------------
rp_s = scpi.scpi('152.78.193.126') #connect to red pitaya ip
xscale = 1 #scale of x-axis in ms
sample_rate_dict = {'125':'125MHz', '15.6': '15_6MHz', '1.9': '1_9MHz'} #possible sample rates
rp_s.tx_txt('ACQ:DEC 64') #decimation
rp_s.tx_txt('ACQ:SRAT '+ sample_rate_dict['125']) #sample rate
rp_s.tx_txt('ACQ:TRIG:LEV 0') #trigger level in mV
rp_s.tx_txt('ACQ:TRIG:DLY 8192') #trigger delay in sample steps
#-----------------------------------------------------------------------------
'''Function to read data from Red Pitaya and return as array'''
def getdata(ch=1, tch=2):
rp_s.tx_txt('ACQ:START')
# Setup acquisition
acq.reset_acquisition(rp_s)
acq.set_decimation(rp_s, 1)
trig.set_trigger_level(rp_s, 500)
trig.set_trigger_delay(rp_s, 17000)
acq.set_channel_gain(rp_s, 1, "HV")
acq.set_channel_gain(rp_s, 2, "HV")
acq.start_acquisition(rp_s)
trig.set_trigger_mode(rp_s, "NOW")
gen.pulse_slow_analog_out(rp_s, aout=0, voltage=1.8, duration=0)
trig.wait_for_trigd(rp_s)
data_ch1 = acq.get_channel_data(rp_s, 1)
data_ch2 = acq.get_channel_data(rp_s, 2)
return data_ch1.append(data_ch2)
if __name__ == '__main__':
parser = argparse.ArgumentParser()
parser.add_argument("IP", type=str, help="The IP adress of the RedPitaya")
arguments = parser.parse_args()
sns.set_style("darkgrid")
rp_connection = scpi.scpi(arguments.IP)
try:
eval_sipm(rp_s=rp_connection, num=2)
finally:
rp_connection.close()
__author__ = "Luka Golinar <*****@*****.**>"
#Imports
import sys
import redpitaya_scpi as scpi
import unittest
import collections
#Scpi declaration
rp_scpi = scpi.scpi('192.168.178.115')
#Global variables
rp_dpin_p = {i: 'DIO'+str(i)+'_P' for i in range(8)}
rp_dpin_n = {i: 'DIO'+str(i)+'_N' for i in range(8)}
rp_a_pin_o = {i: 'AOUT'+str(i) for i in range(4)}
rp_a_pin_i = {i: 'AIN'+str(i) for i in range(4)}
rp_leds = {i: 'LED'+str(i) for i in range(8)}
rp_freq_range = [100, 1000, 10000, 100000, 1e+06, 1e+07, 3e+07]
rp_volt_range = [0.25, 0.5, 0.75, 1.0]
rp_phase_range = [360, -180, -90, -30, 30, 90, 180, 360]
rp_offs_range = [-0.75, -0.5, -0.25, 0.25, 0.5 , 0.75]
rp_dcyc_range = [0.5, 1, 10, 50, 75, 100]
rp_ncyc_range = [1, 10, 100, 1000, 10000, 50000, 'INF']
rp_nor_range = rp_ncyc_range[:]
rp_inp_range = [i * 100 for i in range(1, 6)]
rp_wave_forms = ['SINE', 'SQUARE', 'TRIANGLE', 'PWM', 'SAWU', 'SAWD']
def capture_traces(profiling=False, n_traces=1000, ext=''):
# for dynamic plotting of traces
if (plotting):
plt.ion()
plt.show()
print('\n==============================')
print('= =')
print('= TRACES ACQUISITION =')
print('= =')
print('==============================\n')
if (ext != ''):
print('Set extension: ' + ext)
# input('Press enter to proceed...\n')
if plotting:
plt.figure(1)
plt.xticks([])
plt.yticks([])
plt.text(0.4, 0.5, 'Press enter to proceed...')
input('Press enter to proceed...\n')
# connection info to Red Pitaya
# SCPI server should run
rp_addr = '192.168.1.6'
rp_port = 5000
rp_timeout = 5
rp_s = scpi.scpi(rp_addr, timeout=rp_timeout, port=rp_port)
rp_s.tx_txt('ACQ:RST')
# connection info to Arduino
# ser_port = '/dev/tty.usbmodem14101'
ser_port = 'COM5'
ser_baud = 19200
ser_timeout = 5
ser = serial.Serial(ser_port, ser_baud, timeout=ser_timeout)
s = ser.readline()
print(s.decode())
# commands for Arduino
LOAD_KEY = bytes([0x01])
STOR_KEY = bytes([0x02])
ENC_TXT = bytes([0x10])
DEC_TXT = bytes([0x11])
REQ_VER = bytes([0xff])
# preparation of the demodulation parameters (only for display)
fs = 125 # sampling frequency [MHz]
cutoff = 10 # cutoff frequency [MHz]
width = 4 # transition width [MHz]
attenuation = 65 # stop band attenuation [dB]
# trace acquisition parameters
nt = n_traces # total number of traces
nl = 16384 # number of samples per trace
if (profiling):
print('CAPTURING PROFILING TRACES')
filename = '../traces/profiling_set_nt_' + str(nt) + ext + '.mat'
else:
print('CAPTURING ATTACK TRACES')
filename = '../traces/attack_set_nt_' + str(nt) + ext + '.mat'
traces = np.zeros((nt, nl))
traces_sum = np.zeros(nl)
traces_sum2 = np.zeros(nl)
if (profiling):
keys = np.zeros((nt, 32))
plaintexts = np.zeros((nt, 16))
ciphertexts = np.zeros((nt, 16))
# for handling timeout with red pitaya commands
acquisitionDone = False
timeoutInARow = 0
maxTimeoutInARow = 5
for i in range(nt):
print('-------------------------')
print('Trace ' + str(i + 1) + ' (' + str(nt) + ')')
print('-------------------------')
timeoutInARow = 0
acquisitionDone = False
while acquisitionDone == False:
try:
# oscilloscope configuration
rp_s.tx_txt('ACQ:START')
rp_s.tx_txt('ACQ:DEC 1')
rp_s.tx_txt('ACQ:SOUR1:GAIN LV')
rp_s.tx_txt('ACQ:SOUR2:GAIN LV')
rp_s.tx_txt('ACQ:TRIG:LEV 300 mV')
rp_s.tx_txt('ACQ:TRIG:LEV?')
data = rp_s.rx_txt()
# print('Trigger level ' + data)
rp_s.tx_txt('ACQ:TRIG:DLY 8000')
rp_s.tx_txt('ACQ:TRIG:DLY?')
data = rp_s.rx_txt()
# print('Trigger delay ' + data)
rp_s.tx_txt('ACQ:TRIG CH2_PE')
rp_s.tx_txt('ACQ:TRIG:STAT?')
data = rp_s.rx_txt()
# print('Trigger status ' + data)
# sending key
if (profiling):
key = np.random.bytes(32)
ser.write(LOAD_KEY)
s = ser.readline()
print(s.decode()[:-1])
ser.write(key)
s = ser.readline()
print(s.decode()[:-1])
s_hex = "KEY: " + "".join('%02x ' % b for b in key)
print(s_hex)
# sending plaintext
plaintext = np.random.bytes(16)
ser.write(ENC_TXT)
s = ser.readline()
print(s.decode()[:-1])
ser.write(plaintext)
ptx = "".join('%02x ' % b for b in plaintext)
s_hex = "PTX: " + ptx
print(s_hex)
# waiting 1ms to make the AES execution is complete
time.sleep(0.001)
# ciphertext recovery
ciphertext = ser.read(16)
ctx = "".join('%02x ' % b for b in ciphertext)
s_hex = "CTX: " + ctx
print(s_hex)
# check if triggered
rp_s.tx_txt('ACQ:TRIG:STAT?')
data = rp_s.rx_txt()
if data == 'TD':
print()
else:
print("Error: no trigger detected. Stopping acquisition.")
exit()
# trace acquisition
rp_s.tx_txt('ACQ:SOUR1:DATA?')
data = rp_s.rx_txt()
data = data.strip('{}\n\r')
trace = np.fromstring(data, dtype=float, sep=',')
# stopping acquisition
rp_s.tx_txt('ACQ:STOP')
acquisitionDone = True
except socket.timeout:
# this exception handling is there because of (so far) unexpected
# loss of TCP connection with the Red Pitaya: it stops answering
# requests and a timeout exception is issued
#
# the only solution I found is to re-open the connection
# with the Red Pitaya (max 5 times)
rp_s.close()
rp_s = scpi.scpi(rp_addr, timeout=rp_timeout, port=rp_port)
acquisitionDone = False
timeoutInARow += 1
if timeoutInARow >= maxTimeoutInARow:
print('Something is fishy, too many timeouts!')
exit()
else:
print('Timeout during acquisition! Re-trying...')
if (profiling):
keys[i, :] = np.frombuffer(key, dtype=np.uint8).astype(float)
plaintexts[i, :] = np.frombuffer(plaintext,
dtype=np.uint8).astype(float)
ciphertexts[i, :] = np.frombuffer(ciphertext,
dtype=np.uint8).astype(float)
traces[i, :] = trace
# trace demodulation (only for display)
trace_demodulated = sca.kaiser_LP_filter(np.absolute(trace), fs,
cutoff, width, attenuation)
traces_sum += trace_demodulated
traces_sum2 += trace_demodulated**2
traces_avg = traces_sum / (i + 1)
traces_var = traces_sum2 / (i + 1) - traces_avg**2
if (plotting):
plt.figure(1)
plt.clf()
plt.subplot(2, 1, 1)
plt.title('Trace ' + str(i) + ' (' + str(nt) + ')', fontsize=20)
plt.axis([0, nl, 0, 0.06])
plt.plot(trace_demodulated)
plt.ylabel('demodulated', fontsize=15)
plt.tick_params(axis='both',
which='both',
bottom=False,
top=False,
left=False,
right=False,
labelleft=False,
labelbottom=False)
plt.subplot(2, 1, 2)
plt.axis([0, nl, 0, 0.05])
plt.plot(traces_avg)
plt.ylabel('average', fontsize=15)
plt.xlabel('time samples', fontsize=15)
plt.tick_params(axis='both',
which='both',
bottom=False,
top=False,
left=False,
right=False,
labelleft=False,
labelbottom=False)
plt.draw()
plt.pause(0.01)
if (profiling):
sio.savemat(
filename,
dict([('nt', nt), ('nl', nl), ('keys', keys),
('plaintexts', plaintexts), ('ciphertexts', ciphertexts),
('traces', traces)]))
else:
sio.savemat(
filename,
dict([('nt', nt), ('nl', nl), ('plaintexts', plaintexts),
('ciphertexts', ciphertexts), ('traces', traces)]))
print('\nTraces saved in ' + filename + '\n')
ser.close()
#! /usr/bin/python
import sys
import time
import redpitaya_scpi as scpi
# redpitaya_scpi.py is used to connect to the SCPI server
ip = '169.254.174.98'
# Get IP by typing arp -a in cmd line and looking for RP MAC address
# Can also include ip as an argument when calling this script, use sys.argv
rp_s = scpi.scpi(ip)
# Initialize connection
def SetDecimation(dec,rp):
rp.tx_txt('ACQ:DEC '+str(dec))
def StartAcquisition(rp):
rp.tx_txt('ACQ:START')
class FastAnalogOutput:
def __init__(self,sourceNum):
self.source = str(sourceNum)
self.waveform = 'SINE'
self.freq = 1000
self.ampl = 1
self.state = 'OFF'
self.offset = 0
self.phase = 0
self.duty = 50
import time
import socket
import numpy as np
import matplotlib.pyplot as plt
from scipy import signal
import scipy.io as sio
import redpitaya_scpi as scpi
import scalib as sca
demodulation = True
plotting = False
rp_addr = '192.168.1.6'
rp_port = 5000
rp_timeout = 5
rp_s = scpi.scpi(rp_addr, timeout=rp_timeout, port=rp_port)
rp_s.tx_txt('ACQ:RST')
# connection info to Arduino
ser_port = 'COM5'
ser_baud = 19200
ser_timeout = 5
ser = serial.Serial(ser_port, ser_baud, timeout=ser_timeout)
s = ser.readline()
print(s.decode())
# projection profiles
filename = '../traces/PP_CPA.mat'
mat_contents = sio.loadmat(filename)
alphas = mat_contents['alphas']
import sys
import time
import redpitaya_scpi as scpi
print(sys.argv)
rp_ip = '129.199.115.243'
rp_s = scpi.scpi(rp_ip)
if (len(sys.argv) > 2):
led = int(sys.argv[2])
else:
led = 0
print("Blinking LED[" + str(led) + "]")
period = 1 # seconds
time_start = time.time()
while time.time() < time_start + 10:
time.sleep(period / 2.0)
rp_s.tx_txt('DIG:PIN LED' + str(led) + ',' + str(1))
time.sleep(period / 2.0)
rp_s.tx_txt('DIG:PIN LED' + str(led) + ',' + str(0))
# Import needed modules from osc4py3
from osc4py3.as_eventloop import *
from osc4py3 import oscbuildparse
import time
import redpitaya_scpi as scpi
rp_s = scpi.scpi('0')
# clear all leds
for i in range(8):
rp_s.tx_txt('DIG:PIN LED' + str(i) + ',' + str(0))
# Start the system.
osc_startup()
# Make client channels to send packets.
osc_udp_client("10.0.10.101", 1234, "redpitaya")
# Build a simple message and send it.
msg = oscbuildparse.OSCMessage("/test/me", ",sif", ["text", 672, 8.871])
osc_send(msg, "redpitaya")
# Build a message with autodetection of data types, and send it.
msg = oscbuildparse.OSCMessage("/test/me", None, ["text", 672, 8.871])
osc_send(msg, "redpitaya")
# Buils a complete bundle, and postpone its executions by 10 sec.
# exectime = time.time() + 10 # execute in 10 seconds
msg1 = oscbuildparse.OSCMessage("/sound/levels", None, [1, 5, 3])
# msg2 = oscbuildparse.OSCMessage("/sound/bits", None, [32])
# msg3 = oscbuildparse.OSCMessage("/sound/freq", None, [42000])
def __init__(self, ip, port=5000, exceptions=[]):
super(RedPitaya, self).__init__()
#RedPitaya server implemented in redpitaya_scpi.py (code from RedPitaya docs)
self.rp_server = scpi.scpi(ip, port=port, exceptions=exceptions)
#!/usr/bin/python
import sys
import redpitaya_scpi as scpi
import matplotlib.pyplot as plot
file = 'Prueba.txt'
Data = open(file, 'w')
Data.close()
if len(sys.argv) > 1:
print(sys.argv[1])
else:
IP = '192.168.0.52' # Red Piyata IP
rp_s = scpi.scpi(IP)
rp_s.tx_txt('ACQ:DEC 1')
rp_s.tx_txt('ACQ:TRIG:LEVEL 30') # Trigger level 1 Volt
NPulses = 1000 # Number of pulses
for j in range(0, NPulses):
rp_s.tx_txt('ACQ:START')
rp_s.tx_txt('ACQ:TRIG EXT_PE')
while 1:
rp_s.tx_txt('ACQ:TRIG:STAT?')
if rp_s.rx_txt() == 'TD':
break
#!/usr/bin/python
"""
Author Nicolas Peschke
Date 26.07.2019
"""
import redpitaya_scpi as scpi
import time
rp_s = scpi.scpi("10.11.79.149")
for _ in range(100):
rp_s.tx_txt(f"ANALOG:PIN AOUT0,1.8")
time.sleep(1)
rp_s.tx_txt(f"ANALOG:PIN AOUT0,0.1")
time.sleep(1)
https://github.com/RedPitaya/RedPitaya/blob/master/Examples/python/redpitaya_scpi.py)
Device: Redpitaya STEMlab 14bit
"""
import redpitaya_scpi as scpi
import matplotlib.pyplot as plt
import time
import pandas as pd
import os
import sys
plt.close('all') #close all open plots
try:
rp_s = scpi.scpi(
'192.168.158.88') #IP of redpitaya - IS THE SCPI SERVER RUNNING?
print('Connected to RedPitaya')
except:
print('Redpitaya connection NOT successful.')
print('Redpitaya running? SCPI Server running?.')
sys.exit('Execution aborted')
#Prep the device. Reset. Acquire buffer size
rp_s.tx_txt('ACQ:RST')
rp_s.tx_txt('ACQ:BUF:SIZE?')
BUFF_SIZE = int(rp_s.rx_txt())
print(BUFF_SIZE)
avg_corr = -0.0215 #Average correction offset - the RP output channel seem to have some offset
""" Waveform input. Can be calculated manually (function). In this case a csv is read. """
#Locate the file with ~16000 values (csv) - Backslash must be forward slash!
ax3.set_xlabel('Frequency (MHz)', **axis_font)
if do_piderror_plot:
fig2 = plt.figure(2, figsize=(22.5 / 2.53, 8. / 2.53))
fig2.subplots_adjust(left=0.25)
fig2.subplots_adjust(bottom=0.25)
fig2.subplots_adjust(top=0.90)
fig2.subplots_adjust(right=0.95)
ax21 = fig2.add_subplot(111)
ax21_hdl, = ax21.plot([], [])
ax21.set_xlabel('Time (s)', **axis_font)
ax21.set_ylabel('Pid error (MHz)', **axis_font)
###REMOTE CONNECTION
rp_s = scpi.scpi("10.64.11.12")
# rp_s = scpi.scpi("169.254.255.216")
# print '###START RECORDING###'
# print 'decimation is', decimation,
# print 'Nr of runs', num_run
# print 'Nr of samples', buff_len
# print 'sample_rate_MHz', sample_rate_MHz
# print 'sampling distance_ms', delta_time_s_ms
###START PID
###READ USER INPUT
newstdin = sys.stdin.fileno()
reading_process = multiprocessing.Process(target=read_user_input,
args=(newstdin, flag, pid_status,
show_status, P_pid, I_pid,
__author__ = "Luka Golinar <*****@*****.**>"
#Imports
import redpitaya_scpi as scpi
import unittest
#Scpi declaration
rp_scpi = scpi.scpi('192.168.1.241')
#Global variables
rp_dpin_p = {i: 'DIO'+str(i)+'_P' for i in range(8)}
rp_dpin_n = {i: 'DIO'+str(i)+'_N' for i in range(8)}
rp_a_pin_o = {i: 'AOUT'+str(i) for i in range(4)}
rp_a_pin_i = {i: 'AIN'+str(i) for i in range(4)}
rp_leds = {i: 'LED'+str(i) for i in range(8)}
rp_freq_range = [100, 1000, 10000, 100000, 1e+06, 1e+07, 3e+07]
rp_volt_range = [0.25, 0.5, 0.75, 1.0]
rp_phase_range = [-360, -180, -90, -30, 30, 90, 180, 360]
rp_offs_range = [-0.75, -0.5, -0.25, 0.25, 0.5 , 0.75]
rp_dcyc_range = [0.5, 1, 10, 50, 75, 100]
rp_ncyc_range = [0, 1, 10, 100, 1000, 10000, 50000]
rp_nor_range = rp_ncyc_range[:]
rp_inp_range = [i * 100 for i in range(1, 6)]
rp_channels = ['CH1', 'CH2', 'MATH']
rp_scales = [0.5, 1, 2, 3, 10]
rp_decimation = ['1', '8', '64', '1024', '8192', '65536']
rp_sampling = ['100', '10000', '100000', '1000000', '10000000', '125000000']
rp_trig_dly = ['10', '1000', '10000', '16500']
rp_trig_dly_ns = ['10', '100', '250', '500']
import redpitaya_scpi as scpi
import matplotlib.pyplot as plt
import numpy as np
import time
from keras.models import load_model
import tensorflow as tf
from FeatureExtraction import signal_feature
from BlackBox import LED_blinking
#Establishing SCPI connection
rp = scpi.scpi('192.168.128.1')
while 1:
rp.tx_txt('ACQ:DEC 64') #DECIMATION FACTOR
rp.tx_txt('ACQ:TRIG EXT_PE') #TRIGGER SOURCE
rp.tx_txt('ACQ:TRIG:DLY 8192') #DELAY SET
rp.tx_txt('ACQ:START') #ACQUISTION START
while 1:
rp.tx_txt('ACQ:TRIG:STAT?') #TRIGGER STATS
if rp.rx_txt() == 'TD':
break
rp.tx_txt('ACQ:SOUR1:DATA?') #DATA FROM CHANNEL SOURCE1
stri = rp.rx_txt()[1:-1]
measRes = np.fromstring(stri, dtype=float, sep=',')
plt.plot(measRes) #PLOT THE SIGNAL
plt.show(block=False)
time.sleep(5)
plt.close("all")
signal = np.array([measRes])
f = open("Signal.csv", "a")
np.savetxt(f, signal, fmt='%3.8f', delimiter=',') #SAVING THE SIGNAL
f.close()
#!/usr/bin/python
import redpitaya_scpi as scpi
import time
import sys
__author__ = "Luka Golinar, Iztok Jeras"
__copyright__ = "Copyright 2015, Red Pitaya"
rp_s = scpi.scpi(sys.argv[1])
time_out = 1#seconds
diode = 5
while 1:
time.sleep(time_out)
rp_s.tx_txt(rp_s.choose_state(diode, 1))
time.sleep(time_out)
rp_s.tx_txt(rp_s.choose_state(diode, 0))
#!/usr/bin/python
import redpitaya_scpi as scpi
import matplotlib.pyplot as plot
import time
import numpy as np
# Variables
ip_adress = '192.168.128.1'
file_path = r'Ergebnisse/Test/Test.csv'
num_of_cycle = 10
buff_array = ''
buff_np = np.zeros((num_of_cycle, 16384), float)
#inizilation trigger
rp_s = scpi.scpi(host=ip_adress)
rp_s.tx_txt('ACQ:DEC 64')
rp_s.tx_txt('ACQ:TRIG:LEVEL -21')
rp_s.tx_txt('ACQ:TRIG:DLY 12192')
rp_s.tx_txt('ACQ:START')
rp_s.tx_txt('ACQ:TRIG EXT_NE')
#wait untill trigger is activated
while 1:
rp_s.tx_txt('ACQ:TRIG:STAT?')
if rp_s.rx_txt() == 'TD':
break
for x in range(num_of_cycle):
#collecting all 16xxx values and save and convert
