def script(self):
#self.TestProcedure.ICD.writePrbFpga(0x1002, 0x12)
##d. Read FPGA address 0x3000 and verify the response is 0x12.
val = self.TestProcedure.ICD.readPrbFpga(0x3000)
self.verify("FPGA 0x3000", 0x12, val)
if val != 0x12:
self.verify("ERROR", 0x12, val)
#32-42 1 degree steps, 27-17 5 degree steps
temperatures = [32,33,34,35,36,37,38,39,40,41,42,27,22,17]
stabilization_mins = 10
chamber = watlowF4ipy.WatlowF4_temp_window(3,debug=True)
for temperature in temperatures:
chamber.set_temperature_and_time(temperature,temperature-0.3,
temperature+0.3,stabilization_mins)
while chamber.dwelltime_endpoint_reached() == False:
#pause before checking the flag again
time.sleep(2)
# calibrate once on channel 0
self.TestProcedure.ICD.calibrateCc1020()
self.DumpCalResult()
inv_flag = 0x01
DoCalFlag = 0x01
MaxCalTries = 0x03
ExitDelaySecs = 0x01
# Scan and link on Channel 0, with data inversion active
# Initialize the CC1000 Calibration Config Table
self.TestProcedure.ICD.writePrbFpga(0x1026, 0x00)
devList = self.icdcmd.scan(17, 2)
print "type(devList):",type(devList)
self.icdcmd.connect((UInt32) (2100146))
time.sleep(1)
# Initialize the Cal config table
self.initCalConfigTable()
self.writeCalConfigTable(0)
# Write the test control table
self.writeCalControlTable(DoCalFlag, MaxCalTries, ExitDelaySecs)
# Load the CCTestPatch firmware image to S-ICD RAM
# self.writeCCTestPatch()
# Start the test, the test patch will wait 10 seconds to allow for a break link
self.icdcmd.writeUint16(Key.INT_VEC_TCMP0, 0x6A08)
# break link with the S-ICD
wfdeState = WaitForDisconnectedEventState(Key.DONT_CARE, 0x0)
try:
self.icdcmd.EventWaiter.execState(wfdeState, TimeSpan.FromSeconds(2))
except Exception, ex:
print str(ex)
time.sleep(20.0)
# Loop through all candidate frequencies and calibrate
for index in range(0, self.loop_count):
test_time = time.clock()
print "Loop Index = ", index
print "Test time = %.2d:%06.3f"%(test_time/60,test_time%60.0)
if index%8 == 0:
print "Candidate Frequency = 402.8183MHz, LSI"
elif index%8 == 1:
print "Candidate Frequency = 403.5108MHz, HSI"
elif index%8 == 2:
print "Candi4ate Frequency = 402.4942MHz, LSI"
elif index%8 == 3:
print "Candidate Frequency = 404.6167MHz, HSI"
elif index%8 == 4:
print "Candidate Frequency = 402.7209MHz, HSI"
elif index%8 == 5:
print "Candidate Frequency = 402.4049MHz, HSI"
elif index%8 == 6:
print "Candidate Frequency = 404.5197MHz, LSI"
elif index%8 == 7:
print "Candidate Frequency = 402.7049MHz, LSI"
# get initial frequency values for channel 0
val_2 = 0x35 #self.TestProcedure.ICD.readPrbFpga(0x305E)
val_1 = 0xF0 #self.TestProcedure.ICD.readPrbFpga(0x3060)
val_0 = 0x21 #self.TestProcedure.ICD.readPrbFpga(0x3062)
freq_a_init = val_2*65536 + val_1*256 + val_0
print " PRB FREQ_A = ",freq_a_init
val_2 = 0x35 #self.TestProcedure.ICD.readPrbFpga(0x3066)
val_1 = 0xFA #self.TestProcedure.ICD.readPrbFpga(0x3068)
val_0 = 0xCB #self.TestProcedure.ICD.readPrbFpga(0x306A)
freq_b_init = val_2*65536 + val_1*256 + val_0
print " PRB FREQ_B = ",freq_b_init
# Scan and link on Channel 0, with data inversion active
self.TestProcedure.ICD.writePrbFpga(0x1026, 0x00)
devList = self.icdcmd.scan(17, 2)
print " type(devList):",type(devList)
print " devList ",devList
self.TestProcedure.ICD.writePrbFpga(0x3012, inv_flag)
val = self.TestProcedure.ICD.readPrbFpga(0x1026)
print " Channel Selection = ",val
val = self.TestProcedure.ICD.readPrbFpga(0x3012)
print " Data inversion = ",val
self.icdcmd.connect((UInt32) (2100146))
time.sleep(1)
# Read CC1020 AFC register and verify correction logic
val_0 = 0
val_1 = 0
for iter in range(0, 10):
val_0 = self.TestProcedure.ICD.readCC1020(int(CC1020Register.AFC))
if val_0 > 127:
val_0 = val_0 - 256
print " PRB AFC = ",val_0
val_1 = val_1 + val_0
print " PRB Average AFC = ",val_1/10.0
#
val_2 = self.TestProcedure.ICD.readCC1020(int(CC1020Register.FREQ_2A))
val_1 = self.TestProcedure.ICD.readCC1020(int(CC1020Register.FREQ_1A))
val_0 = self.TestProcedure.ICD.readCC1020(int(CC1020Register.FREQ_0A))
freq_a = val_2*65536 + val_1*256 + val_0
print " PRB FREQ_A = ",freq_a
val_2 = self.TestProcedure.ICD.readCC1020(int(CC1020Register.FREQ_2B))
val_1 = self.TestProcedure.ICD.readCC1020(int(CC1020Register.FREQ_1B))
val_0 = self.TestProcedure.ICD.readCC1020(int(CC1020Register.FREQ_0B))
freq_b = val_2*65536 + val_1*256 + val_0
print " PRB FREQ_B = ",freq_b
# compute frequency offset
val = (freq_a -1)/2 - (freq_a_init-1)/2
print " PRB AFC_A = ",val
val = (freq_b -1)/2 - (freq_b_init-1)/2
print " PRB AFC_B = ",val
# set the filter to widest bandwidth to get an unsaturated RSSI
val = self.TestProcedure.ICD.readCC1020(int(CC1020Register.FILTER))
print " PRB CC1020 FILTER = ", val
self.TestProcedure.ICD.writeCC1020(int(CC1020Register.FILTER), 0x80)
time.sleep(0.080)
# read RSSI 10 times and compute the average
val_0 = 0
val_1 = 0
for iter in range(0, 10):
val_0 = self.TestProcedure.ICD.readCC1020(int(CC1020Register.RSSI))
print " PRB RSSI = ",val_0
val_1 = val_1 + val_0
print " PRB Average RSSI = ",val_1/10.0
# restore the filter setting
self.TestProcedure.ICD.writeCC1020(int(CC1020Register.FILTER), 0x22)
time.sleep(0.080)
# Dump the Tx/Rx cal results
self.DumpSicdCalResults()
# Write the calibration configuration table for a specific frequency
self.writeCalConfigTable(index+1)
self.icdcmd.ping()
# Start the test, the test patch will wait 10 seconds to allow for a break link
self.icdcmd.writeUint16(Key.INT_VEC_TCMP0, 0x6A08)
# break link with the S-ICD
wfdeState = WaitForDisconnectedEventState(Key.DONT_CARE, 0x0)
try:
self.icdcmd.EventWaiter.execState(wfdeState, TimeSpan.FromSeconds(2))
except Exception, ex:
print str(ex)
time.sleep(20.0)
def script(self):
# Read FPGA address 0x3000 and verify the response is 0x12.
val = self.TestProcedure.ICD.readPrbFpga(0x3000)
self.verify("FPGA 0x3000", 0x12, val)
if val != 0x12:
self.verify("ERROR", 0x12, val)
sg=sig_gen("GPIB::18",'SIG_GEN')
# read the MATCH value from EEPROM and write to the PRB
#need to add read here...
# write the legacy frequency to PRB channel 0 registers
self.TestProcedure.ICD.writePrbFpga(0x3024, 0x35)
self.TestProcedure.ICD.writePrbFpga(0x3026, 0xF0)
self.TestProcedure.ICD.writePrbFpga(0x3028, 0x21)
self.TestProcedure.ICD.writePrbFpga(0x302C, 0x35)
self.TestProcedure.ICD.writePrbFpga(0x302E, 0xFA)
self.TestProcedure.ICD.writePrbFpga(0x3030, 0xCB)
# calibrate once on channel 0
self.TestProcedure.ICD.calibrateCc1020()
time.sleep(0.300)
val = self.TestProcedure.ICD.readPrbFpga(0x2012)
print " PRB badCal = ", val
val = self.TestProcedure.ICD.readCC1020(int(CC1020Register.STATUS))
print " PRB STATUS register = ", val
self.DumpCalResult()
# log the filter setting
val = self.TestProcedure.ICD.readCC1020(int(CC1020Register.FILTER))
print " CC1020 FILTER = ", val
time.sleep(0.080)
#45-5 5 degree steps
temperatures = range(45,4,-5)
stabilization_mins = 10
chamber = watlowF4ipy.WatlowF4_temp_window(3,debug=True)
for temperature in temperatures:
chamber.set_temperature_and_time(temperature,temperature-0.3,
temperature+0.3,stabilization_mins)
while chamber.dwelltime_endpoint_reached() == False:
#pause before checking the flag again
time.sleep(2)
for index in range(0, self.loop_count):
test_time = time.clock()
print "Loop Index = ", index
print "Test time = %.2d:%06.3f"%(test_time/60,test_time%60.0)
if index%9 == 0:
print "Candidate Frequency = 402.8183MHz, LSI"
sg.set_output_frequency(402818300)
elif index%9 == 1:
print "Candidate Frequency = 403.5108MHz, HSI"
sg.set_output_frequency(403510800)
elif index%9 == 2:
print "Candidate Frequency = 402.4942MHz, LSI"
sg.set_output_frequency(402494200)
elif index%9 == 3:
print "Candidate Frequency = 404.6167MHz, HSI"
sg.set_output_frequency(404616700)
elif index%9 == 4:
print "Candidate Frequency = 402.7209MHz, HSI"
sg.set_output_frequency(402720900)
elif index%9 == 5:
print "Candidate Frequency = 402.4049MHz, HSI"
sg.set_output_frequency(402404900)
elif index%9 == 6:
print "Candidate Frequency = 404.5197MHz, LSI"
sg.set_output_frequency(404519700)
elif index%9 == 7:
print "Candidate Frequency = 402.7049MHz, LSI"
sg.set_output_frequency(402704900)
else:
print "Candidate Frequency = 403.5108MHz, HSI"
sg.set_output_frequency(403510800)
# write the candidate frequency to CC1020 registers
self.writeFreqToCC1020(index)
sg.output_on()
for pwr in range(0, 13):
if pwr == 0:
print " RF Generator = -55dBm"
sg.set_output_power_dBm(-55)
elif pwr == 1:
print " RF Generator = -60dBm"
sg.set_output_power_dBm(-60)
elif pwr == 2:
print " RF Generator = -65dBm"
sg.set_output_power_dBm(-65)
elif pwr == 3:
print " RF Generator = -70dBm"
sg.set_output_power_dBm(-70)
elif pwr == 4:
print " RF Generator = -75dBm"
sg.set_output_power_dBm(-75)
elif pwr == 5:
print " RF Generator = -80dBm"
sg.set_output_power_dBm(-80)
elif pwr == 6:
print " RF Generator = -85dBm"
sg.set_output_power_dBm(-85)
elif pwr == 7:
print " RF Generator = -90"
sg.set_output_power_dBm(-90)
elif pwr == 8:
print " RF Generator = -95"
sg.set_output_power_dBm(-95)
elif pwr == 9:
print " RF Generator = -100"
sg.set_output_power_dBm(-100)
elif pwr == 10:
print " RF Generator = -105"
sg.set_output_power_dBm(-105)
elif pwr == 11:
print " RF Generator = -110"
sg.set_output_power_dBm(-110)
else:
print " RF Generator = -115"
sg.set_output_power_dBm(-115)
time.sleep(5)
# place the CC1020 into receive mode
self.TestProcedure.ICD.writeCC1020(int(CC1020Register.MAIN), 0x01)
time.sleep(0.080)
val = self.TestProcedure.ICD.readCC1020(int(CC1020Register.STATUS))
print " PRB STATUS register = ", val
# read RSSI 10 times and compute the average
val_0 = 0
val_1 = 0
for iter in range(0, 10):
val_0 = self.TestProcedure.ICD.readCC1020(int(CC1020Register.RSSI))
print " CC1020 RSSI = ",val_0
val_1 = val_1 + val_0
print " CC1020 Average RSSI = ",val_1/10.0
# place the CC1020 into standby mode
self.TestProcedure.ICD.writeCC1020(int(CC1020Register.MAIN), 0x1F)
time.sleep(0.080)
sg.output_off()
self.passed = True
def script(self):
#self.TestProcedure.ICD.writePrbFpga(0x1002, 0x12)
##d. Read FPGA address 0x3000 and verify the response is 0x12.
val = self.TestProcedure.ICD.readPrbFpga(0x3000)
self.verify("FPGA 0x3000", 0x12, val)
if val != 0x12:
self.verify("ERROR", 0x12, val)
#*********instrument setup***************************************
print "Creating instrument..."
sa = spec_anal("GPIB::8", 'SPEC_ANAL')
#****************************************************************
# temperatures = range(32,44)
temperatures = [27, 32, 37, 42]
stabilization_mins = 10
chamber = watlowF4ipy.WatlowF4_temp_window(3, debug=True)
for temperature in temperatures:
chamber.set_temperature_and_time(temperature, temperature - 0.3,
temperature + 0.3,
stabilization_mins)
while chamber.dwelltime_endpoint_reached() == False:
#pause before checking the flag again
time.sleep(2)
# calibrate once on channel 0
self.TestProcedure.ICD.calibrateCc1020()
self.DumpCalResult()
inv_flag = 0x01
DoCalFlag = 0x01
MaxCalTries = 0x03
ExitDelaySecs = 0x01
# Scan and link on Channel 0, with data inversion active
# Initialize the CC1000 Calibration Config Table
self.TestProcedure.ICD.writePrbFpga(0x1026, 0x00)
devList = self.icdcmd.scan(17, 2)
print "type(devList):", type(devList)
self.icdcmd.connect((UInt32)(2102003))
# self.icdcmd.connect((UInt32) (2100130))
# self.icdcmd.connect((UInt32) (2149582066))
time.sleep(1)
# Initialize the Cal config table
self.initCalConfigTable()
# Write the test control table
self.writeCalControlTable(DoCalFlag, MaxCalTries, ExitDelaySecs)
# Load the CCTestPatch firmware image to S-ICD RAM
# self.writeCCTestPatch()
# Write the calibration configuration table for a specific frequency
self.writeCalConfigTable(1)
self.icdcmd.ping()
# Start the test, the test patch will wait 10 seconds to allow for a break link
self.icdcmd.writeUint16(Key.INT_VEC_TCMP0, 0x6A08)
# break link with the S-ICD
wfdeState = WaitForDisconnectedEventState(Key.DONT_CARE, 0x0)
try:
self.icdcmd.EventWaiter.execState(wfdeState,
TimeSpan.FromSeconds(2))
except Exception, ex:
print str(ex)
print "Calibrating..."
time.sleep(10)
sa.set_ref_level_dB(-30)
sa.set_span_kHz(100000)
sa.set_resolutionBW_kHz(10)
sa.set_sweep_time_milliseconds(2000)
DoCalFlag = 0x00
MaxCalTries = 0x03
ExitDelaySecs = 0x1E
vco_loop_count = 2
# Loop through all candidate frequencies and calibrate
for idx in range(0, vco_loop_count):
test_time = time.clock()
print "Loop Index = ", idx
print "Test time = %.2d:%06.3f" % (test_time / 60,
test_time % 60.0)
if idx == 0:
sa.set_center_frequency_MHz(360)
else:
sa.set_center_frequency_MHz(440)
# get initial frequency values for channel 0
val_2 = 0x35 #self.TestProcedure.ICD.readPrbFpga(0x305E)
val_1 = 0xF0 #self.TestProcedure.ICD.readPrbFpga(0x3060)
val_0 = 0x21 #self.TestProcedure.ICD.readPrbFpga(0x3062)
freq_a_init = val_2 * 65536 + val_1 * 256 + val_0
print "PRB FREQ_A = ", freq_a_init
val_2 = 0x35 #self.TestProcedure.ICD.readPrbFpga(0x3066)
val_1 = 0xFA #self.TestProcedure.ICD.readPrbFpga(0x3068)
val_0 = 0xCB #self.TestProcedure.ICD.readPrbFpga(0x306A)
freq_b_init = val_2 * 65536 + val_1 * 256 + val_0
print "PRB FREQ_B = ", freq_b_init
# Scan and link on Channel 0, with data inversion active
self.TestProcedure.ICD.writePrbFpga(0x1026, 0x00)
devList = self.icdcmd.scan(17, 2)
print "type(devList):", type(devList)
print "devList ", devList
self.TestProcedure.ICD.writePrbFpga(0x3012, inv_flag)
val = self.TestProcedure.ICD.readPrbFpga(0x1026)
print "Channel Selection = ", val
val = self.TestProcedure.ICD.readPrbFpga(0x3012)
print "Data inversion = ", val
self.icdcmd.connect((UInt32)(2102003))
# self.icdcmd.connect((UInt32) (2100130))
# self.icdcmd.connect((UInt32) (2149582066))
time.sleep(1)
# Read CC1020 AFC register and verify correction logic
val_0 = 0
val_1 = 0
for iter in range(0, 10):
val_0 = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.AFC))
if val_0 > 127:
val_0 = val_0 - 256
print "PRB AFC = ", val_0
val_1 = val_1 + val_0
print "PRB Average AFC = ", val_1 / 10.0
#
val_2 = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.FREQ_2A))
val_1 = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.FREQ_1A))
val_0 = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.FREQ_0A))
freq_a = val_2 * 65536 + val_1 * 256 + val_0
print "PRB FREQ_A = ", freq_a
val_2 = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.FREQ_2B))
val_1 = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.FREQ_1B))
val_0 = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.FREQ_0B))
freq_b = val_2 * 65536 + val_1 * 256 + val_0
print "PRB FREQ_B = ", freq_b
# compute frequency offset
val = (freq_a - 1) / 2 - (freq_a_init - 1) / 2
print "PRB AFC_A = ", val
val = (freq_b - 1) / 2 - (freq_b_init - 1) / 2
print "PRB AFC_B = ", val
# set the filter to widest bandwidth to get an unsaturated RSSI
val = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.FILTER))
print "PRB CC1020 FILTER = ", val
self.TestProcedure.ICD.writeCC1020(int(CC1020Register.FILTER),
0x80)
time.sleep(0.080)
# read RSSI 10 times and compute the average
val_0 = 0
val_1 = 0
for iter in range(0, 10):
val_0 = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.RSSI))
print "PRB RSSI = ", val_0
val_1 = val_1 + val_0
print "PRB Average RSSI = ", val_1 / 10.0
# restore the filter setting
self.TestProcedure.ICD.writeCC1020(int(CC1020Register.FILTER),
0x22)
time.sleep(0.080)
# Dump the Tx/Rx cal results
if idx == 0:
self.DumpSicdCalResults()
# Write the test control table
self.writeCalControlTable(DoCalFlag, MaxCalTries,
ExitDelaySecs)
# Write the configuration table for VCO low/high frequency
# low: TEST5 = 0x3F, TEST3 = 0x10
# high: TEST5 = 0x30, TEST3 = 0x17
if idx == 0:
self.icdcmd.writeByte((UInt32)(0x0200), 0xE1)
self.icdcmd.writeByte((UInt32)(0x021D), 0x3F)
self.icdcmd.writeByte((UInt32)(0x021F), 0x10)
else:
self.icdcmd.writeByte((UInt32)(0x0200), 0xE1)
self.icdcmd.writeByte((UInt32)(0x021D), 0x30)
self.icdcmd.writeByte((UInt32)(0x021F), 0x17)
self.icdcmd.ping()
print "VCO frequency starts in 10 seconds and lasts for 30 seconds..."
# Start the test, the test patch will wait 10 seconds to allow for a break link
self.icdcmd.writeUint16(Key.INT_VEC_TCMP0, 0x6A08)
# break link with the S-ICD
wfdeState = WaitForDisconnectedEventState(Key.DONT_CARE, 0x0)
try:
self.icdcmd.EventWaiter.execState(wfdeState,
TimeSpan.FromSeconds(2))
except Exception, ex:
print str(ex)
time.sleep(16.0)
sa.set_marker_findpeak()
time.sleep(2.000)
freq_0 = 0
freq_1 = 0
pwr_0 = 0
pwr_1 = 0
for iter in range(0, 8):
freq_0 = sa.get_marker_frequency()
print " PRB Tx frequency = ", freq_0
pwr_0 = sa.get_marker_power_level()
print " PRB Tx power = ", pwr_0
freq_1 = freq_1 + freq_0
pwr_1 = pwr_1 + pwr_0
time.sleep(2.200)
print " PRB Ave Frequency = ", freq_1 / 8.0
print " PRB Ave Power = ", pwr_1 / 8.0
time.sleep(14.0)
def script(self):
# Read FPGA address 0x3000 and verify the response is 0x12.
val = self.TestProcedure.ICD.readPrbFpga(0x3000)
self.verify("FPGA 0x3000", 0x12, val)
if val != 0x12:
self.verify("ERROR", 0x12, val)
#*********instrument setup***************************************
print "Creating instrument..."
sa = spec_anal("GPIB::8", 'SPEC_ANAL')
#****************************************************************
#*********plotter setup******************************************
plots = plotter(sa, test_dir)
#****************************************************************
# read the MATCH value from EEPROM and write to the PRB
#need to add read here...
# calibrate once on channel 0
self.TestProcedure.ICD.calibrateCc1020()
val = self.TestProcedure.ICD.readPrbFpga(0x2012)
print " PRB badCal = ", val
val = self.TestProcedure.ICD.readCC1020(int(CC1020Register.STATUS))
print " PRB STATUS register = ", val
self.DumpCalResult()
channel = 0
#5-45 5 degree steps
temperatures = range(5, 46, 5)
stabilization_mins = 10
chamber = watlowF4ipy.WatlowF4_temp_window(3, debug=True)
for temperature in temperatures:
chamber.set_temperature_and_time(temperature, temperature - 0.3,
temperature + 0.3,
stabilization_mins)
while chamber.dwelltime_endpoint_reached() == False:
#pause before checking the flag again
time.sleep(2)
sa.set_ref_level_dB(0)
sa.set_span_kHz(400)
sa.set_resolutionBW_kHz(3)
sa.set_sweep_time_milliseconds(200)
for index in range(0, self.loop_count):
test_time = time.clock()
print "Loop Index = ", index
print "Test time = %.2d:%06.3f" % (test_time / 60,
test_time % 60.0)
# for index in range(0, 2):
if index % 9 == 0:
print "Candidate Frequency = 402.8183MHz, LSI"
sa.set_center_frequency_MHz(402.8183)
elif index % 9 == 1:
print "Candidate Frequency = 403.5108MHz, HSI"
sa.set_center_frequency_MHz(403.5108)
elif index % 9 == 2:
print "Candidate Frequency = 402.4942MHz, LSI"
sa.set_center_frequency_MHz(402.4942)
elif index % 9 == 3:
print "Candidate Frequency = 404.6167MHz, HSI"
sa.set_center_frequency_MHz(404.6167)
elif index % 9 == 4:
print "Candidate Frequency = 402.7209MHz, HSI"
sa.set_center_frequency_MHz(402.7209)
elif index % 9 == 5:
print "Candidate Frequency = 402.4049MHz, HSI"
sa.set_center_frequency_MHz(402.4049)
elif index % 9 == 6:
print "Candidate Frequency = 404.5197MHz, LSI"
sa.set_center_frequency_MHz(404.5197)
elif index % 9 == 7:
print "Candidate Frequency = 402.7049MHz, LSI"
sa.set_center_frequency_MHz(402.7049)
else:
print "Candidate Frequency = 403.5108MHz, HSI"
sa.set_center_frequency_MHz(403.5108)
time.sleep(1)
# write the candidate frequency to PRB channel 0 registers
self.writeFreqToPRB(index, 0)
# write the candidate frequency to PRB channel 1 registers
self.writeFreqToPRB(index, 1)
# perform calibration and dump results
self.TestProcedure.ICD.calibrateCc1020()
# is badcal checked and reported? is there a wait until the cal interrupt?
time.sleep(0.300)
val = self.TestProcedure.ICD.readPrbFpga(0x2012)
print " PRB badCal = ", val
val = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.STATUS))
print " PRB STATUS register = ", val
self.DumpCalResult()
# write the legacy frequency to PRB channel 0 registers
self.writeFreqToPRB(1, channel)
# perform calibration and dump results
self.TestProcedure.ICD.calibrateCc1020()
# is badcal checked and reported? is there a wait until the cal interrupt?
time.sleep(0.300)
val = self.TestProcedure.ICD.readPrbFpga(0x2012)
print " PRB badCal = ", val
val = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.STATUS))
print " PRB STATUS register = ", val
self.DumpCalResult()
# perform an LBT instruction and log results
# how do we issue an LBT and capture the interrupt packet?
self.TestProcedure.ICD.writePrbFpga(0x1008, 0x10)
time.sleep(0.400)
val = self.TestProcedure.ICD.readPrbFpga(0x1020)
print " PRB LIC = ", val
val = self.TestProcedure.ICD.readPrbFpga(0x1026)
print " PRB Channel Selection = ", val
val = self.TestProcedure.ICD.readPrbFpga(0x1022)
print " PRB Channel 0 RSSI = ", val
val = self.TestProcedure.ICD.readPrbFpga(0x1024)
print " PRB Channel 1 RSSI = ", val
#note, after LBT the CC1020 registers contain the channel 1 values
val_2 = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.FREQ_2A))
val_1 = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.FREQ_1A))
val_0 = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.FREQ_0A))
freq_a = val_2 * 65536 + val_1 * 256 + val_0
print " CC1020 FREQ_A = ", freq_a
val_2 = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.FREQ_2B))
val_1 = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.FREQ_1B))
val_0 = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.FREQ_0B))
freq_b = val_2 * 65536 + val_1 * 256 + val_0
print " CC1020 FREQ_B = ", freq_b
# place CC1020 into receive mode
self.TestProcedure.ICD.writeCC1020(int(CC1020Register.MAIN),
0x01)
#does the write/read routines wait until cc1020 not busy?
time.sleep(0.080)
val = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.STATUS))
print " PRB STATUS register = ", val
# log the filter setting
val = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.FILTER))
print " CC1020 FILTER = ", val
time.sleep(0.080)
# read RSSI 10 times and compute the average
val_0 = 0
val_1 = 0
for iter in range(0, 10):
val_0 = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.RSSI))
print " CC1020 RSSI = ", val_0
val_1 = val_1 + val_0
print " CC1020 Average RSSI = ", val_1 / 10.0
self.TestProcedure.ICD.writeCC1020(int(CC1020Register.MAIN),
0x1F)
time.sleep(0.080)
val = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.MODEM))
print " CC1020 MODEM = ", val
time.sleep(0.080)
val = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.DEVIATION))
print " CC1020 DEVIATION = ", val
time.sleep(0.080)
self.TestProcedure.ICD.writeCC1020(int(CC1020Register.MAIN),
0xC1)
time.sleep(0.080)
val = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.STATUS))
print " PRB STATUS register = ", val
time.sleep(1)
val = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.MAIN))
print " CC1020 MAIN = ", val
# add SA commands to measure frequency and power for the peak output- read ten times and record the average
sa.set_marker_findpeak()
time.sleep(2.000)
# read peak 10 times and compute the average
freq_0 = 0
freq_1 = 0
pwr_0 = 0
pwr_1 = 0
for iter in range(0, 10):
freq_0 = sa.get_marker_frequency()
print " PRB Tx frequency = ", freq_0
pwr_0 = sa.get_marker_power_level()
print " PRB Tx power = ", pwr_0
freq_1 = freq_1 + freq_0
pwr_1 = pwr_1 + pwr_0
print " PRB Ave Frequency = ", freq_1 / 10.0
print " PRB Ave Power = ", pwr_1 / 10.0
self.TestProcedure.ICD.writeCC1020(
int(CC1020Register.DEVIATION), 0xD9)
time.sleep(0.080)
val = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.MODEM))
print " CC1020 MODEM = ", val
time.sleep(0.080)
val = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.DEVIATION))
print " CC1020 DEVIATION = ", val
time.sleep(1)
# read peak 10 times and compute the average
sa.set_marker_findpeak()
time.sleep(2.000)
freq_0 = 0
freq_1 = 0
pwr_0 = 0
pwr_1 = 0
for iter in range(0, 10):
freq_0 = sa.get_marker_frequency()
print " PRB Tx frequency = ", freq_0
pwr_0 = sa.get_marker_power_level()
print " PRB Tx power = ", pwr_0
freq_1 = freq_1 + freq_0
pwr_1 = pwr_1 + pwr_0
print " PRB Ave Frequency = ", freq_1 / 10.0
print " PRB Ave Power = ", pwr_1 / 10.0
self.TestProcedure.ICD.writeCC1020(
int(CC1020Register.DEVIATION), 0x59)
time.sleep(0.080)
val = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.MODEM))
print " CC1020 MODEM = ", val
time.sleep(0.080)
val = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.DEVIATION))
print " CC1020 DEVIATION = ", val
time.sleep(0.500)
self.TestProcedure.ICD.writeCC1020(int(CC1020Register.MAIN),
0x1F)
time.sleep(0.080)
for index in range(0, self.loop_count):
if index % 9 == 0:
print "Candidate Frequency = 402.8183MHz, LSI"
sa.set_center_frequency_MHz(402.8183)
elif index % 9 == 1:
print "Candidate Frequency = 403.5108MHz, HSI"
sa.set_center_frequency_MHz(403.5108)
elif index % 9 == 2:
print "Candidate Frequency = 402.4942MHz, LSI"
sa.set_center_frequency_MHz(402.4942)
elif index % 9 == 3:
print "Candidate Frequency = 404.6167MHz, HSI"
sa.set_center_frequency_MHz(404.6167)
elif index % 9 == 4:
print "Candidate Frequency = 402.7209MHz, HSI"
sa.set_center_frequency_MHz(402.7209)
elif index % 9 == 5:
print "Candidate Frequency = 402.4049MHz, HSI"
sa.set_center_frequency_MHz(402.4049)
elif index % 9 == 6:
print "Candidate Frequency = 404.5197MHz, LSI"
sa.set_center_frequency_MHz(404.5197)
elif index % 9 == 7:
print "Candidate Frequency = 402.7049MHz, LSI"
sa.set_center_frequency_MHz(402.7049)
else:
print "Candidate Frequency = 403.5108MHz, HSI"
sa.set_center_frequency_MHz(403.5108)
# write the legacy frequency to PRB channel 0 registers
self.writeFreqToPRB(1, 0)
# write the candidate frequency to PRB channel 1 registers
self.writeFreqToPRB(index, 1)
# perform calibration and dump results
self.TestProcedure.ICD.calibrateCc1020()
# is badcal checked and reported? is there a wait until the cal interrupt?
time.sleep(0.300)
val = self.TestProcedure.ICD.readPrbFpga(0x2012)
print " PRB badCal = ", val
val = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.STATUS))
print " PRB STATUS register = ", val
self.DumpCalResult()
# perform an LBT to place channel 1 frequency into CC1020
self.TestProcedure.ICD.writePrbFpga(0x1008, 0x10)
time.sleep(1)
# turn off the CC1020 and place into PN9 mode
self.TestProcedure.ICD.writeCC1020(int(CC1020Register.MAIN),
0x1F)
time.sleep(0.080)
self.TestProcedure.ICD.writeCC1020(int(CC1020Register.MODEM),
0x54)
time.sleep(0.080)
# turn on CC1020 in transmit mode
self.TestProcedure.ICD.writeCC1020(int(CC1020Register.MAIN),
0xC1)
time.sleep(0.080)
val = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.STATUS))
print " PRB STATUS register = ", val
val = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.MODEM))
print " CC1020 MODEM = ", val
time.sleep(0.080)
val = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.DEVIATION))
print " CC1020 DEVIATION = ", val
time.sleep(0.500)
time.sleep(2)
sa.set_OBW_times_to_average(30)
sa.set_occupied_bandwidth_pct(99)
sa.turn_OBW_averages_on()
(a, obw, c) = sa.measure_occupied_bandwidth()
print " PRB OBW = ", obw
d = sa.get_data()
name = 'Occupied Bandwidth (PN9 pattern)'
x_units = 'frequency(MHz)'
y_units = 'signal power(' + sa.get_units() + ')'
plots.make_plot(name, d, x_units, y_units)
self.TestProcedure.ICD.writeCC1020(
int(CC1020Register.DEVIATION), 0xD9)
time.sleep(0.080)
val = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.MODEM))
print " CC1020 MODEM = ", val
time.sleep(0.080)
val = self.TestProcedure.ICD.readCC1020(
int(CC1020Register.DEVIATION))
print " CC1020 DEVIATION = ", val
time.sleep(0.500)
time.sleep(2)
(a, obw, c) = sa.measure_occupied_bandwidth()
print " PRB OBW = ", obw
d = sa.get_data()
name = 'Occupied Bandwidth (PN9 pattern)'
x_units = 'frequency(MHz)'
y_units = 'signal power(' + sa.get_units() + ')'
plots.make_plot(name, d, x_units, y_units)
self.TestProcedure.ICD.writeCC1020(
int(CC1020Register.DEVIATION), 0x59)
time.sleep(0.080)
self.TestProcedure.ICD.writeCC1020(int(CC1020Register.MAIN), 0x1F)
sa.reset()
self.passed = True
self.TestProcedure.ICD.writeCC1020(int(CC1020Register.MAIN), 0x1F)
print "Test complete, run prbRssiScript"