def test_method(self):
errorCount = 0
sc = self.SC
# bandwidth
xunit = self.config.osaParams["scaleXunit"]
# now begin the actual testing
osnrList = self.config.osnrList
cdTestList = self.config.cdTestList
osnrTol = self.config.osnrParams["tol"]
targetRefRxPwr = self.config.cardParams['rxpwr'][0]
targetPwr = targetRefRxPwr
uutRxTol = self.config.cardParams['tol'][0]
refRxTol = self.config.cardParams["tol"][0]
minosnr, maxosnr = self.config.osnrSpecRange
INVALIDBER = self.config.INVALIDBER
refsn = self.REFRX.SN
vssd_offsets = self.config.vssd_offsets
osnrBerLimits = self.config.osnrBerLimits
bwlist = self.config.bwLimit
bw = PQ("3.0 dB")
bwLowerLimit,bwUpperLimit = bwlist[bw]
print bwUpperLimit,bwLowerLimit
self.dbRes = {}
tb = self.config.testbed
for cd in cdTestList:
for targetOSNR in osnrList:
for sn in self.uutSnList: #excluding refsn
slot = self.uutDict[sn]["slot"]
uut_slot = int(slot)
ser_obj = self.uut_ser_dict[slot]
obj = ser_obj
UUT_ber = "UUT_slot%s" % slot
ber_obj = self.uut_ser_dict[UUT_ber]
uutid = self.uutDict[sn]["id"]
self.dbRes[uutid] = {}
g1a1_opt_pass = False
ssd_opt_pass = False
slot_num = (uut_slot-1) % 4
self.info("Disabling module prior to writing EEPROM")
sc.module_control(slot, "Disable", self)
self.info("Enabling module...")
sc.module_control(slot, "Enable", self)
download = True
for sn in self.uutSnList:
slot = self.uutDict[sn]["slot"]
uutid = self.uutDict[sn]["id"]
if self.errorCount[sn]:
self.lf.write("\n\nERROR: slot%s(%s):\n VssdVg1a1Sweep test failed.\n"
%(slot, sn))
self.failed("slot%s(%s): VssdVg1a1Sweep test failed." %(slot, sn), uutid)
else:
# clean up logs if the test passes by providing the diagnostic
# dictionary to the clean-up function.
Diag.clean_up_logs(sn, self.diag)
self.passed ("%s(%s): VssdVg1a1Sweep test passed." % (slot, sn), uutid)
if(download):
self.info("Resetting line card so tag changes can take affects...")
# DO THIS FROM CAROL
ber_obj.reset_card()
reset_dsp_sleep_time = 180
self.info("Wait %s seconds for DSP to come up..." % reset_dsp_sleep_time)
time.sleep(reset_dsp_sleep_time)
return self.completed("VssdVg1a1Sweep test completed.")
def test_method(self):
errorCount = 0
MAXTAPS = self.config.MAXTAPS
DELAY = self.config.DELAY
INNER_LOOPS = self.config.INNER_LOOPS
OUTER_LOOPS = self.config.OUTER_LOOPS
DEBUG_LEVEL = self.config.DEBUG_LEVEL
SKIP_G2M = self.config.SKIP_G2M
SKIP_M2G = self.config.SKIP_M2G
SKIP_J2G = self.config.SKIP_J2G
LVDS_THRESHOLD = self.config.LVDS_THRESHOLD
RESET_EN = self.config.RESET_EN
DIE_ON_FAIL = self.config.DIE_ON_FAIL
AIS_EN = self.config.AIS_EN
PRBS_EN = self.config.PRBS_EN
SET_SUMMIT_VOLTAGES = self.config.SET_SUMMIT_VOLTAGES
expected_fpga_ver = self.config.EXPECTED_FPGA_VERSION
UPPER_LIMIT = 10 # biggest window width that makes sense
self.info("************ OPTIONS CONFIGURED ***************")
if AIS_EN:
self.info("AIS Enabled on Tx")
if (DIE_ON_FAIL):
self.info("STOP ON FAIL")
if (PRBS_EN):
self.info("PRBS Enabled on Tx")
else:
self.info("PRBS Disabled on Tx")
self.uut_ser_dict = {}
for sn, uut_dict in self.uutDict.items():
slot = uut_dict['slot']
UUT_mike_slot = "UUT_slot%s_mike" % slot
UUT_carol_slot = "UUT_slot%s" % slot
UUT_mike = self.uutDict[sn]['mike']
UUT_carol = self.uutDict[sn]['obj']
self.uut_ser_dict[sn] = uut_dict
self.uut_ser_dict[UUT_carol_slot] = UUT_carol
uutid = self.uutDict[sn]["id"]
# just read out Marsha verison
marsha_verison = UUT_carol.get_marsha_version()
self.info("Marsha FPGA version: %s" % marsha_verison)
# step1: make sure the FPGA is correctly loaded.
raw_version = UUT_carol.show_fpga_version()
#if raw_version.find('showVersion not found') >= 0:
# self.error("FPGA not loaded correctly!")
# raise TestSuiteAbort, "FPGA not loaded correctly!"
#else:
# #fpga_version = raw_version.split("\r\n")[0].strip()
# #if fpga_version != expected_fpga_ver:
# # raise TestSuiteAbort, "got FPGA version (%s), expected (%s)" % (fpga_version, expected_fpga_ver)
try:
IDELAY_IS_ZERO = self._config.IDELAY_IS_ZERO
except:
IDELAY_IS_ZERO = True
if not IDELAY_IS_ZERO:
fpga_version = raw_version.split("\r\n")[0].strip()
if fpga_version != expected_fpga_ver:
raise TestSuiteAbort, "got FPGA version (%s), expected (%s)" % (fpga_version, expected_fpga_ver)
if 1:
target_chan5_voltage = self.config.CHANNEL_5_VOLTAGE
target_chan2_voltage = self.config.CHANNEL_2_VOLTAGE
if SET_SUMMIT_VOLTAGES:
target_chan5_voltage = self.config.CHANNEL_5_VOLTAGE
target_chan2_voltage = self.config.CHANNEL_2_VOLTAGE
#
UUT_carol.change_summit_voltages(self, "setVoltageChange",
long_method=False)
else:
UUT_carol.change_summit_voltages(self,
"setVoltageDefault", long_method=False)
time.sleep(10)
(raw_voltages, volt_dict) = UUT_carol.get_summit_voltages()
self.info("Summit Voltages: %s\n" % raw_voltages)
try:
read_chan5_voltage = volt_dict['5'][1]
read_chan2_voltage = volt_dict['2'][1]
except:
self.error("Summit voltage parse error, trying again!")
time.sleep(10)
(raw_voltages, volt_dict) = UUT_carol.get_summit_voltages()
self.info("Summit Voltages: %s\n" % raw_voltages)
try:
read_chan5_voltage = volt_dict['5'][1]
read_chan2_voltage = volt_dict['2'][1]
except:
self.error("Error reading Summit voltage on 2nd try! Setting values to 0")
read_chan5_voltage = 0
read_chan2_voltage = 0
if abs(float(read_chan5_voltage) - float(target_chan5_voltage)) > 0.01:
self.error("Set voltage (%s) is greater than tolerance (0.01) from target (%s)" % (read_chan5_voltage, target_chan5_voltage))
raise TestSuiteAbort, "Set voltage (%s) is greater than tolerance (0.01) from target (%s)" % (read_chan5_voltage, target_chan5_voltage)
if abs(float(read_chan2_voltage) - float(target_chan2_voltage)) > 0.01:
self.error("Set voltage (%s) is greater than tolerance (0.01) from target (%s)" % (read_chan2_voltage, target_chan2_voltage))
raise TestSuiteAbort, "Set voltage (%s) is greater than tolerance (0.01) from target (%s)" % (read_chan2_voltage, target_chan2_voltage)
comment = self.config.comment
chan5_volt = "%s" % volt_dict['5'][1]
chan2_volt = "%s" % volt_dict['2'][1]
if not comment:
comment = ""
# there's a user comment
if not IDELAY_IS_ZERO:
comment += "VERSION=%s " % fpga_version
comment += " Chan5Voltage=%s " % chan5_volt
comment += " Chan2Voltage=%s " % chan2_volt
comment += " Marsha=%s" % marsha_verison
comment += " Resets=%s" % self.config.OUTER_LOOPS
comment += " SCR_VER=%s" % self.SCREEN_VERSION
self.config.comment = comment
# set the channel.
uut_tdc_type = UUT_mike.get_tdc_type()
if uut_tdc_type == 0x1:
chn = 51
else:
chn = 50
self.info("Setting UUT to channel %s" % chn)
UUT_mike.ModChan = chn
# check Tx & Rx power, if they are greater than 1dbm difference,
# then prompt user to check power cable and check again.
self.info("Checking Tx & Rx power...")
TxPwr = UUT_mike.show_line_tx_pwr()
# check the power
RxPwr = UUT_mike.RxPwr
self.info("TxPwr: %s, RxPwr: %s" % (TxPwr, RxPwr))
if abs(TxPwr - RxPwr) > PQ("5.0 dBm"):
self.error("TxPwr (%s) & RxPwr (%s) is greater than 1dBm" % (TxPwr, RxPwr))
self.user_input("Please make sure a loopback cable is connected between line Tx & line Rx port, press Enter to try again")
TxPwr = UUT_mike.show_line_tx_pwr()
RxPwr = UUT_mike.RxPwr
if abs(TxPwr - RxPwr) > PQ("1.0 dBm"):
raise TestSuiteAbort, "TxPwr (%s) & RxPwr (%s) is greater than 1dBm" % (TxPwr, RxPwr)
self.info("TxPwr: %s, RxPwr: %s" % (TxPwr, RxPwr))
self.info("Ensure that OTU3 Framing and FEC are enabled")
self.info("AIS_EN: %s" % AIS_EN)
if (AIS_EN):
UUT_mike._cmd("mw 0x5200 0xa5", DEBUG_LEVEL, self)
else:
UUT_mike._cmd("mw 0x5200 0xa0", DEBUG_LEVEL, self)
UUT_mike._cmd("mw 0x5212 3", DEBUG_LEVEL, self)
UUT_mike._cmd("startLoops")
fixed_dispersion = 0.0
self.info("Set UUT TDC to dispersion of %s and fixed mode..." % fixed_dispersion)
UUT_mike.set_tdc_fixed(fixed_dispersion)
# if it's a 4400, then we need to do some setups
if self.config.IS_4400:
self.info("Setting for 4040...")
# do set4400Check here...
UUT_carol.set_4400_to_4040()
UUT_carol.enable_line_prbs()
sleep_time = 180
self.info("Sleeping for %s seconds" % sleep_time)
time.sleep(sleep_time)
# initialize array to have 134 elements to zero's
j2gWindow = []
g2mWindow = []
m2gWindow = []
# alias
GETVAL = UUT_mike.getVal
thresh = LVDS_THRESHOLD
max_retries = 80
exit_outer_loop = 0
for outerLoop in range(OUTER_LOOPS):
j2gWin = []
m2gWin = []
g2mWin = []
if (self.config.RESET_EN):
allAligned = 0
while (allAligned == 0):
self.info("Realign interfaces...")
UUT_mike._cmd("gw 5 2", DEBUG_LEVEL, self)
time.sleep(1)
tries = 0
tmp_aligned = False
while (max_retries != tries):
if (GETVAL("gr 0x800f", DEBUG_LEVEL, self)):
time.sleep(1)
tries += 1
else:
tmp_aligned = True
break
if not tmp_aligned or tries == max_retries:
# put inclomplete here...
self.error("UUT failed to aligned after %s retries!" % max_retries)
return self.incomplete("UUT failed to aligned after %s retries!" % max_retries)
#while (GETVAL("gr 0x800f", DEBUG_LEVEL, self)) :
# time.sleep(1)
if (PRBS_EN):
UUT_mike._cmd("mw 0x88 0x15", DEBUG_LEVEL, self)
time.sleep(3)
UUT_mike._cmd("kick", DEBUG_LEVEL, self)
time.sleep(1)
tmp_aligned = False
while (max_retries != tries):
if (GETVAL("gr 0x800f", DEBUG_LEVEL, self)):
time.sleep(1)
tries += 1
else:
tmp_aligned = True
break
if not tmp_aligned or tries == max_retries:
# put inclomplete here...
self.error("UUT failed to aligned after %s retries!" % max_retries)
return self.incomplete("UUT failed to aligned after %s retries!" % max_retries)
time.sleep(5)
#### new for verion 10
UUT_mike._cmd("bw 0x55 0x8", DEBUG_LEVEL, self)
time.sleep(3)
UUT_mike._cmd("bw 0x55 0xa", DEBUG_LEVEL, self)
#########################
UUT_mike._cmd("gw 5 1", DEBUG_LEVEL, self)
status = GETVAL("gr 5", DEBUG_LEVEL, self)
while ((status & 2) == 0) :
time.sleep(1)
status = GETVAL("gr 5", DEBUG_LEVEL, self)
status = GETVAL("gr 5", DEBUG_LEVEL, self)
trys = 0
while (((status & 8) == 0) and (trys < 10)) :
time.sleep(1)
status= GETVAL("gr 5", DEBUG_LEVEL, self)
trys = trys+1
time.sleep(1)
self.info("Check for coarse alignment (< 2^16 errors are valid)")
j2gHi = GETVAL("gr 0xbb", DEBUG_LEVEL, self)
j2gLo = GETVAL("gr 0xba", DEBUG_LEVEL, self)
g2mHi = GETVAL("mr 0xbb", DEBUG_LEVEL, self)
g2mLo = GETVAL("mr 0xba", DEBUG_LEVEL, self)
m2gHi = GETVAL("gr 0xbf", DEBUG_LEVEL, self)
m2gLo = GETVAL("gr 0xbe", DEBUG_LEVEL, self)
if (j2gHi==0) & (j2gLo==0) & (g2mHi==0) & (g2mLo==0) & (m2gHi==0) & (m2gLo==0) :
allAligned = 1
else:
self.info("\n!!! WARNING: COULD NOT ALIGN. TRYING AGAIN !!!\n")
self.info("Stopping software loop..")
time.sleep(3)
UUT_mike._cmd("stopLoops", DEBUG_LEVEL, self)
if exit_outer_loop & DIE_ON_FAIL:
# exit_loop is set inside innerLoop
break
for innerLoop in range(INNER_LOOPS):
loop = (outerLoop * INNER_LOOPS) + innerLoop
if not SKIP_J2G:
window_width = self.check_ldvs_between_fpgas(UUT_mike,
'Jan-to-Greg',
outerLoop,
innerLoop,
loop)
j2gWin.append(window_width)
#j2gWindow[loop] = (window_width)
if ((window_width < thresh) or (window_width > UPPER_LIMIT)):
self.errorCount[sn] += 1
self.error("J->G window width %s not within (%s,%s)" %
(window_width, thresh, UPPER_LIMIT))
exit_outer_loop = 1
self.info("j2g: %s" % j2gWindow)
if not SKIP_G2M:
window_width = self.check_ldvs_between_fpgas(UUT_mike,
'Greg-to-Marcia',
outerLoop,
innerLoop,
loop)
g2mWin.append(window_width)
#g2mWindow[loop] = (window_width
self.info("g2m: %s" % g2mWindow)
if ((window_width < thresh) or (window_width > UPPER_LIMIT)):
self.errorCount[sn] += 1
self.error("G->M window width %s not within (%s,%s)" %
(window_width, thresh, UPPER_LIMIT))
exit_outer_loop = 1
if not SKIP_M2G:
window_width = self.check_ldvs_between_fpgas(UUT_mike,
'Marcia-to-Greg',
outerLoop,
innerLoop,
loop)
#m2gWindow[loop] = (window_width)
m2gWin.append(window_width)
self.info("m2g: %s" % m2gWindow)
if ((window_width < thresh) or (window_width > UPPER_LIMIT)):
self.errorCount[sn] += 1
self.error("M->G window width %s not within (%s,%s)" %
(window_width, thresh, UPPER_LIMIT))
exit_outer_loop = 1
if exit_outer_loop & DIE_ON_FAIL:
break
j2gWindow.append(j2gWin)
m2gWindow.append(m2gWin)
g2mWindow.append(g2mWin)
UUT_mike._cmd("startLoops", DEBUG_LEVEL, self)
self.widths_avg[uutid] = {}
self.widths_min[uutid] = {}
self.widths_dist[uutid] = {} # total widths distribution
self.info("**********************************************************************")
self.print_summary(uutid, j2gWindow, m2gWindow, g2mWindow)
i = 0
j = 0
for j2g_outer, m2g_outer, g2m_outer in zip(j2gWindow, m2gWindow, g2mWindow):
for j2g_inner, m2g_inner, g2m_inner in zip(j2g_outer, m2g_outer, g2m_outer):
if (j2g_inner < thresh):
self.error("Iteration(%s,%s) J->G window width %s less than %s" % (i, j, j2g_inner, thresh))
self.errorCount[sn] += 1
if (m2g_inner < thresh):
self.error("Iteration(%s,%s) M->G window width %s less than %s" % (i, j, m2g_inner, thresh))
self.errorCount[sn] += 1
if (g2m_inner < thresh):
self.error("Iteration(%s,%s) G->M window width %s less that %s" % (i, j, g2m_inner, thresh))
self.errorCount[sn] += 1
j += 1
i += 1
self.info("**********************************************************************\n\n")
self.info("Resetting Line Card to purge special FPGA image...")
for sn, uut_dict in self.uutDict.items():
if self.errorCount[sn]:
UUT_carol._docmd("resetMe")
self.failed("LVDS_Screen test failed.")
else:
if (self.config.flags.VERBOSE and self.config.flags.DEBUG):
Diag.clean_up_logs(sn, self.diag)
UUT_carol._docmd("resetMe")
self.passed("LVDS_Screen test passed.")
self.info("Wait for 60 seconds after UUT reset...")
time.sleep(60)
return self.completed("LVDS_Screen test completed.")
def test_method(self):
errorCount = 0
# now begin the actual testing
cdTestList = self.cdTestList
osnrList = self.osnrList
osnrTol = self.config.osnrParams["tol"]
targetRefRxPwr = self.config.cardParams['rxpwr'][0]
targetUutRxPwr = PQ('-18.0 dB')
uutRxTol = self.config.cardParams['tol'][0]
refRxTol = self.config.cardParams["tol"][0]
temp = self.DAQ.temperature
minosnr, maxosnr = self.config.osnrSpecRange
INVALIDBER = self.config.INVALIDBER
refsn = self.REFRX.SN
wvlngth = self.tdc_channel_dict[self.tdc_type][1]
self.info("Starts sweeping CD ...")
self.lf.write("Starts sweeping CD ...")
tb = self.config.testbed
self.info("Enabling LINE PRBS on REF...")
self.REFRX_ber.enable_line_prbs()
self.REFRX_ber.set_for_tx_prbs()
self.tamb = temp
PWR_DELTA_MAX = PQ("2.0 dB")
for sn in self.uutSnList: #excluding refsn
obj = self.uutDict[sn]["obj"]
slot = self.uutDict[sn]["slot"]
UUT_ber = "UUT_slot%s" % slot
ber_obj = self.uut_ser_dict[UUT_ber]
self.info("Enabling LINE PRBS...")
ber_obj.enable_line_prbs()
ber_obj.set_for_rx_prbs()
for cd in cdTestList:
self.diagnostic("##### Current CD: %s" % cd)
# 1. disable CD EDFA output
if self.PROGCD.__class__ == instruments.GP700:
pass
else:
self.info("Disabling ProgCD output...")
self.dBox.set_switch(6, 'cnt')
# 2. set ProgCD to cd
self.info("Setting dispersion to %s" % cd)
self.dBox.dispersion = cd
self.info("Dispersion is: %s" % self.dBox.dispersion)
# 3. enable ProgCD
if self.PROGCD.__class__ == instruments.GP700:
pass
else:
self.info("Enabling ProgCD output...")
self.dBox.set_switch(6, 'byp')
# 4. enable and adjust Input VOAs to achieve targeted OSNR.
self.info("Turning on Input VOAs and Stabilizing.....\n" )
for voa in self.config.voaInList:
tb[voa].state = "ON"
self.VOAOUT.state = "ON"
time.sleep(10) # time to settle all instrument
tdc_trained = 0
# set to initial osnr to a low value to obtain a small bitty eye
self.info("Setting initial OSNR to %s" % self.init_osnr)
osnr = set_OSNR(self.OSA, self.VOAASE, self.init_osnr, osnrTol, wvlngth)
self.diagnostic("Initial OSNR %s" % osnr)
pstatus, rxpwr = set_RxPwr(self.REFRX, self.VOAOUT,
targetRefRxPwr, refRxTol)
reacq_settle_time = 180
for sn in self.uutSnList:
obj = self.uutDict[sn]["obj"]
slot = self.uutDict[sn]["slot"]
ser_obj = self.uut_ser_dict[slot]
self.info("Setting UUT (%s) in slot %s to initial dispersion to: %d" % (sn, slot,-cd))
ser_obj.set_tdc_startdisp(-cd)
if 1:
self.info("Dumping out UUT TDC setting...")
raw_info = ser_obj.show_tdc_state()
self.info("%s" % raw_info)
self.info("Wait for TDC to heat up...")
time.sleep(20)
for sn in self.uutSnList:
ser_obj = self.uut_ser_dict[slot]
self.diagnostic("Forcing demod reacquistion on UUT %s..." % sn)
ser_obj.force_demod_reacq()
self.info("Sleeping for %s seconds after demod reacq..." % reacq_settle_time)
time.sleep(reacq_settle_time)
refsn_uut = "%s_%s" % (refsn, sn)
for targetOSNR in osnrList:
self.info("\n###### Verifying BER at CD: %s, OSNR: %s ######\n" %(cd, targetOSNR,))
self.lf.write("\n\nVerifying BER at CD: %s, OSNR: %s\n" % (cd, targetOSNR,))
# set the correct P3
osnr = set_OSNR(self.OSA, self.VOAASE, targetOSNR, osnrTol, wvlngth)
# 5 & 6. enable and adjust output VOA's to achieve target power
# reading
self.info("Turning on Output VOAs and Stablizing...\n")
self.VOAOUT.state = "ON"
refindex = 0 #RefRx index in refSnList
if (self.config.flags.DEBUG and self.config.flags.VERBOSE):
self.info("Start logging diagnostics from UUT Mike Shell...")
self.diag_logger[sn].info("*** BEFORE: PV OSNR: %s, CD: %s" % (targetOSNR, cd))
self.diag[sn].capture(None, ser_obj)
self.info("Start logging diagnostics from REF Mike Shell...")
self.diag_logger[refsn_uut].info("*** BEFORE: PV OSNR: %s, CD: %s" % (targetOSNR, cd))
self.diag[refsn_uut].capture(None, self.REFRX)
hsynclosshist = {}
hberr = {}
cberr = {}
lber = {}
qval = {}
rxpwr = {}
qval = {}
tdc_disp = {}
current_disp = {}
q_list = []
uutindex = 0 # UUT index in uutSnList
berLimit = self.config.berLimit
osnrBerLimits = self.config.osnrBerLimits
uut_index = 0
for sn in self.uutSnList: #excluding refsn
self.diagnostic("##### Running UUT (%s) " % sn)
obj = self.uutDict[sn]["obj"]
slot = self.uutDict[sn]["slot"]
ser_obj = self.uut_ser_dict[slot]
#print self.uut_ser_dict
obj = ser_obj
UUT_ber = "UUT_slot%s" % slot
ber_obj = self.uut_ser_dict[UUT_ber]
self.info("Setting UUT Rx Power to %s." % (targetUutRxPwr,))
self.lf.write("\n\nSetting UUT RX Power to %s.\n" % (targetUutRxPwr,))
pstatus, rxpwr[sn] = set_RxPwr(ser_obj, self.VOAOUT,
targetUutRxPwr, refRxTol)
if not pstatus:
self.diagnostic("UUT RxPwr %s not equivalent to "
"ExpRxPwr %s"
%(rxpwr[sn], targetUutRxPwr))
self.lf.write("\n\nWARNING: UUT RxPwr %s not equivalent to "
"ExpRxPwr %s"
%(rxpwr[sn], targetUutRxPwr))
self.info("### Running UUT (%s) on slot (%s)" % (sn, slot))
uut_slot = int(slot)
uut_output_sw_name = self.UUT_LINE_OUTPUT_SW.name
uut_output_sw_mod_name = self.UUT_LINE_OUTPUT_SW.sw_mod
if int(uut_slot) < 6:
uut_output_sw_pos = int(uut_slot) - 1
else:
uut_output_sw_pos = int(uut_slot) - 5
self.info("### Setting %s to output on %d" % (uut_output_sw_name, uut_output_sw_pos))
self.DiCon.set_4x1_switch_output(uut_output_sw_mod_name, uut_output_sw_pos)
# starts TDC trainning.
self.info("Starting TDC training process...can take up to 10 minutes")
self.tmp_uutDict = copy(self.config.uut_dict)
self.tmp_uutSnList = self.tmp_uutDict.keys()
tdc_lof_timeout = '120.0'
self.info("Setting LOF timeout value %s for TDC..." % tdc_lof_timeout)
ser_obj.set_tdc_lof_timeout(tdc_lof_timeout)
for ser_no in self.tmp_uutSnList: #excluding refsn
self.info("### ser_no: %s" % ser_no)
obj = self.tmp_uutDict[ser_no]["obj"]
slot = self.tmp_uutDict[ser_no]["slot"]
tmp_uut_ser_dict = copy(self.uut_ser_dict)
lc = tmp_uut_ser_dict[slot]
self.diagnostic("Clearing slot %s(%s) TDC trainning bit..." % (slot, ser_no))
lc.clear_trainning_flag()
self.info("Resetting LINE PRBS on REF & UUT...")
self.REFRX_ber.reset_line_prbs()
ber_obj.reset_line_prbs()
hi = max(osnrBerLimits[targetOSNR])
low = min(osnrBerLimits[targetOSNR])
limit_check_timeout = 600 # 6 minutes
time_check, lstatus, lber[sn] = self.check_limit(hi, low,
ber_obj, ser_obj, self.REFRX_ber, sn, refsn_uut,
self.tamb,
targetOSNR, cd, limit_check_timeout)
self.diagnostic("Check limit done within %s seconds" % time_check)
self.diagnostic("SN: %s" % sn)
self.diagnostic("Force enabling PRBS generator on REF...")
self.REFRX_ber.set_for_tx_prbs()
lber[refsn] = self.REFRX_ber.BER
rxpwr[refsn] = self.REFRX.RxPwr
rxpwr[sn] = obj.RxPwr
self.diagnostic("UUT RxPwr: %s" % rxpwr[sn])
self.info("BER: %s" % lber[sn])
if not lstatus:
#self.errorCount[sn] += 1
self.error("slot%s(%s):\n UUT current BER not stabilized.\n" %(slot, sn))
self.lf.write("\n\nERROR:slot%s(%s):\n UUT current BER not stabilized.\n" %(slot, sn))
self.info("slot%s(%s):\n TAmb: %s OSNR: %s UUTRxBER: %s RefRxBER: %s UUTRxPwr: %s RefRxPower: %s\n"
% (slot, sn, temp, osnr, lber[sn], lber[refsn], rxpwr[sn], rxpwr[refsn]))
self.lf.write("\n\nslot%s(%s):\n TAmb: %s OSNR: %s UUTRxBER: %s RefRxBER: %s UUTRxPwr: %s RefRxPower: %s\n"
% (slot, sn, temp, osnr, lber[sn], lber[refsn], rxpwr[sn], rxpwr[refsn]))
# compare the power delta, abort if the delta is > 2dB
pwr_delta = abs(rxpwr[sn] - rxpwr[refsn])
if pwr_delta > PWR_DELTA_MAX:
self.error("Power delta %s is greater than %s" % (pwr_delta, PWR_DELTA_MAX))
else:
self.info("Power delta %s is within range %s" % (pwr_delta, PWR_DELTA_MAX))
uutindex += 1
qval[sn] = round(get_Q(lber[sn]), 2)
tdc_disp[sn] = ser_obj.show_actual_dispersion()
numIter = self.config.numIter
if cd == 0:
# xxx: the reference card has TDC disabled, so for
qval[refsn] = round(get_Q(lber[refsn]), 2)
else:
qval[refsn] = INVALIDBER
uutid = self.uutDict[sn]["id"]
slot = self.uutDict[sn]["slot"]
self.info("%s(%s):\n TAmb: %s UUTRxBER: %s RefRxBER: %s UUTRxPwr: %s RefRxPower: %s\n"
% (slot, sn, temp, lber[sn], lber[refsn], rxpwr[sn], rxpwr[refsn]))
self.lf.write("\n\n %s(%s):\n TAmb: %s UUTRxBER: %s RefRxBER: %s "
"UUTRxPwr: %s RefRxPower: %s\n"
% (slot, sn, temp, lber[sn], lber[refsn], rxpwr[sn], rxpwr[refsn]))
#Comparing lber with the specified limits
uutid = self.uutDict[sn]["id"]
self.diagnostic("ID: %s" %uutid)
if (self.config.flags.DEBUG and self.config.flags.VERBOSE):
self.info("Start logging diagnostics from UUT Mike Shell...")
self.diag_logger[sn].info("*** AFTER: PV OSNR: %s, CD: %s" % (targetOSNR, cd))
self.diag[sn].capture(None, ser_obj)
self.info("Start logging diagnostics from REF Mike Shell...")
self.diag_logger[refsn_uut].info("*** BEFORE: PV OSNR: %s, CD: %s" % (targetOSNR, cd))
self.diag[refsn_uut].capture(None, self.REFRX)
if osnrBerLimits.has_key(targetOSNR):
hi = max(osnrBerLimits[targetOSNR])
low = min(osnrBerLimits[targetOSNR])
self.diagnostic("HI: %s, LOW: %s" % (hi, low))
if qval[sn] < low or qval[sn] > hi:
self.errorCount[sn] += 1
self.error("%s(%s):\nUUT actual Q %s (%s) not within BER limit (%s, %s)\n"
%(slot, sn, qval[sn], lber[sn], low, hi))
self.lf.write("\n\nERROR: %s(%s):\n UUT actual Q %s (%s) not within BER limit (%s, %s)\n"
%(slot, sn, qval[sn], lber[sn], low, hi))
else:
pass
self.lineRxBerArgs[uutid].append((temp, cd, osnr,
lber[sn], lber[refsn],
qval[sn], qval[refsn],
rxpwr[sn], rxpwr[refsn],
tdc_disp[sn]))
edfa_info = ser_obj.get_edfa_loop_params()
(pd1, pd2) = ser_obj.get_pd1_pd2()
self.diagnostic("LaserCurr: %s, LaserAdc: %s, IpwrdBm: %s, Ipwr: %s, Pd1: %s, Pd2: %s, UutDispersion: %s" % \
(edfa_info['LaserCurr'], edfa_info['LaserAdc'],
edfa_info['IpwrdBm'], edfa_info['Ipwr'],
pd1, pd2, tdc_disp[sn]))
#self.info(self.lineRxBerArgs)
for sn in self.uutSnList:
slot = self.uutDict[sn]["slot"]
uutid = self.uutDict[sn]["id"]
self.diagnostic(self.errorCount[sn])
if self.errorCount[sn]:
self.lf.write("\n\nERROR: %s(%s):\n UUT LineRxBER test failed.\n"
%(slot, sn))
self.failed("%s(%s):\n UUT LineRxBER test failed.\n" %(slot, sn), uutid)
else:
# clean up logs if the test passes by providing the diagnostic
# dictionary to the clean-up function.
Diag.clean_up_logs(sn, self.diag)
self.passed("%s(%s):\n UUT LineRxBER test passed.\n" %(slot, sn), uutid)
return self.completed("LineRxBER test completed.")
def test_method(self):
errorCount = 0
sc = self.SC
# now begin the actual testing
osnrList = self.config.osnrList
cdTestList = self.config.cdTestList
#cdTestList = self.config.cdTestList
osnrTol = self.config.osnrParams["tol"]
targetRefRxPwr = self.config.cardParams['rxpwr'][0]
targetPwr = targetRefRxPwr
uutRxTol = self.config.cardParams['tol'][0]
refRxTol = self.config.cardParams["tol"][0]
temp = self.DAQ.temperature
minosnr, maxosnr = self.config.osnrSpecRange
INVALIDBER = self.config.INVALIDBER
refsn = self.REFRX.SN
wvlngth = self.tdc_channel_dict[self.tdc_type][1]
self.info("Starts sweeping CD ...")
self.lf.write("Starts sweeping CD ...")
tb = self.config.testbed
self.info("Enabling LINE PRBS on REF...")
self.REFRX_ber.enable_line_prbs()
self.REFRX_ber.set_for_tx_prbs()
self.tamb = temp
vadj_ber = {}
vadj_dict = {}
for sn in self.uutSnList: #excluding refsn
obj = self.uutDict[sn]["obj"]
slot = self.uutDict[sn]["slot"]
UUT_ber = "UUT_slot%s" % slot
ber_obj = self.uut_ser_dict[UUT_ber]
self.info("Enabling LINE PRBS...")
ber_obj.enable_line_prbs()
ber_obj.set_for_rx_prbs()
for cd in cdTestList:
self.diagnostic("##### Current CD: %s" % cd)
# 1. disable CD EDFA output
if self.PROGCD.__class__ == instruments.GP700:
pass
else:
self.info("Disabling ProgCD output...")
self.dBox.set_switch(6, 'cnt')
# 2. set ProgCD to cd
self.info("Setting dispersion to %s" % cd)
self.dBox.dispersion = cd
self.info("Dispersion is: %s" % self.dBox.dispersion)
# 3. enable ProgCD
if self.PROGCD.__class__ == instruments.GP700:
pass
else:
self.info("Enabling ProgCD output...")
self.dBox.set_switch(6, 'byp')
# 4. enable and adjust Input VOAs to achieve targeted OSNR.
self.info("Turning on Input VOAs and Stabilizing.....\n" )
for voa in self.config.voaInList:
tb[voa].state = "ON"
self.VOAOUT.state = "ON"
time.sleep(10) # time to settle all instrument
tdc_trained = 0
# set to initial osnr to a low value to obtain a small bitty eye
self.info("Setting initial OSNR to %s" % self.init_osnr)
osnr = set_OSNR(self.OSA, self.VOAASE, self.init_osnr, osnrTol, wvlngth)
self.diagnostic("Initial OSNR %s" % osnr)
pstatus, rxpwr = set_RxPwr(self.REFRX, self.VOAOUT,
targetRefRxPwr, refRxTol)
reacq_settle_time = 180
for sn in self.uutSnList:
obj = self.uutDict[sn]["obj"]
slot = self.uutDict[sn]["slot"]
ser_obj = self.uut_ser_dict[slot]
self.info("Setting UUT (%s) in slot %s to initial dispersion to: %d" % (sn, slot,-cd))
ser_obj.set_tdc_startdisp(-cd)
self.info("Wait for TDC to heat up...")
time.sleep(20)
for sn in self.uutSnList:
ser_obj = self.uut_ser_dict[slot]
self.diagnostic("Forcing demod reacquistion on UUT %s..." % sn)
ser_obj.force_demod_reacq()
self.info("Sleeping for %s seconds after demod reacq..." % reacq_settle_time)
time.sleep(reacq_settle_time)
refsn_uut = "%s_%s" % (refsn, sn)
for targetOSNR in osnrList:
self.info("\n###### Verifying BER at CD: %s, OSNR: %s ######\n" %(cd, targetOSNR,))
self.lf.write("\n\nVerifying BER at CD: %s, OSNR: %s\n" % (cd, targetOSNR,))
# set the correct P3
osnr = set_OSNR(self.OSA, self.VOAASE, targetOSNR, osnrTol, wvlngth)
# 5 & 6. enable and adjust output VOA's to achieve target power
# reading
self.info("Turning on Output VOAs and Stablizing...\n")
self.VOAOUT.state = "ON"
rxpwr = {}
lber = {}
q_val = {}
refindex = 0 #RefRx index in refSnList
if (self.config.flags.DEBUG and self.config.flags.VERBOSE):
self.info("Start logging diagnostics from UUT Mike Shell...")
self.diag_logger[sn].info("*** BEFORE: PV OSNR: %s, CD: %s" % (targetOSNR, cd))
self.diag[sn].capture(None, ser_obj)
self.info("Start logging diagnostics from REF Mike Shell...")
self.diag_logger[refsn_uut].info("*** BEFORE: PV OSNR: %s, CD: %s" % (targetOSNR, cd))
self.diag[refsn_uut].capture(None, self.REFRX)
hsynclosshist = {}
hberr = {}
cberr = {}
lber = {}
qval = {}
rxpwr = {}
qval = {}
tdc_disp = {}
current_disp = {}
q_list = []
uutindex = 0 # UUT index in uutSnList
berLimit = self.config.berLimit
osnrBerLimits = self.config.osnrBerLimits
uut_index = 0
download = False
for sn in self.uutSnList: #excluding refsn
self.diagnostic("##### Running UUT (%s) " % sn)
obj = self.uutDict[sn]["obj"]
slot = self.uutDict[sn]["slot"]
ser_obj = self.uut_ser_dict[slot]
#print self.uut_ser_dict
obj = ser_obj
UUT_ber = "UUT_slot%s" % slot
ber_obj = self.uut_ser_dict[UUT_ber]
self.info("Setting UUT Rx Power to %s." % (targetRefRxPwr,))
self.lf.write("\n\nSetting UUT RX Power to %s.\n" % (targetRefRxPwr,))
pstatus, rxpwr[sn] = set_RxPwr(ser_obj, self.VOAOUT,
targetRefRxPwr, refRxTol)
if not pstatus:
self.diagnostic("UUT RxPwr %s not equivalent to "
"ExpRxPwr %s"
%(rxpwr[sn], targetRefRxPwr))
self.lf.write("\n\nWARNING: UUT RxPwr %s not equivalent to "
"ExpRxPwr %s"
%(rxpwr[sn], targetRefRxPwr))
self.info("### Running UUT (%s) on slot (%s)" % (sn, slot))
uut_slot = int(slot)
uut_output_sw_name = self.UUT_LINE_OUTPUT_SW.name
uut_output_sw_mod_name = self.UUT_LINE_OUTPUT_SW.sw_mod
if int(uut_slot) < 6:
uut_output_sw_pos = int(uut_slot) - 1
else:
uut_output_sw_pos = int(uut_slot) - 5
self.info("### Setting %s to output on %d" % (uut_output_sw_name, uut_output_sw_pos))
self.DiCon.set_4x1_switch_output(uut_output_sw_mod_name, uut_output_sw_pos)
# starts TDC trainning.
self.info("Starting TDC training process...can take up to 10 minutes")
self.tmp_uutDict = copy(self.config.uut_dict)
self.tmp_uutSnList = self.tmp_uutDict.keys()
tdc_lof_timeout = '120.0'
self.info("Setting LOF timeout value %s for TDC..." % tdc_lof_timeout)
ser_obj.set_tdc_lof_timeout(tdc_lof_timeout)
for ser_no in self.tmp_uutSnList: #excluding refsn
self.info("### ser_no: %s" % ser_no)
obj = self.tmp_uutDict[ser_no]["obj"]
slot = self.tmp_uutDict[ser_no]["slot"]
tmp_uut_ser_dict = copy(self.uut_ser_dict)
lc = tmp_uut_ser_dict[slot]
self.diagnostic("Clearing slot %s(%s) TDC trainning bit..." % (slot, ser_no))
lc.clear_trainning_flag()
hi = max(osnrBerLimits[targetOSNR])
low = min(osnrBerLimits[targetOSNR])
limit_check_timeout = 600 # 6 minutes
time_check, lstatus, lber[sn] = self.check_limit(hi, low,
ber_obj, ser_obj, self.REFRX_ber, sn, refsn_uut,
self.tamb,
targetOSNR, cd, limit_check_timeout)
self.diagnostic("Check limit done within %s seconds" % time_check)
self.diagnostic("SN: %s" % sn)
self.diagnostic("Force enabling PRBS generator on REF...")
self.REFRX_ber.set_for_tx_prbs()
lber[refsn] = self.REFRX_ber.BER
rxpwr[refsn] = self.REFRX.RxPwr
rxpwr[sn] = obj.RxPwr
self.diagnostic("UUT RxPwr: %s" % rxpwr[sn])
self.info("BER: %s" % lber[sn])
if not lstatus:
self.error("slot%s(%s):\n UUT current BER not stabilized.\n" %(slot, sn))
self.lf.write("\n\nERROR:slot%s(%s):\n UUT current BER not stabilized.\n" %(slot, sn))
self.info("slot%s(%s):\n TAmb: %s OSNR: %s UUTRxBER: %s RefRxBER: %s UUTRxPwr: %s RefRxPower: %s\n"
% (slot, sn, temp, osnr, lber[sn], lber[refsn], rxpwr[sn], rxpwr[refsn]))
self.lf.write("\n\nslot%s(%s):\n TAmb: %s OSNR: %s UUTRxBER: %s RefRxBER: %s UUTRxPwr: %s RefRxPower: %s\n"
% (slot, sn, temp, osnr, lber[sn], lber[refsn], rxpwr[sn], rxpwr[refsn]))
uutindex += 1
qval[sn] = round(get_Q(lber[sn]), 2)
tdc_disp[sn] = ser_obj.show_actual_dispersion()
numIter = self.config.numIter
if cd == 0:
# xxx: the reference card has TDC disabled, so for
qval[refsn] = round(get_Q(lber[refsn]), 2)
else:
qval[refsn] = INVALIDBER
uutid = self.uutDict[sn]["id"]
slot = self.uutDict[sn]["slot"]
self.info("%s(%s):\n TAmb: %s UUTRxBER: %s RefRxBER: %s UUTRxPwr: %s RefRxPower: %s\n"
% (slot, sn, temp, lber[sn], lber[refsn], rxpwr[sn], rxpwr[refsn]))
self.lf.write("\n\n %s(%s):\n TAmb: %s UUTRxBER: %s RefRxBER: %s "
"UUTRxPwr: %s RefRxPower: %s\n"
% (slot, sn, temp, lber[sn], lber[refsn], rxpwr[sn], rxpwr[refsn]))
edfa_info = ser_obj.get_edfa_loop_params()
(pd1, pd2) = ser_obj.get_pd1_pd2()
self.diagnostic("LaserCurr: %s, LaserAdc: %s, IpwrdBm: %s, Ipwr: %s, Pd1: %s, Pd2: %s" % \
(edfa_info['LaserCurr'], edfa_info['LaserAdc'],
edfa_info['IpwrdBm'], edfa_info['Ipwr'], pd1, pd2))
#### now step through the Vadj voltages
cmd = "singleDac::getInstance"
dac_inst = obj.getInstance(cmd)
current_qval = 0
for val in range(0x0, 0x10f0, 0x100):
current_vadj_val = val
self.info("setting vadj to: %s" % (val))
obj.set_vadj_val(val, dac_inst)
# wait for 10 seconds for value to settle down
self.info("Wait for 10 secs for ber to become stable...")
self.info("Resetting line ber and Wait 10 secs for ber to become stable...")
ber_obj.reset_line_prbs()
time.sleep(10)
# now get the BER and store it
prev_qval = copy(current_qval)
print("Getting stable BER...")
lstatus, lber[sn] = get_StabBER(ber_obj)
q_val[sn] = round(get_Q(lber[sn]), 2)
self.info("vadj: %s, BER: %s, Q: %s" % (current_vadj_val, lber[sn], q_val[sn]))
vadj_dict[lber[sn]] = current_vadj_val
current_qval = copy(q_val[sn])
if not lstatus:
self.error("slot%s(%s):\n UUT current BER not stabilized.\n" %(slot, sn))
self.lf.write("\n\nERROR:slot%s(%s):\n UUT current BER not stabilized.\n" %(slot, sn))
self.info("CURR: %s, PREV: %s" % (current_qval, prev_qval))
#if (current_qval < prev_qval):
# self.diagnostic("Current Q %s is < previous: %s!" % (current_qval, prev_qval))
# need to roll back to previous setting.
# break
#else:
# prev_qval = current_qval
vadj_ber[sn] = vadj_dict
new_vadj_val = min(vadj_ber[sn].keys())
# if the new vadj_val is invalid, then just use the
# original value.
new_q_val = round(get_Q(new_vadj_val), 2)
self.info("Opt QVal=%s" % (new_q_val))
#min_q_val = 12.8
min_q_val = 11.5
self.info("Disabling module prior to reading/writing EEPROM")
sc.module_control(slot, "Disable", self)
time.sleep(10)
self.info("Setting module to flash mode...")
obj = ser_obj
ber_obj.prepFlash()
phrx_cal_tag = ber_obj.upload_cust('PHRX_CAL')
if ((PQ(0.9, 'BER') < new_vadj_val) or (new_q_val < min_q_val)):
self.error("min BER %s (%s) is INVALID!" % (new_vadj_val, new_q_val))
self.errorCount[sn] += 1
self.info("Keeping original vadj value: %s" % phrx_cal_tag.Vadj)
self.info("No update to tag is made...")
else:
download = True
new_dac_vadj_val = vadj_dict[new_vadj_val]
new_dac_val = round(new_dac_vadj_val * -5.5 / 0xFFF, 2)
self.diagnostic("New VADJ value is: 0x%x (%s)" % (new_dac_vadj_val, new_dac_val))
phrx_cal_tag.Vadj = str(new_dac_val)
self.info("Download tag PHRX_CAL back into EEPROM...")
self.info(phrx_cal_tag.__str__())
res = ber_obj.download_cust(phrx_cal_tag)
uutid = self.uutDict[sn]["id"]
self.vadjArgs[uutid] = (vadj_dict)
#save the tag as xml file...
xml_file_name = "PHRX_CAL_%s.xml" % sn
self.save_object(phrx_cal_tag, xml_file_name)
self.info("Enabling module...")
sc.module_control(slot, "Enable", self)
for sn in self.uutSnList:
slot = self.uutDict[sn]["slot"]
uutid = self.uutDict[sn]["id"]
self.diagnostic(self.errorCount[sn])
if self.errorCount[sn]:
self.lf.write("\n\nERROR: %s(%s):\n UUT PhCalVadj test failed.\n"
%(slot, sn))
self.failed("%s(%s):\n UUT PhCalVadj test failed.\n" %(slot, sn), uutid)
else:
# clean up logs if the test passes by providing the diagnostic
# dictionary to the clean-up function.
Diag.clean_up_logs(sn, self.diag)
self.passed("%s(%s):\n UUT PhCalVadj test passed.\n" %(slot, sn), uutid)
if(download):
self.info("Resetting line card so tag changes can take affects...")
# DO THIS FROM CAROL
ber_obj.reset_card()
reset_dsp_sleep_time = 180
self.info("Wait %s seconds for DSP to come up..." % reset_dsp_sleep_time)
time.sleep(reset_dsp_sleep_time)
return self.completed("PhCalVadj test completed.")
def test_method(self):
errorCount = 0
# bandwidth
cdTestList = self.config.cdTestList
osnrTol = self.config.osnrParams["tol"]
INVALIDBER = self.config.INVALIDBER
refsn = self.REFRX.SN
# a list of client protocol to check.
#protocol_list = ['10gbelan',]
protocol_list = ['sonetsdh', 'otu2_sonetsdh', '10gbelan',]
osnrTol = self.config.osnrParams["tol"]
targetRefRxPwr = self.config.cardParams['rxpwr'][0]
targetPwr = targetRefRxPwr
uutRxTol = self.config.cardParams['tol'][0]
refRxTol = self.config.cardParams["tol"][0]
protocol_status = {}
# client port low power
CLIENT_PORT_LOW_LIMIT = PQ('-14', 'dBm')
REF_PORT_LOW_LIMIT = PQ('-21', 'dBm')
sc_obj = self.SC # shelfcontroller object for XOOM interface
shelf = 1
temp = self.DAQ.temperature
self.diagnostic("Current temperature: %s" % temp)
wvlngth = self.tdc_channel_dict[self.tdc_type][1]
tb = self.config.testbed
client_analyzer = self.config.testbed['Ref_InnoCor']
self.info("InnoCor RxPwr: %s" % client_analyzer.show_rx_power())
for cd in cdTestList:
self.diagnostic("##### Current CD: %s" % cd)
# 1. disable CD EDFA output
self.info("Disabling ProgCD output...")
if self.PROGCD.__class__ == instruments.GP700:
pass
else:
self.info("Disabling ProgCD output...")
self.dBox.set_switch(6, 'cnt')
# 2. set ProgCD to cd
self.info("Setting dispersion to %s" % cd)
self.dBox.dispersion = cd
self.info("Dispersion is: %s" % self.dBox.dispersion)
# 3. enable ProgCD
if self.PROGCD.__class__ == instruments.GP700:
pass
else:
self.info("Enabling ProgCD output...")
self.dBox.set_switch(6, 'byp')
# 4. enable and adjust Input VOAs to achieve targeted OSNR.
# 4. enable and adjust Input VOAs to achieve targeted OSNR.
self.info("Turning on Input VOAs and Stabilizing.....\n" )
#for voa in self.config.voaInList:
# tb[voa].state = "ON"
self.diagnostic("Turning ON VOAs...")
self.VOAASE.state = "ON"
self.VOAREFTX.state = "ON"
self.VOAOUT.state = "ON"
time.sleep(10) # time to settle all instrument
berrColInterval = 120
self.diagnostic("BER Collection interval is: %s" % berrColInterval)
tdc_disp = {}
uutindex = 0 # UUT index in uutSnList
rxpwr = {}
lber = {}
refindex = 0 #RefRx index in refSnList
port_inst_dict = {}
# set the correct P3
for sn in self.uutSnList: #excluding refsn
slot = self.uutDict[sn]["slot"]
uut_slot = int(slot)
ser_obj = self.uut_ser_dict[slot]
obj = ser_obj
UUT_ber = "UUT_slot%s" % slot
ber_obj = self.uut_ser_dict[UUT_ber]
self.info("Getting port instances...")
port_inst_dict = ber_obj.get_port_instances()
self.info("Port instances: %s" % port_inst_dict)
is_2_1 = self.rel_dict[slot]['is_2_1']
release = self.rel_dict[slot]['release']
self.diagnostic("IS_2_1: %s, release: %s" % (is_2_1, release))
slot_num = (uut_slot-1) % 4
# XXX: disable module prior to messing with TDC control
#setattr(obj, 'ModuleControl', 'Disabled')
# set the DiCon switch to allow the UUT on slot X to
# transmit
self.info("### Running UUT (%s) on slot (%s)" % (sn, slot))
uut_output_sw_name = self.UUT_LINE_OUTPUT_SW.name
if uut_slot > 5:
uut_output_sw_pos = int(uut_slot) - 5
else:
uut_output_sw_pos = int(uut_slot) - 1
uut_client_output_sw_name = self.UUT_CLIENT_OUTPUT_SW.name
self.info("### Setting %s to output on %d" % (uut_output_sw_name, uut_output_sw_pos))
self.DiCon.set_4x1_switch_output(uut_output_sw_name, uut_output_sw_pos)
self.info("### Setting %s to output on %d" % (uut_client_output_sw_name, uut_output_sw_pos))
self.DiCon.set_4x1_switch_output(uut_client_output_sw_name, uut_output_sw_pos)
# 0. set dispersion
self.diagnostic("Disabling UUT's PRBS generator and analyzer...")
ser_obj.disable_prbs_gen()
init_cd_dispersion = 0
self.info("Setting initial UUT (%s) TDC dispersion to: %d" % (sn, init_cd_dispersion))
ser_obj.set_tdc_startdisp(init_cd_dispersion)
# 1. set LOF timeout
self.info("Setting LOF timeout value for TDC...")
ser_obj.set_tdc_lof_timeout()
#setattr(obj, 'ModuleControl', 'Enabled')
self.init_osnr = PQ("21.0 dB")
self.info("### Setting initial OSNR to %s" % self.init_osnr)
osnr = set_OSNR(self.OSA, self.VOAASE, self.init_osnr, osnrTol, wvlngth)
self.diagnostic("Initial OSNR %s" % osnr)
pstatus, rxpwr = set_RxPwr(self.REFRX, self.VOAOUT,
targetRefRxPwr, refRxTol)
reacq_settle_time = 180
for sn in self.uutSnList:
obj = self.uutDict[sn]["obj"]
slot = self.uutDict[sn]["slot"]
ser_obj = self.uut_ser_dict[slot]
self.info("Setting UUT (%s) in slot %s to initial dispersion to: %d" % (sn, slot,-cd))
ser_obj.set_tdc_startdisp(-cd)
for sn in self.uutSnList:
ser_obj = self.uut_ser_dict[slot]
self.diagnostic("Forcing demod reacquistion on UUT %s..." % sn)
ser_obj.force_demod_reacq()
self.info("Sleeping for %s seconds after demod reacq..." % reacq_settle_time)
time.sleep(reacq_settle_time)
self.line_check(self.rel_dict[slot], ber_obj, timeout=30)
# We need to test multiple protocols on the client port (4)
failed_params = {}
for protocol in protocol_list:
failed_params[protocol] = {}
# step 1: configure the InnCor device to transmit with a
# specific protocol.
self.info("Configuring InnoCor to transmit %s..." % protocol)
# first we have to stop the tx, configure the type, and
# then restart it.
if is_2_1:
self.info("#### IS 2_1")
client_analyzer.test_control('stop')
client_analyzer.turn_off_laser()
client_analyzer.set_protocol(protocol)
self.info("Turning on Client TX laser...")
client_analyzer.turn_on_laser()
time.sleep(2)
client_analyzer.test_control('start')
# step 2: Now setup the client ports on the UUT
for port_num in range(1, 5):
self.info("Stopping client port #%s" % (port_num,))
ber_obj.stop_client(port_num)
for port_num in range(1, 5):
self.info("Setting up port %s to transmit %s" %
(port_num,protocol))
ber_obj.setup_client_protocol_2_1(port_num, protocol)
time.sleep(30)
else: #2.3
self.info("#### IS 2_3")
self.info("Stopping Ref Client test...")
client_analyzer.test_control('stop')
time.sleep(5)
self.info("Turning off Ref Client TX laser...")
client_analyzer.turn_off_laser()
time.sleep(2)
client_analyzer.set_protocol(protocol)
# step 2: Now setup the client ports on the UUT
self.info("Setting up Client Ports to transmit %s" % (protocol))
ber_obj.setup_clients_via_xoom(sc_obj, slot, protocol, self)
if protocol == 'otu2_sonetsdh':
self.info("### Do extra steps for OTU2...")
for port_num in range(1, 5):
inst = port_inst_dict[port_num]
self.setup_tcm(ber_obj, inst)
self.info("Starting Ref Client test...")
self.info("Turning on Ref Client TX laser...")
client_analyzer.turn_on_laser()
time.sleep(2)
client_analyzer.test_control('start')
time.sleep(10)
# display InnCor and UUT Client rx power status.
ref_rx_pwr = client_analyzer.show_rx_power()
self.info("Client analyzer RxPwr: %s" % ref_rx_pwr)
try:
if (float(ref_rx_pwr._value) < float(REF_PORT_LOW_LIMIT._value)):
return self.incomplete("Reference Analyzer RxPwr (%s) < (%s)" % (ref_rx_pwr, REF_PORT_LOW_LIMIT))
except:
self.error("Client analyzer RxPwr: %s" % ref_rx_pwr)
#return self.incomplete("Reference Analyzer RxPwr (%s) is too low!" % ref_rx_pwr)
for port_num in range(1, 5):
port_rx_pwr = ber_obj.show_client_rx_pwr(port_num)
port_tx_pwr = ber_obj.show_client_tx_pwr(port_num)
self.info("UUT Client port #%s RxPwr: %s TxPwr: %s" % (port_num,
port_rx_pwr, port_tx_pwr))
uut_client_checked = 0
if not uut_client_checked:
berrColInterval = 120
self.diagnostic("### BER Collection interval is: %s" %
berrColInterval)
self.diagnostic("### Check for ClientBitErrors at CD=0")
count = 0
if is_2_1:
self.info("#### IS 2_1")
# wait for a minute prior to ClientBERTReset
sleep_time_plim_bert_reset = 10
self.info("Wait for %s seconds prior to ClientBERTReset..." % sleep_time_plim_bert_reset)
time.sleep(sleep_time_plim_bert_reset)
self.info("Resetting Client Traffic Generator counters...")
client_analyzer.reset_counters()
settle_time = 45
self.info("Sleeping for %s seconds..." % settle_time)
time.sleep(settle_time)
client_analyzer.test_control('stop')
time.sleep(2)
client_analyzer.test_control('start')
time.sleep(2)
self.info("Collecting BER info for: %s seconds iterations: %s..." % (berrColInterval,
berrColInterval/10,
))
out_of_sync = 0
if (berrColInterval > 100):
# print out client prbs information for 2 minutes wait
# case, display it every 10 seconds
sample_interval = 10
iterations = berrColInterval/sample_interval - 1
current_time_sync = 0
if protocol == '10gbelan':
self.info("Collecting %s information for %s seconds" % (protocol, berrColInterval))
time.sleep(20) # only sleep for 20 seconds for
client_analyzer.test_control('stop')
client_analyzer.test_control('start')
time.sleep(berrColInterval)
cberr, client_status = client_analyzer.get_ber_2_1(protocol)
status_10gbelan = self.check_10gbelan_status(is_2_1, cberr, client_status)
if not status_10gbelan:
self.error("Client_Status: %s" % client_status)
self.errorCount[sn] += 1
else:
self.info("%s test passed. Client: %s" % (protocol, client_status))
else:
for i in range(iterations):
time.sleep(sample_interval)
cberr, client_status = client_analyzer.get_ber_2_1(protocol)
self.info("iter: %s ClientBitErrors: %s ClientStatus: %s" %
(i, cberr, client_status))
if protocol == 'sonetsdh':
sonetsdh_status = self.check_sonetsdh_status(is_2_1, cberr, client_status)
if not sonetsdh_status:
# error
self.error("BER:%s, status: %s" % (cberr.value, client_status))
self.errorCount[sn] += 1
out_of_sync = 1
break
else: # otu2
otu2_status = self.check_otu2_status(is_2_1, cberr, client_status)
if not otu2_status:
# error
self.error("BER:%s, status: %s" % (cberr.value, client_status))
self.errorCount[sn] += 1
out_of_sync = 1
break
else:
time.sleep(berrColInterval)
else: # 2.3
self.info("#### IS 2_3")
self.info("Resetting Client Traffic Generator counters...")
client_analyzer.reset_counters()
if protocol == 'otu2_sonetsdh':
settle_time = 45 # 120
else:
settle_time = 30
self.info("Sleeping for %s seconds..." % settle_time)
time.sleep(settle_time)
self.info("Resetting Client Traffic Generator counters...")
client_analyzer.reset_counters()
start_time = time.time()
out_of_sync = 0
sample_interval = 10
i = 0
self.info("Checking traffic ...")
while 1:
current_time = time.time()
elasped = current_time - start_time
if elasped < berrColInterval:
time.sleep(sample_interval)
# print out client prbs information for 2 minutes wait
# case, display it every 10 seconds
current_time_sync = 0
cberr, client_status = client_analyzer.get_ber(protocol)
self.info("iter: %s ClientBitErrors: %s" % (i, cberr))
if protocol == '10gbelan':
(status_10gbelan,
failed_params[protocol]) = self.check_10gbelan_status(is_2_1, cberr, client_status)
protocol_status[protocol] = ('F', 'P')[status_10gbelan == 1]
if not status_10gbelan:
self.error("Client_Status: %s" % failed_params[protocol])
self.errorCount[sn] += 1
out_of_sync = 1
break
elif protocol == 'sonetsdh':
(sonetsdh_status,failed_params[protocol]) = self.check_sonetsdh_status(is_2_1, cberr, client_status)
protocol_status[protocol] = ('F', 'P')[sonetsdh_status == 1]
if not sonetsdh_status:
# error
self.error("BER:%s, status: %s" % (cberr.value, failed_params[protocol]))
self.errorCount[sn] += 1
out_of_sync = 1
break
else: # otu2
(otu2_status, failed_params[protocol]) = self.check_otu2_status(is_2_1, cberr, client_status)
protocol_status[protocol] = ('F', 'P')[otu2_status == 1]
if not otu2_status:
# error
self.error("BER:%s, failed params: %s" % (cberr.value, failed_params[protocol]))
self.errorCount[sn] += 1
out_of_sync = 1
break
i += 1
else:
self.info("Sampling interval expired!")
break
if protocol != '10gbelan':
client_errors = cberr.value
#cberr[sn] = int(client_errors)
if (client_errors != 0):
self.errorCount[sn] += 1
self.error("%s(%s):\n client Bit Errors %s != 0\n"
%(slot, sn, client_errors))
self.lf.write("\n\nERROR: %s(%s):\n client BitErrors %s != 0" %(slot, sn, client_errors))
uut_client_checked = 1
uutid = self.uutDict[sn]["id"]
self.clientChkArgs[uutid].append(temp)
self.info("Rebooting InnoCor analyzer...takes two minutes to come up")
client_analyzer.reboot()
time.sleep(120)
for sn in self.uutSnList:
slot = self.uutDict[sn]["slot"]
uutid = self.uutDict[sn]["id"]
is_2_1 = self.rel_dict[slot]['is_2_1']
if not is_2_1:
for protocol in protocol_list:
self.info("%s test status is '%s'" % (protocol, protocol_status[protocol]))
if self.errorCount[sn]:
self.lf.write("\n\nERROR: slot%s(%s):\n ClientCheck test failed.\n"
%(slot, sn))
self.failed("slot%s(%s):\n ClientCheck test failed.\n" %(slot, sn), uutid)
else:
# clean up logs if the test passes by providing the diagnostic
# dictionary to the clean-up function.
Diag.clean_up_logs(sn, self.diag)
self.passed("%s(%s):\n ClientCheck test passed.\n" %(slot, sn), uutid)
return self.completed("ClientCheck test completed.")
def test_method(self):
#initial failure due to incorrect command or start up issues
if (not self.passing):
uutid = self.uutDict[self.uutSnList[0]]["id"]
return self.failed("Burn In Test failed.", uutid)
#log header setup
startTime = time.time()
self.df.write( "\nTime Stamp: %s"
% (time.strftime( "%m-%d-%Y %H:%M:%S", time.localtime())))
self.df.write("\n\nBurn In Test Results:")
#starting test status
self.info("Starting burn in testing ...\n")
self.lf.write("Starting burn in testing ...\n")
# use to store temperature information.
self.temp_readings = {} # each key is the module with
self.temp_limits = self.config.temp_limits
for k in self.temp_limits.keys():
self.temp_readings[k] = []
#initialize test parameters
(min_chn, max_chn, odd_chn, even_chn, pwr, clpwr, cltxminpwr, cltxmaxpwr, losth, pminterval,
rxpwr, rxmintol, rxmaxtol, clrxpwr, clrxmintol, clrxmaxtol, linetxmintol, linetxmaxtol) = self.config.uutParams
uutid = self.uutDict[self.uutSnList[0]]["id"]
totalHrs, interval = self.config.totalhrs
numIter = self.config.numIter
self.modTemps[uutid] = {}
db_info = {}
priorRun = self.db.currentRun
i = 1
lineSecondsInSyncTotal = 0
clientSecondsInSyncTotal = 0
while i <= (self.numCheckIter - 6):
#wait time before reading
if self.debugMode == 1:
time.sleep(5) #debug mode
elif self.passing == False:
time.sleep(5) #speed up test if failing
else:
while(1):
time.sleep(60) #test mode
if ((time.time() - startTime)/60) >= (interval.value * i):
break
#initial status
tm = (time.time() - startTime)/60
#read uut state
clientberr = 0
lineberr = 0
self.resetState = True
while((self.resetState == True) and (self.resetCount <= self.maxResets)):
try:
uut_client_sync = self.uut860.get_client_sync()
self.info("mr 0x3e802 = %s" % uut_client_sync)
if uut_client_sync == '0':
uut_client_state = [0, 1, 0, 1, 0.0, 0, 0]
clientlostsync = 0
clientSecondsInSyncCurrent = int(time.time() - startTime)
clientSecondsOutOfSyncCurrent = 0
clientSecondsSinceReset = int(time.time() - startTime)
clientber = 0.0
clientPreFECBER = 0
clientberr = 0
else:
uut_client_state = [1, 0, 0, 0, 0.0, 0, 0]
clientlostsync = int(uut_client_state[0])
clientSecondsInSyncCurrent = uut_client_state[1]
clientSecondsOutOfSyncCurrent = uut_client_state[2]
clientSecondsSinceReset = uut_client_state[3]
clientber = uut_client_state[4]
clientPreFECBER = uut_client_state[5]
clientberr = uut_client_state[6]
except:
self.info("Got exception #2...")
uut_client_state = [1, 0, 0, 0, 0.0, 0, 0]
clientlostsync = int(uut_client_state[0])
clientSecondsInSyncCurrent = uut_client_state[1]
clientSecondsOutOfSyncCurrent = uut_client_state[2]
clientSecondsSinceReset = uut_client_state[3]
clientber = uut_client_state[4]
clientPreFECBER = uut_client_state[5]
clientberr = uut_client_state[6]
#lost sync determination
if (clientlostsync == 1):
self.resetState = self.uut860.get_4011_soft_reset_status()
if self.resetState == True:
self.info("UUT was reset.\n")
self.lf.write("\n\nUUT was reset.\n")
self.df.write("\n\nUUT was reset.\n")
self.db.msg += ("\n\nUUT was reset.\n")
time.sleep(30)
self.resetCount +=1
self.setup_uut()
else:
self.resetState = False
# dump the power readings
txPwrReading = self.uutdsp.show_line_tx_pwr()
rxPwrReading = self.uutdsp.show_line_rx_pwr()
clientOneTxPwrReading = self.uut860.show_client_tx_pwr(1)
clientOneRxPwrReading = self.uut860.show_client_rx_pwr(1)
clientTwoTxPwrReading = self.uut860.show_client_tx_pwr(2)
clientTwoRxPwrReading = self.uut860.show_client_rx_pwr(2)
clientThreeTxPwrReading = self.uut860.show_client_tx_pwr(3)
clientThreeRxPwrReading = self.uut860.show_client_rx_pwr(3)
clientFourTxPwrReading = self.uut860.show_client_tx_pwr(4)
clientFourRxPwrReading = self.uut860.show_client_rx_pwr(4)
# dump the temperature readings
#self.info("Dumping temperature sensor information.....")
tempReadings = self.uut860.get_raw_temps()
if not self.uut860.check_temp_limits(tempReadings, self.temp_limits, self):
self.passing = False
self.error("Module Temperature check failed!")
tempSummary = ""
while (tempReadings != {}):
sensorName, sensorReading = tempReadings.popitem()
tempSummary = "%s %s: %s degC" % (tempSummary, sensorName, sensorReading)
if sensorName in self.temp_limits.keys():
self.temp_readings[sensorName].append(float(sensorReading))
#self.info(self.temp_readings)
self.modTemps[uutid] = self.temp_readings
# dump the alarms information
#self.info("Dumping alarms information.....")
#line_alarms = self.uut860.dump_line_alarms('Titan')
#client_alarms = self.uut860.dump_client_alarms()
# display tdc dispersion information
tdc_disp = self.uutdsp.show_actual_dispersion()
self.info("#### UUT TDC Dispersion: %s" % tdc_disp)
self.lf.write("#### UUT TDC Dispersion: %s" % tdc_disp)
#Status Information
self.info("Iter: %d Time: %u min LostSync: %s SecondsInSync: %s ResetCount: %s" % (i, tm, clientlostsync, clientSecondsInSyncCurrent, self.resetCount))
self.info("Iter: %d LineTxPwr: %.2f dBm LineRxPwr %.2f dBm" % (i, txPwrReading, rxPwrReading))
self.info("Iter: %d Port1TxPwr: %.2f dBm Port1RxPwr: %.2f dBm Port2TxPwr: %.2f dBm Port2RxPwr: %.2f dBm" %
(i, clientOneTxPwrReading, clientOneRxPwrReading, clientTwoTxPwrReading, clientTwoRxPwrReading))
self.info("Iter: %d Port3TxPwr: %.2f dBm Port3RxPwr: %.2f dBm Port4TxPwr: %.2f dBm Port4RxPwr: %.2f dBm" %
(i, clientThreeTxPwrReading, clientThreeRxPwrReading, clientFourTxPwrReading, clientFourRxPwrReading))
self.lf.write("\n\nIter: %d Time: %u min LostSync: %s SecondsInSync: %s ResetCount: %s\n" % (i, tm, clientlostsync, clientSecondsInSyncCurrent, self.resetCount))
self.lf.write("\n\nIter: %d LineTxPwr: %.2f dBm LineRxPwr %.2f dBm\n" % (i, txPwrReading, rxPwrReading))
self.lf.write("\n\nIter: %d Port1TxPwr: %.2f dBm Port1RxPwr: %.2f dBm Port2TxPwr: %.2f dBm Port2RxPwr: %.2f dBm\n" %
(i, clientOneTxPwrReading, clientOneRxPwrReading, clientTwoTxPwrReading, clientTwoRxPwrReading))
self.lf.write("\n\nIter: %d Port3TxPwr: %.2f dBm Port3RxPwr: %.2f dBm Port4TxPwr: %.2f dBm Port4RxPwr: %.2f dBm\n" %
(i, clientThreeTxPwrReading, clientThreeRxPwrReading, clientFourTxPwrReading, clientFourRxPwrReading))
#self.info("Iter: %d Client Alarms: %s" % (i, client_alarms))
#self.lf.write("\n\nIter: %d Client Alarms: %s\n" % (i, client_alarms))
#self.info("Iter: %d Line Alarms: %s" % (i, line_alarms))
#self.lf.write("\n\nIter: %d Line Alarms: %s\n" % (i, line_alarms))
self.info("Iter: %d Temperature Sensor Readings: %s" % (i, tempSummary))
self.lf.write("\n\nIter: %d Temperature Sensor Readings: %s\n" % (i, tempSummary))
#Database Information
self.db.msg += ("Iter: %d Time: %u min LostSync: %s SecondsInSync: %s ResetCount: %s\n" % (i, tm, clientlostsync, clientSecondsInSyncCurrent, self.resetCount))
db_info['lastUpdate'] = datetime.datetime.fromtimestamp(timelib.now())
db_info['status'] = 2
db_info['endTime'] = None
db_info['currentRun'] = int(priorRun + (i/4))
self._update_uut_db(db_info)
#failure determination
if (self.resetCount > self.maxResets):
self.passing = False #uut was reset
self.failed("UUT was reset more than %s times." % self.maxResets)
if (clientlostsync == 1) and (self.resetState == False):
self.passing = False #uut is out of sync
self.failed("UUT was out of sync.")
#check all powers
if ((rxPwrReading < (txPwrReading + rxmintol)) or
(rxPwrReading > (txPwrReading + rxmaxtol)) or
(txPwrReading < (pwr + linetxmintol)) or
(txPwrReading > (pwr + linetxmaxtol))):
self.passing = False
self.failed("Line side power is not within range.\n")
#check all powers
if ((clientOneRxPwrReading < (clientTwoTxPwrReading + clrxmintol)) or
(clientOneRxPwrReading > (clientTwoTxPwrReading + clrxmaxtol)) or
(clientTwoTxPwrReading < cltxminpwr) or
(clientTwoTxPwrReading > cltxmaxpwr)):
self.passing = False
self.failed("Client side power is not within range.\n")
#check all powers
if ((clientTwoRxPwrReading < (clientThreeTxPwrReading + clrxmintol)) or
(clientTwoRxPwrReading > (clientThreeTxPwrReading + clrxmaxtol))or
(clientThreeTxPwrReading < cltxminpwr) or
(clientThreeTxPwrReading > cltxmaxpwr)):
self.passing = False
self.failed("Client side power is not within range.\n")
#check all powers
if ((clientThreeRxPwrReading < (clientFourTxPwrReading + clrxmintol)) or
(clientThreeRxPwrReading > (clientFourTxPwrReading + clrxmaxtol))or
(clientFourTxPwrReading < cltxminpwr) or
(clientFourTxPwrReading > cltxmaxpwr)):
self.passing = False
self.failed("Client side power is not within range.\n")
#check all powers
if ((clientFourRxPwrReading < (clientOneTxPwrReading + clrxmintol)) or
(clientFourRxPwrReading > (clientOneTxPwrReading + clrxmaxtol))or
(clientOneTxPwrReading < cltxminpwr) or
(clientOneTxPwrReading > cltxmaxpwr)):
self.passing = False
self.failed("Client side power is not within range.\n")
try:
uut_line_state = self.uut860.show_line_prbs()
except:
self.diagnostic("Problem retrieving LINE PRBS...trying again in 30 seconds")
time.sleep(30)
try:
uut_line_state = self.uut860.show_line_prbs()
except:
self.diagnostic("2nd try failed...using default...")
uut_line_state = [1, 0, 0, 0, 0.0, 0, 0]
linelostsync = int(uut_line_state[0])
lineSecondsInSyncCurrent = uut_line_state[1]
lineSecondsOutOfSyncCurrent = uut_line_state[2]
lineSecondsSinceReset = uut_line_state[3]
lineber = uut_line_state[4]
linePreFECBER = uut_line_state[5]
lineberr = uut_line_state[6]
self.check_line_ber_limits(uut_line_state)
if self.passing == False:
break
# line side status check
self.info("Resetting line prbs after 15 minutes...")
self.uut860.reset_line_prbs()
#interval increment
i += 1
#check itla
self.check_itla()
i += 6
db_info['lastUpdate'] = datetime.datetime.fromtimestamp(timelib.now())
db_info['status'] = 2
db_info['endTime'] = None
db_info['currentRun'] = int(priorRun + (i/4))
self._update_uut_db(db_info)
#record errors accumulated during the test
self.burnInTestArgs[uutid].append((lineberr, clientberr))
#pass/fail determination
self.df.write( "\nTime Stamp: %s"
% (time.strftime( "%m-%d-%Y %H:%M:%S", time.localtime())))
self.df.flush
if not self.passing:
self.db.msg += "\n\nBurn In Test failed."
db_info['status'] = -1
db_info['endTime'] = datetime.datetime.fromtimestamp(timelib.now())
self._update_uut_db(db_info)
return self.failed("Burn In Test failed.", uutid)
else:
self.db.msg += "\n\nBurn In Test passed."
db_info['status'] = 1
db_info['endTime'] = datetime.datetime.fromtimestamp(timelib.now())
self._update_uut_db(db_info)
Diag.clean_up_logs(self.serialno, self.diag)
return self.passed("Burn In Test passed.", uutid)
def test_method(self):
errorCount = 0
lber = {}
tdc_type = self.tdc_type
tb = self.config.testbed
iterations = self.config.iterations
for i in range(1, iterations):
self.diagnostic("##### Current iteration: %s" % i)
for sn in self.uutSnList: #excluding refsn
obj = self.uutDict[sn]["obj"]
slot = self.uutDict[sn]["slot"]
uut_slot = int(slot)
ser_obj = self.uut_ser_dict[slot]
UUT_ber = "UUT_slot%s" % slot
#UUT_ber = "UUT_slot%s_ber" % slot
ber_obj = self.uut_ser_dict[UUT_ber]
#ber_obj = self.config.testbed[UUT_ber]
obj = ser_obj
# this applies to 4400 only
if self.config.is_4400:
ber_obj.set_4400_to_4040()
time.sleep(5)
self.info("### Running UUT (%s) on slot (%s)" % (sn, slot))
self.info("Enabling LINE PRBS...")
ber_obj.enable_line_prbs()
self.info("### Resetting prbs stats...")
ber_obj.reset_line_prbs()
time.sleep(5)
line_ber = ber_obj.BER
secs_out_of_sync, post_fec_ber = ber_obj.get_post_fec_ber()
self.info("Line BER: %s, Secs in Sync: %s, postFEC BER: %s" % (line_ber, secs_out_of_sync, post_fec_ber))
if post_fec_ber != ERROR_FREE:
self.error("Line PostFEC errors detected, %s seconds out of sync!: %s" % (post_fec_ber, secs_out_of_sync))
self.errorCount[sn] += 1
break
# step 3: issue hammer command
self.info("### Resetting all FPGAs...")
ber_obj._docmd('gw 5 1')
sleep_time = 60
self.info("Allowing for %s seconds for UUT to sync up..." % sleep_time)
time.sleep(sleep_time)
self.info("### Resetting prbs stats...")
ber_obj.reset_line_prbs()
ber_mon_time = 120
self.info("Collecting postFEC information for %s seconds" % ber_mon_time)
time.sleep(ber_mon_time)
secs_out_of_sync, post_fec_ber = ber_obj.get_post_fec_ber()
if post_fec_ber != ERROR_FREE:
self.error("Line PostFEC errors detected, %s seconds out of sync!: %s" % (post_fec_ber, secs_out_of_sync))
self.errorCount[sn] += 1
break
self.lf.write( "\nTime Stamp: %s"
% (time.strftime( "%m-%d-%Y %H:%M:%S", time.localtime())))
self.lf.flush()
for sn in self.uutSnList:
slot = self.uutDict[sn]["slot"]
uutid = self.uutDict[sn]["id"]
self.diagnostic(self.errorCount[sn])
if (self.errorCount[sn]):
self.lf.write("\n\nERROR: slot%s(%s):\n UUT ParityCheck test failed.\n"
%(slot, sn))
self.failed("slot%s(%s):\n UUT ParityCheck test failed.\n" %(slot, sn), uutid)
else:
# clean up logs if the test passes by providing the diagnostic
# dictionary to the clean-up function.
Diag.clean_up_logs(sn, self.diag)
self.passed("slot%s(%s):\n UUT ParityCheck test passed.\n" %(slot, sn), uutid)
return self.completed("ParityCheck test completed.")
def test_method(self):
errorCount = 0
sc = self.SC
shelf = 1
# bandwidth
xunit = self.config.osaParams["scaleXunit"]
# now begin the actual testing
osnrList = self.config.osnrList
cdTestList = self.config.cdTestList
osnrTol = self.config.osnrParams["tol"]
targetRefRxPwr = self.config.cardParams['rxpwr'][0]
targetPwr = targetRefRxPwr
uutRxTol = self.config.cardParams['tol'][0]
refRxTol = self.config.cardParams["tol"][0]
minosnr, maxosnr = self.config.osnrSpecRange
INVALIDBER = self.config.INVALIDBER
refsn = self.REFRX.SN
vssd_offsets = self.config.vssd_offsets
osnrBerLimits = self.config.osnrBerLimits
bwlist = self.config.bwLimit
bw = PQ("3.0 dB")
bwLowerLimit,bwUpperLimit = bwlist[bw]
print bwUpperLimit,bwLowerLimit
self.dbRes = {}
wvlngth = self.tdc_channel_dict[self.tdc_type][1]
self.info("Starts sweeping CD ...")
self.lf.write("Starts sweeping CD ...")
tb = self.config.testbed
for cd in cdTestList:
self.diagnostic("##### Current CD: %s" % cd)
# 1. disable CD EDFA output
#self.info("Disabling ProgCD output...")
#self.dBox.set_switch(6, 'cnt')
# 2. set ProgCD to cd
self.info("Setting dispersion to %s" % cd)
self.dBox.dispersion = cd
self.info("Dispersion is: %s" % self.dBox.dispersion)
# 3. enable ProgCD
#self.info("Enabling ProgCD output...")
#self.dBox.set_switch(6, 'byp')
# 4. enable and adjust Input VOAs to achieve targeted OSNR.
self.info("Turning on Input VOAs and Stabilizing.....\n" )
for voa in self.config.voaInList:
tb[voa].state = "ON"
time.sleep(10) # time to settle all instrument
for targetOSNR in osnrList:
self.info("\n###### Verifying BER at CD: %s, OSNR: %s ######\n" %(cd, targetOSNR,))
self.lf.write("\n\nVerifying BER at CD: %s, OSNR: %s\n" % (cd, targetOSNR,))
qval = {}
tdc_disp = {}
q_list = []
uutindex = 0 # UUT index in uutSnList
rxpwr = {}
lber = {}
q_val = {}
refindex = 0 #RefRx index in refSnList
# set the correct P3
download = False
for sn in self.uutSnList: #excluding refsn
slot = self.uutDict[sn]["slot"]
uut_slot = int(slot)
ser_obj = self.uut_ser_dict[slot]
obj = ser_obj
UUT_ber = "UUT_slot%s" % slot
ber_obj = self.uut_ser_dict[UUT_ber]
uutid = self.uutDict[sn]["id"]
self.dbRes[uutid] = {}
g1a1_opt_pass = False
ssd_opt_pass = False
slot_num = (uut_slot-1) % 4
card_type = sc.get_attribute("CardTypePresent", shelf, slot)
card = card_type[:-3]
self.info("Card in slot #%s is '%s'" % (slot, card))
if(card.find('4400') >= 0):
self.info("Setting UUT(4400) to 4040 Mode..")
ber_obj.set_4400_to_4040()
time.sleep(10)
self.info("Enabling loops to make sure prev test did not turn it on...")
obj.enable_drv_bal_loops()
time.sleep(10)
init_cd_dispersion = 0
self.info("Setting initial dispersion to: %d" % init_cd_dispersion)
ser_obj.set_tdc_startdisp(init_cd_dispersion)
# 1. set LOF timeout
self.info("Setting LOF timeout value for TDC...")
ser_obj.set_tdc_lof_timeout()
# set the DiCon switch to allow the UUT on slot X to
# transmit
self.info("### Running UUT (%s) on slot (%s)" % (sn, slot))
uut_output_sw_name = self.UUT_LINE_OUTPUT_SW.name
uut_output_sw_pos = int(uut_slot) - 5
self.info("Setting %s to output on %d" % (uut_output_sw_name, uut_output_sw_pos))
self.DiCon.set_4x1_switch_output(uut_output_sw_name, uut_output_sw_pos)
self.info("Setting target OSNR to %s" % targetOSNR)
osnr = set_OSNR(self.OSA, self.VOAASE, targetOSNR, osnrTol, wvlngth)
self.diagnostic("Target OSNR %s" % osnr)
# 5 & 6. enable and adjust output VOA's to achieve target power
# reading
self.info("Turning on Output VOAs and Stablizing...\n")
for voa in self.config.voaOutList:
tb[voa].state = "ON"
self.info("Setting Ref Rx Power to %s." % (targetRefRxPwr,))
self.lf.write("\n\nSetting Ref RX Power to %s.\n" % (targetRefRxPwr,))
pstatus, rxpwr[refsn] = set_RxPwr(self.REFRX, self.VOAOUT,
targetRefRxPwr, refRxTol)
if not pstatus:
stat = self.REFRX._docmd('stat')
self.diagnostic("STAT: %s" % stat)
self.error("REF RxPwr %s not equivalent to "
"ExpRxPwr %s"
%(rxpwr[refsn], targetRefRxPwr))
self.lf.write("\n\nERROR: REF RxPwr %s not equivalent to "
"ExpRxPwr %s"
%(rxpwr[refsn], targetRefRxPwr))
self.diagnostic("Forcing demod reacquistion on REF %s..." % refsn)
reacq_settle_time = 180
self.REFRX.force_demod_reacq()
self.info("Sleeping for %s seconds after demod reacq..." % reacq_settle_time)
time.sleep(reacq_settle_time)
#self.info("Sleeping 60sec..")
#time.sleep(60)
# XXX restart the Tx MUX after every LOS
# ser_obj.restart_tx_mux()
self.info("Enabling LINE PRBS on UUT...")
ber_obj.enable_line_prbs()
self.info("Enabling LINE PRBS on REF...")
self.REFRX_ber.enable_line_prbs()
self.info("Setting module to flash mode...")
ber_obj.prepFlash()
self.info("Disabling Driver and Balance Loops...")
obj.disable_drv_bal_loops()
time.sleep(10)
adj_cal_tag = ber_obj.upload_cust('DRIVER_AMP_ADJ_CAL')
drv_mfg_tag = ber_obj.upload_cust('DRIVER_AMP_ADJ_MFG')
org_xml_file_name = "DRIVER_AMP_ADJ_CAL_ORG_%s.xml" % sn
self.save_object(adj_cal_tag, org_xml_file_name)
self.save_object(drv_mfg_tag,('DRIVER_AMP_ADJ_MFG_%s.xml' % (sn)))
temp = float(self.temperature.value)
self.info("TAmb: %s" % (temp))
self.dbRes[uutid]['t_amb'] = temp
self.dbRes[uutid]['drv_mfg'] = drv_mfg_tag.sn
updateLst = []
tempFlag = "ROOM"
if( temp > 20 and temp < 30):
updateLst.append(1.0)
updateLst.append(30.0)
updateLst.append(60.0)
BW_tol = PQ("0.6 GHz")
elif(temp > 40 and temp < 60):
updateLst.append(60.0)
tempFlag = "HIGH"
BW_tol = PQ("3.0 GHz")
elif(temp < 0):
updateLst.append(1.0)
tempFlag = "LOW"
BW_tol = PQ("3.0 GHz")
else:
self.info("_debug temp:%s" % (temp))
pass
# =============== get INIT values for SSD and G1A1 ============
# If Tamb is at Room use values from main tag
# else use values from temperature tag
init_g1a1_val = 0.0
init_ssd_val = 0.0
g1a1_step = 0.024
ssd_step = 0.1
g1a1_dir = 1
ssd_dir = -1
#if(tempFlag == "ROOM"):
# init_ssd_val = float(adj_cal_tag.Ssd)
# init_g1a1_val = float(adj_cal_tag.G1a1)
#else:
ssd_temp_list = list(adj_cal_tag.get_element('SSD_TEMP_CAL'))
g1a1_temp_list = list(adj_cal_tag.get_element('G1A1_TEMP_CAL'))
for ssd in ssd_temp_list:
if(tempFlag == "LOW"):
if(eval(ssd.Temp) == 1.00 or
eval(ssd.Temp) == 5.00):
init_ssd_val = float(ssd.Voltage)
break
elif(tempFlag == "HIGH"):
if(eval(ssd.Temp) == 60.0):
init_ssd_val = float(ssd.Voltage)
ssd_step = 0.15
break
elif(tempFlag == "ROOM"):
if(eval(ssd.Temp) == 30.0):
init_ssd_val = float(ssd.Voltage)
break
else:
pass
for g1a1 in g1a1_temp_list:
if(tempFlag == "LOW"):
if(eval(g1a1.Temp) == 1.00 or
eval(g1a1.Temp) == 5.00):
init_g1a1_val = float(g1a1.Voltage)
break
elif(tempFlag == "HIGH"):
if(eval(g1a1.Temp) == 60.0):
init_g1a1_val = float(g1a1.Voltage)
break
elif(tempFlag == "ROOM"):
if(eval(g1a1.Temp) == 30.0):
init_g1a1_val = float(g1a1.Voltage)
break
else:
pass
self.info("Init SSD: %.3f, Init G1A1: %.3f" % (init_ssd_val, init_g1a1_val))
#self.info("using init_g1a1_val as -0.64")
#init_g1a1_val = -0.640
loopCnt = 6
qval_limit = 13.5 #minimum Q val
safe_g1a1 = 1.0
safe_ssd = -2.45
coarsePass = False
rxpwr[sn] = obj.RxPwr
settle_time = 600
#self.info("sleeping for 120 seconds to settle things down...")
#time.sleep(120)
ber_obj.set_for_tx_prbs()
self.REFRX_ber.set_for_rx_prbs()
self.REFRX_ber.reset_line_prbs()
lstatus, ber_start = get_LineBER(self.REFRX_ber)
if not lstatus:
self.info("REFRX not in sync...")
if ( ber_start.value >= 0.999):
self.info("REFRX not in sync...need to do coarse G1a1 sweep")
self.info("G1A1 COARSE STEP SWEEP...")
g1a1_val = init_g1a1_val
coarse_step = 0.1
for i in range(10):
self.info("setting g1a1 to %s" % (g1a1_val))
ser_obj.cust_set_driver_amp('G1a1', g1a1_val)
time.sleep(2)
self.REFRX_ber.reset_line_prbs()
time.sleep(1)
lstatus, ber_start = get_LineBER(self.REFRX_ber)
q_start = round(get_Q(ber_start),2)
self.info("ber:%s qval:%s" % (ber_start,q_start))
if(q_start > qval_limit):
init_g1a1_val = g1a1_val
coarsePass = True
self.info("Breaking out of COARSE sweep..")
break
g1a1_val += coarse_step
if(g1a1_val > safe_g1a1):
self.error("G1a1 sweep exceeds safety val of %s"
% (safe_g1a1))
break
if(not coarsePass):
return self.incomplete("Vssd Vg1a1 Optimization-- REF Out of Sync..")
hi = max(osnrBerLimits[targetOSNR])
low = min(osnrBerLimits[targetOSNR])
g1a1_qval_lst = []
tmpg1a1Lst = [init_g1a1_val - 0.048, init_g1a1_val,
init_g1a1_val + 0.048]
prevq = 0
prevg1a1 = tmpg1a1Lst[0]
self.info("")
self.info("Checking for the Parabolic envelope...")
for i in range(3):
g1a1_val = tmpg1a1Lst[i]
self.info("Setting G1a1 to (%s)" %
(g1a1_val))
ser_obj.cust_set_driver_amp('G1a1', g1a1_val)
time.sleep(2)
self.REFRX_ber.reset_line_prbs()
time.sleep(10)
lstatus, lber_init = get_StabBER(self.REFRX_ber)
q = round(get_Q(lber_init),2)
self.info("StabBER:%s Q:%s" % (lber_init,q))
if(i > 0):
deltaq = prevq - q
deltag1a1 = g1a1_val - prevg1a1
self.info("deltaQ:%s deltaG1a1:%s" %
(deltaq,deltag1a1))
if(abs(deltaq) < 0.1):
g1a1_val = prevg1a1 + 1.5*deltag1a1
self.info("Setting G1a1 to (%s)" %
(g1a1_val))
ser_obj.cust_set_driver_amp('G1a1', g1a1_val)
time.sleep(2)
self.REFRX_ber.reset_line_prbs()
time.sleep(10)
lstatus, lber_init = get_StabBER(self.REFRX_ber)
q = round(get_Q(lber_init),2)
self.info("StabBER:%s Q:%s" % (lber_init,q))
prevq = q
prevg1a1 = g1a1_val
g1a1_qval_lst.append((g1a1_val,q,))
tmpQ = list(zip(*g1a1_qval_lst)[1])
if(tmpQ[0] > tmpQ[1]):
g1a1_dir = -1
#g1a1_qval_lst = [] #re initialize this list
#g1a1_qval_lst.pop(0)
elif(tmpQ[2] > tmpQ[1]):
g1a1_dir = 1
#g1a1_qval_lst = [] #re initialize this list
#g1a1_qval_lst.pop(1)
elif(tmpQ[1] > tmpQ[0] and tmpQ[1] > tmpQ[2]):
g1a1_dir = -1
loopCnt = 3
self.info("Already at peak..")
else:
g1a1_dir = 1
self.info("G1A1 Sweep Direction: %s" % (g1a1_dir))
current_g1a1_val = init_g1a1_val + g1a1_dir*g1a1_step
prev_qval = tmpQ[1] #qval for the init_g1a1_val
titleLst = ['G1a1','Qval']
self.info("")
self.info("Starting G1a1 Fine Sweep...")
while(loopCnt > 0):
loopCnt -= 1
self.info("setting g1a1 to: %s" % (current_g1a1_val))
ser_obj.cust_set_driver_amp('G1a1', current_g1a1_val)
time.sleep(1)
self.REFRX_ber.reset_line_prbs()
self.info("Wait for 10 secs for ber to become stable...")
time.sleep(10)
#lstatus, lber[sn] = get_LineBER(self.REFRX_ber)
#if not lstatus:
# self.info("WARNING: slot%s(%s):\n UUT current BER not valid at OSNR: %s\n" %(slot, sn, osnr))
# self.lf.write("\n\nWARNING: slot%s(%s):\n UUT current BER not valid at OSNR: %s\n" %(slot, sn, osnr))
#else:
print("Getting stable BER...")
lstatus, lber[sn] = get_StabBER(self.REFRX_ber) #obj) # get stabilized BER
if not lstatus:
self.error("slot%s(%s):UUT current BER not stabilized." %(slot, sn))
self.info("reading line BER...")
#self.lf.write("\n\nERROR:slot%s(%s):\n UUT current BER not stabilized.\n" %(slot, sn))
lstatus, lber[sn] = get_LineBER(self.REFRX_ber)
q_val[sn] = round(get_Q(lber[sn]), 2)
self.info("g1a1: %s, BER: %s, Curr_Q: %s Prev_Q:%s" %
(current_g1a1_val, lber[sn],
q_val[sn],prev_qval))
#vg1a1_dict[qval[sn]] = current_g1a1_val
g1a1_qval_lst.append((current_g1a1_val,q_val[sn],))
#resTable.append([current_g1a1_val,q_val[sn]])
current_qval = copy(q_val[sn])
current_g1a1_val += g1a1_dir*g1a1_step
prev_qval = current_qval
g1a1_qval_lst.sort()
g1a1Table = copy(g1a1_qval_lst)
g1a1Table.insert(0,titleLst)
finalTable = toRSTtable(g1a1Table,vdelim='|')
print "\n\n"
print finalTable
print "\n\n"
self._report.add_summary('G1a1 Sweep Results')
self._report.add_summary(finalTable)
self.info("%s" % (g1a1_qval_lst))
xdata = list(zip(*g1a1_qval_lst)[0])
ydata = list(zip(*g1a1_qval_lst)[1])
if(len(xdata)) < 3:
return self.incomplete("very few sweep points...")
self.info("Performing a quadratic fit for G1a1 vs Qval")
a,b,c,rsquare = leastSquareParabolicFit(xdata,ydata)
self.info("G1A1 Quad Fit: a:%s b:%s c:%s rsquare:%s" % (a,b,c,rsquare))
if(rsquare < 0.8):
self.error("rsquare_quad:%s is below 0.8" % (rsquare))
else:
#Peak of a parabola is y = -b/2a
#x at peak y is (4ac - b^2)/(4a)
opt_g1a1 = round((-b/(2*a)),3)
exp_qval = round(((4*a*c) - (b*b))/(4*a),2)
if(opt_g1a1 > safe_g1a1):
self.error("Optimized g1a1:%s exceeds safe G1a1(%s)"
% (opt_g1a1,safe_g1a1))
else:
self.info("Setting G1a1 to %s as per the sweep results.."
% (opt_g1a1))
ser_obj.cust_set_driver_amp('G1a1', opt_g1a1)
time.sleep(2)
self.REFRX_ber.reset_line_prbs()
self.info("Wait for 10 secs for ber to become stable...")
time.sleep(10)
print("Getting stable BER...")
lstatus, lber_opt = get_StabBER(self.REFRX_ber) #obj) # get stabilized BER
if not lstatus:
self.error("slot%s(%s):UUT current BER not stabilized." %(slot, sn))
self.info("reading line BER...")
lstatus, lber_opt = get_LineBER(self.REFRX_ber)
q_val_opt = round(get_Q(lber_opt), 2)
self.info("Qval corresponding to Opt_G1a1(%s):%s" %
(opt_g1a1,q_val_opt))
if(q_val_opt < qval_limit):
self.errorCount[sn] += 1
self.error("G1a1 Optimum Qval(%s) is less than %s" %
(q_val_opt,qval_limit))
else:
g1a1_opt_pass = True
self.info("PASS: G1A1 Optimization passed")
self.info("")
self.dbRes[uutid]['vg1a1'] = opt_g1a1
self.dbRes[uutid]['q_val'] = q_val_opt
if(not g1a1_opt_pass):
self.failed("G1A1 Optimization failed")
self.info("Starting Ssd Optimization...")
self.info("Turning VOA_ASE Off...")
self.VOAASE.state = "OFF"
targetBW = PQ("33.0 GHz")
current_ssd_val = init_ssd_val
self.info("setting Initial ssd to: %s," % (current_ssd_val))
ser_obj.cust_set_driver_amp('Vssd', current_ssd_val)
time.sleep(10)
wl, sw = self.OSA.get_spectralwidth(xunit, bw, wvlngth)
bwGHz = PQ(float(sw) * 1000.0, "GHz") # convert THz to GHz
self.info("Initial BW:%s" % (bwGHz))
bwDiff = (bwGHz - targetBW)
if(abs(bwDiff) > BW_tol):
self.info("initial BW:%s is not with in %s +/- %s" %
(bwGHz,targetBW,BW_tol))
sweep = True
else:
self.info("Initial BW:%s is with in %s +/- %s" %
(bwGHz,targetBW,BW_tol))
self.info("Skipping Ssd Optimization...")
sweep = False
ssd_target = init_ssd_val
self.dbRes[uutid]['bw'] = bwGHz.value
self.dbRes[uutid]['vssd'] = ssd_target
if(sweep):
# determine which direction to step
if bwDiff.value < 0:
ssd_dir = 1
else:
ssd_dir = -1
self.info("Ssd Sweep direction:%s" % (ssd_dir))
current_ssd_val = init_ssd_val + ssd_dir*ssd_step
ssd_bw_lst = []
ssd_qval_lst = []
numIter = 5
vssd_final = -100
bw_final = PQ("999 GHz")
i = 0
print bwUpperLimit,bwLowerLimit
ssd_bw_lst.append((init_ssd_val,bwGHz.value,))
titleLst = ['Ssd','BW','Qval']
ssdTable = []
ssdTable.append(titleLst)
while (sweep):
self.info("setting ssd to: %s," % (current_ssd_val))
ser_obj.cust_set_driver_amp('Vssd', current_ssd_val)
self.info("Wait for 10 secs...")
time.sleep(10)
self.info("Getting BW data...")
# we have to get the OptBandwidth information as well.
wl, sw = self.OSA.get_spectralwidth(xunit, bw, wvlngth)
bwGHz = PQ(float(sw) * 1000.0, "GHz") # convert THz to GHz
lstatus, lber[sn] = get_LineBER(self.REFRX_ber)
qval = round(get_Q(lber[sn]),2)
self.info("i: %d, SSD: %s, BW: %s, BER: %s Q:%s" % (i,
current_ssd_val, bwGHz, lber[sn],qval))
if bwGHz < bwUpperLimit and bwGHz > bwLowerLimit:
ssd_bw_lst.append((current_ssd_val,bwGHz.value,))
ssd_qval_lst.append((current_ssd_val,qval,))
ssdTable.append([current_ssd_val,bwGHz.value,qval])
if i > numIter:
break
else:
current_ssd_val += (ssd_dir*ssd_step)
if(current_ssd_val < safe_ssd):
self.error("Ssd: %s exceeds safe Ssd(%s)"
% (current_ssd_val,safe_ssd))
break
i += 1
if(sweep):
finalSsdTable = toRSTtable(ssdTable,vdelim='|')
print "\n\n"
print finalSsdTable
print "\n\n"
self._report.add_summary('Ssd Sweep Results')
self._report.add_summary(finalSsdTable)
#if(vssd_final == -100):
# self.error("Not able to achieve targetBW:%s" %
# (targetBW))
#else:
self.info("Performing a quadratic fit between BW vs Ssd")
xdata = list(zip(*ssd_bw_lst)[1])
ydata = list(zip(*ssd_bw_lst)[0])
a,b,c,rsquare = leastSquareParabolicFit(xdata,ydata)
if(rsquare < 0.88):
self.error("rsqaure_quad:%s is below 0.88" % (rsquare))
self.info("Ssd Quad Fit: a:%s b:%s c:%s rsquare:%s" % (a,b,c,rsquare))
#y = ax^2 + bx + c
ssd_target = (a*targetBW.value*targetBW.value +
b*targetBW.value + c)
self.info("Opt Ssd to achieve 33GHz:%s" % (ssd_target))
if(ssd_target < safe_ssd):
self.error("Optimized Ssd: %s exceeds safe Ssd(%s)"
% (ssd_target,safe_ssd))
else:
self.info("setting ssd to: %s" % (ssd_target))
ser_obj.cust_set_driver_amp('Vssd', ssd_target)
self.info("Wait for 10 secs...")
time.sleep(10)
self.info("Getting BW data...")
# we have to get the OptBandwidth information as well.
wl, sw = self.OSA.get_spectralwidth(xunit, bw, wvlngth)
bwGHz = PQ(float(sw) * 1000.0, "GHz") # convert THz to GHz
if(abs(bwGHz - targetBW) > BW_tol):
self.error("Optimized BW:%s is not with in %s +/- %s" %
(bwGHz,targetBW,BW_tol))
self.errorCount[sn] += 1
lstatus, lber[sn] = get_LineBER(self.REFRX_ber)
qval = round(get_Q(lber[sn]),2)
self.info("Ssd:%s BW:%s Qval:%s" % (ssd_target,sw,qval))
self.info("Turning VOA_ASE On.. to measure finalQ")
self.VOAASE.state = "ON"
self.info("Wait for 10 secs...")
time.sleep(10)
self.info("Getting finalBER data...")
lstatus, lber_final = get_StabBER(self.REFRX_ber)
qval_fin = round(get_Q(lber_final),2)
self.info("Ssd:%s Final Qval:%s" %
(ssd_target,qval_fin))
self.dbRes[uutid]['bw'] = bwGHz.value
self.dbRes[uutid]['vssd'] = ssd_target
if(qval_fin < qval_limit):
self.errorCount[sn] += 1
self.error("Ssd Optimum Qval(%s) is less than %s" %
(qval_fin,qval_limit))
else:
ssd_opt_pass = True
#print only an error message
if((qval_fin - q_val_opt) < -0.3):
self.error("qval_g1a1(%s) and qval_ssd(%s) differ by"
" more than 0.3dBq" %
(q_val_opt,qval_fin))
for tag in adj_cal_tag.get_children():
if(not g1a1_opt_pass and
tag._name == 'G1A1_TEMP_CAL'):
continue
if(not ssd_opt_pass and
tag._name == 'SSD_TEMP_CAL'):
continue
cal_tags = tag.get_children()
for cal_tag in cal_tags:
if(cal_tag.Temp == "5.00"):
cal_tag.Temp = "1.00"
if(updateLst.__contains__(eval(cal_tag.Temp))):
if(tag._name == 'G1A1_TEMP_CAL'):
cal_tag.Voltage = str(round(opt_g1a1,3))
if(tag._name == 'SSD_TEMP_CAL'):
cal_tag.Voltage = str(round(ssd_target, 3))
if(g1a1_opt_pass or ssd_opt_pass):
self.info("Disabling module prior to writing EEPROM")
sc.module_control(slot, "Disable", self)
# key of the dictionary index into the vadj value
self.info("Download tag DRIVER_AMP_ADJ_CAL back into EEPROM...")
self.info(adj_cal_tag.__str__())
#self.user_input("")
res = ber_obj.download_cust(adj_cal_tag)
self.info("Saving new tag...")
xml_file_name = "DRIVER_AMP_ADJ_CAL_%s.xml" % sn
self.save_object(adj_cal_tag, xml_file_name)
self.info("Enabling module...")
sc.module_control(slot, "Enable", self)
download = True
else:
self.info("G1A1/SSD Optimization has failures..")
self.info("Enabling driver loops..")
obj.enable_drv_bal_loops()
for sn in self.uutSnList:
slot = self.uutDict[sn]["slot"]
uutid = self.uutDict[sn]["id"]
if self.errorCount[sn]:
self.lf.write("\n\nERROR: slot%s(%s):\n VssdVg1a1Sweep test failed.\n"
%(slot, sn))
self.failed("slot%s(%s): VssdVg1a1Sweep test failed." %(slot, sn), uutid)
else:
# clean up logs if the test passes by providing the diagnostic
# dictionary to the clean-up function.
Diag.clean_up_logs(sn, self.diag)
self.passed ("%s(%s): VssdVg1a1Sweep test passed." % (slot, sn), uutid)
if(download):
self.info("Resetting line card so tag changes can take affects...")
# DO THIS FROM CAROL
ber_obj.reset_card()
reset_dsp_sleep_time = 180
self.info("Wait %s seconds for DSP to come up..." % reset_dsp_sleep_time)
time.sleep(reset_dsp_sleep_time)
return self.completed("VssdVg1a1Sweep test completed.")
def test_method(self):
errorCount = 0
sc = self.SC
# now begin the actual testing
# loop through OSNRs for each do 700, 0 and +700 dispersion.
cdTestList = self.cdTestList
osnrList = self.osnrList
shelf = 1
osnrTol = self.config.osnrParams["tol"]
wvlngth = self.tdc_channel_dict[self.tdc_type][1]
targetRefRxPwr = self.config.cardParams['rxpwr'][0]
targetUutPwr = PQ('-18.0 dB')
refRxTol = self.config.cardParams["tol"][0]
uutRxTol = self.config.cardParams['tol'][0]
temp = self.DAQ.temperature
minosnr, maxosnr = self.config.osnrSpecRange
numIter = self.config.numIter
INVALIDBER = self.config.INVALIDBER
berLimit = self.config.berLimit
osnrBerLimits = self.config.osnrBerLimits
self.RxLOSThr = -24.0
temp = self.DAQ.temperature
self.tamb = temp
PWR_DELTA_MAX = PQ("2.0 dB")
self.tdc_type = self.config.default_tdc_type
tdc_type = self.tdc_type
refsn = self.refsn
self.info("Starts sweeping CD ...")
self.lf.write("Starts sweeping CD ...")
tb = self.config.testbed
hsynclosshist = {}
hberr = {}
lber = {}
qval = {}
rxpwr = {}
qval = {}
current_disp = {}
index = 0
for cd in cdTestList:
self.diagnostic("##### Current CD: %s" % cd)
# 1. disable CD EDFA output
if self.PROGCD.__class__ == instruments.GP700:
pass
else:
self.info("Disabling ProgCD output...")
self.dBox.set_switch(6, 'cnt')
# 2. set ProgCD to cd
self.info("Setting dispersion to %s" % cd)
self.dBox.dispersion = cd
self.info("Dispersion is: %s" % self.dBox.dispersion)
# 3. enable ProgCD
if self.PROGCD.__class__ == instruments.GP700:
pass
else:
self.info("Enabling ProgCD output...")
self.dBox.set_switch(6, 'byp')
# 4. enable and adjust Input VOAs to achieve targeted OSNR.
q_list = []
uutindex = 0 # UUT index in uutSnList
for sn in self.uutSnList: #excluding refsn
obj = self.uutDict[sn]["obj"]
slot = self.uutDict[sn]["slot"]
uut_slot = int(slot)
ser_obj = self.uut_ser_dict[slot]
UUT_ber = "UUT_slot%s" % slot
#UUT_ber = "UUT_slot%s_ber" % slot
ber_obj = self.uut_ser_dict[UUT_ber]
#ber_obj = self.config.testbed[UUT_ber]
obj = ser_obj
card_type = sc.get_attribute("CardTypePresent", shelf, slot)
card = card_type[:-3]
self.info("Card in slot #%s is '%s'" % (slot, card))
if(card.find('4400') >= 0):
self.info("Setting UUT(4400) to 4040 Mode..")
ber_obj.set_4400_to_4040()
time.sleep(10)
if index == 0:
# test the reference
# 1. reference in loop back
# 2. set OSNR = 18.0, cd = 0
# 3. enable REF line PRBS
# 4. demod (wati for 3 minutes)
# 5. check BER against spec.
self.info("### Testing Reference....")
ref_cd = 0
self.info("Setting dispersion to %s" % ref_cd)
self.dBox.dispersion = ref_cd
self.info("Dispersion is: %s" % self.dBox.dispersion)
time.sleep(10) # # time to settle all instrument
self.info("Enabling LINE PRBS on REF...")
self.REFRX_ber.enable_line_prbs()
# SW3-SW5 = ITU Channel H. Assume H is connected to port 0, 1
pdir_mod_name = "%s" % (self.PDIR.sw_mod)
pdir_name = self.PDIR.name
pdir_3_index = "%s:3" % pdir_name
pdir_3_pos = self.dicon_sw_dict_rx[tdc_type][pdir_3_index]
self.info("Setting %s to position %d" % (pdir_3_index, pdir_3_pos))
self.DiCon.set_switch(pdir_mod_name, pdir_3_pos, 3)
pwav_name = self.PWAV.name
pwav_mod_name = "%s" % (self.PWAV.sw_mod)
pwav_pos = self.dicon_sw_dict_rx[tdc_type][pwav_name]#self.config.pwav_pos
self.info("Setting %s:1, %s:2, %s:3 to position %d" % \
(pwav_name, pwav_name, pwav_name, pwav_pos))
self.DiCon.set_switch(pwav_mod_name, pwav_pos, 1)
self.DiCon.set_switch(pwav_mod_name, pwav_pos, 2)
self.DiCon.set_switch(pwav_mod_name, pwav_pos, 3)
pdir_1_index = "%s:1" % pdir_name
pdir_2_index = "%s:2" % pdir_name
pdir_1_pos = self.dicon_sw_dict_rx[tdc_type][pdir_1_index]
pdir_2_pos = self.dicon_sw_dict_rx[tdc_type][pdir_2_index] #self.config.pdir_2_pos
self.info("Setting %s to %d and %s to %d" % (pdir_1_index,
pdir_1_pos, pdir_2_index, pdir_2_pos))
self.DiCon.set_switch(pdir_mod_name, pdir_1_pos, 1)
self.DiCon.set_switch(pdir_mod_name, pdir_2_pos, 2)
uut_output_sw_name = self.UUT_LINE_OUTPUT_SW.name
uut_output_sw_mod_name = self.UUT_LINE_OUTPUT_SW.sw_mod
if int(uut_slot) < 6:
uut_output_sw_pos = int(uut_slot) - 1
else:
uut_output_sw_pos = int(uut_slot) - 5
ref_osnr = PQ("18.1 dB")
self.info("Setting initial OSNR to %s" % ref_osnr)
osnr = set_OSNR(self.OSA, self.VOAASE, ref_osnr, osnrTol, wvlngth)
self.diagnostic("Initial OSNR %s" % osnr)
pstatus, rxpwr = set_RxPwr(self.REFRX, self.VOAOUT,
targetRefRxPwr, refRxTol)
self.diagnostic("Forcing demod reacquistion on REF %s..." % refsn)
reacq_settle_time = 180
self.REFRX.force_demod_reacq()
self.info("Sleeping for %s seconds after demod reacq..." % reacq_settle_time)
time.sleep(reacq_settle_time)
refsn_uut = "%s_%s" % (refsn, sn)
# reset line prbs
self.info("Resetting LINE PRBS on REF & UUT...")
self.REFRX_ber.reset_line_prbs()
ber_obj.reset_line_prbs()
# now check PRBS on reference
hi = max(osnrBerLimits[ref_osnr])
low = min(osnrBerLimits[ref_osnr])
limit_check_timeout = 600
time_check, lstatus, lber[refsn] = self.check_limit(hi, low,
ber_obj,
ser_obj,
self.REFRX_ber,
sn, refsn_uut,
self.tamb,
ref_osnr,
ref_cd,
limit_check_timeout)
try:
qval[refsn] = round(get_Q(lber[refsn]), 2)
except:
invalid_q_val = 99
self.diagnostic("Got invliad BER...set Q_val as %d" % invalid_q_val)
qval[refsn] = invalid_q_val # invalid BER
if osnrBerLimits.has_key(ref_osnr):
if qval[refsn] < low or qval[refsn] > hi:
self.errorCount[sn] += 1
self.error("Q %s (%s), NOT within BER limit (%s, %s)" % (qval[refsn], lber[refsn], low, hi))
return self.incomplete("REFERENCE is not within specs!")
else:
self.info("Q %s (%s), within BER limit (%s, %s)" % (qval[refsn], lber[refsn], low, hi))
index += 1
# set the REF & UUT to transmit on the correct channel
#ser_obj.ModChan = self.chn
#self.REFRX.ModChan = self.chn
#self.diagnostic("UUT Tx set to channel %s" % ser_obj.ModChan)
#self.diagnostic("REF Tx set to channel %s" % self.REFRX.ModChan)
self.info("Setting UUT (%s) in slot %s to initial dispersion to: %d" % (sn, slot,-cd))
ser_obj.set_tdc_startdisp(-cd)
# XXX: must do this to enable periodic check to make sure the
# 4400 is functioning as a 4040
# self.diagnostic("Setting 4400 as a 4040...")
#obj.set_4400_to_4040()
self.info("### Running UUT (%s) on slot (%s)" % (sn, slot))
pdir_mod_name = "%s" % (self.PDIR.sw_mod)
pdir_name = self.PDIR.name
pdir_3_index = "%s:3" % pdir_name
pdir_3_pos = self.dicon_sw_dict[tdc_type][pdir_3_index]
self.info("Setting %s to position %d" % (pdir_3_index, pdir_3_pos))
self.DiCon.set_switch(pdir_mod_name, pdir_3_pos, 3)
pwav_name = self.PWAV.name
pwav_mod_name = "%s" % (self.PWAV.sw_mod)
pwav_pos = self.dicon_sw_dict[tdc_type][pwav_name]#self.config.pwav_pos
self.info("Setting %s:1, %s:2, %s:3 to position %d" % \
(pwav_name, pwav_name, pwav_name, pwav_pos))
self.DiCon.set_switch(pwav_mod_name, pwav_pos, 1)
self.DiCon.set_switch(pwav_mod_name, pwav_pos, 2)
self.DiCon.set_switch(pwav_mod_name, pwav_pos, 3)
pdir_1_index = "%s:1" % pdir_name
pdir_2_index = "%s:2" % pdir_name
pdir_1_pos = self.dicon_sw_dict[tdc_type][pdir_1_index]
pdir_2_pos = self.dicon_sw_dict[tdc_type][pdir_2_index] #self.config.pdir_2_pos
self.info("Setting %s to %d and %s to %d" % (pdir_1_index,
pdir_1_pos, pdir_2_index, pdir_2_pos))
self.DiCon.set_switch(pdir_mod_name, pdir_1_pos, 1)
self.DiCon.set_switch(pdir_mod_name, pdir_2_pos, 2)
uut_output_sw_name = self.UUT_LINE_OUTPUT_SW.name
uut_output_sw_mod_name = self.UUT_LINE_OUTPUT_SW.sw_mod
if int(uut_slot) < 6:
uut_output_sw_pos = int(uut_slot) - 1
else:
uut_output_sw_pos = int(uut_slot) - 5
uut_client_output_sw_name = self.UUT_CLIENT_OUTPUT_SW.name
uut_client_output_sw_mod_name = self.UUT_CLIENT_OUTPUT_SW.sw_mod
self.info("### Setting %s to output on %d" % (uut_output_sw_mod_name, uut_output_sw_pos))
self.DiCon.set_4x1_switch_output(uut_output_sw_name, uut_output_sw_pos)
self.info("### Setting %s to output on %d" % (uut_client_output_sw_name, uut_output_sw_pos))
self.DiCon.set_4x1_switch_output(uut_client_output_sw_mod_name, uut_output_sw_pos)
# set to initial osnr to a low value to obtain a small bitty eye
self.info("Setting initial OSNR to %s" % self.init_osnr)
osnr = set_OSNR(self.OSA, self.VOAASE, self.init_osnr, osnrTol, wvlngth)
self.diagnostic("Initial OSNR %s" % osnr)
pstatus, rxpwr = set_RxPwr(self.REFRX, self.VOAOUT,
targetRefRxPwr, refRxTol)
self.diagnostic("Forcing demod reacquistion on REF %s..." % refsn)
reacq_settle_time = 180
self.REFRX.force_demod_reacq()
self.info("Sleeping for %s seconds after demod reacq..." % reacq_settle_time)
time.sleep(reacq_settle_time)
refsn_uut = "%s_%s" % (refsn, sn)
for targetOSNR in osnrList:
if targetOSNR == PQ(13.4, 'dB'): # was 12.5, but there's a +1 factor
berrColInterval = 120
else:
berrColInterval = 2
self.diagnostic("BER Collection interval is: %s" % berrColInterval)
if cd != 0:
adjtargetOSNR = targetOSNR + PQ(1, 'dB')
else:
adjtargetOSNR = targetOSNR
self.info("\n###### Verifying BER at CD :%s at OSNR: %s ######\n" %(cd, adjtargetOSNR,))
self.lf.write("\n\nVerifying BER at CD: %s OSNR: %s\n" % (cd, adjtargetOSNR,))
osnr = set_OSNR(self.OSA, self.VOAASE, adjtargetOSNR, osnrTol, wvlngth)
# 5 & 6. enable and adjust output VOA's to achieve target power
# reading
#self.info("Turning on Output VOAs and Stablizing...\n")
rxpwr = {}
lber = {}
refindex = 0 #RefRx index in refSnList
self.info("Setting Ref Rx Power to %s." % (targetRefRxPwr,))
self.lf.write("\n\nSetting Ref RX Power to %s.\n" % (targetRefRxPwr,))
pstatus, rxpwr[refsn] = set_RxPwr(self.REFRX, self.VOAOUT,
targetRefRxPwr, refRxTol)
if not pstatus:
self.error("REF RxPwr %s not equivalent to "
"ExpRxPwr %s"
%(rxpwr[refsn], targetRefRxPwr))
self.lf.write("\n\nERROR: REF RxPwr %s not equivalent to "
"ExpRxPwr %s" %(rxpwr[refsn], targetRefRxPwr))
self.diagnostic("TARGET_OSNR: %s, osnrList[0]: %s" % (targetOSNR, osnrList[0]))
if (self.config.flags.VERBOSE and self.config.flags.DEBUG):
self.info("Start logging diagnostics from UUT Mike Shell...")
self.diag_logger[sn].info("*** BEFORE: PV OSNR: %s, CD: %s" % (targetOSNR, cd))
self.diag[sn].capture(None, ser_obj)
self.info("Start logging diagnostics from REF Mike Shell...")
self.diag_logger[refsn_uut].info("*** BEFORE: PV OSNR: %s, CD: %s" % (targetOSNR, cd))
self.diag[refsn_uut].capture(None, self.REFRX)
#if targetOSNR == osnrList[0]:
# # wait longer for the fir osnr setting.
# settle_time = 120
#else:
# settle_time = 20
settle_time = 20
self.info("Enabling LINE PRBS...")
ber_obj.enable_line_prbs()
self.info("Checking for lock...")
self.diagnostic("Setting for REF RX PRBS...")
self.REFRX_ber.set_for_rx_prbs()
hi = max(osnrBerLimits[adjtargetOSNR])
low = min(osnrBerLimits[adjtargetOSNR])
limit_check_timeout = 600 # 5 minutes
time_check, lstatus, lber[refsn] = self.check_limit(hi, low,
ber_obj, ser_obj, self.REFRX_ber, sn, refsn_uut,
self.tamb,
targetOSNR, cd, limit_check_timeout)
self.diagnostic("Check limit done within %s seconds" % time_check)
if not lstatus:
self.diagnostic("TDC unable to get a lock within %s seconds" % time_check)
else:
self.diagnostic("TDC got a lock within %s seconds" % (time_check))
#self.info("Settle Time: %s" % settle_time)
#self.info("Sleeping for %s seconds..." % settle_time)
#time.sleep(settle_time)
lber[sn] = ber_obj.BER
rxpwr[sn] = obj.RxPwr
#lstatus, lber[refsn] = get_LineBER(self.REFRX_ber)
if not lstatus:
if targetOSNR >= minosnr: #minosnr = 19.5dB
self.info("WARNING: slot%s(%s):\n REF current BER not valid at OSNR: %s\n" % (slot, sn, osnr))
self.lf.write("\n\nWARNING: slot%s(%s):\n REF current BER not valid at OSNR: %s\n" %(slot, sn, osnr))
self.info("slot%s(%s):\n TAmb: %s OSNR: %s UUTRxBER: %s RefRxBER: %s UUTRxPwr: %s RefRxPower: %s\n"
% (slot, sn, temp, osnr, lber[sn], lber[refsn], rxpwr[sn], rxpwr[refsn]))
self.lf.write("\n\nslot%s(%s):\n TAmb: %s OSNR: %s UUTRxBER: %s RefRxBER: %s UUTRxPwr: %s RefRxPower: %s\n"
% (slot, sn, temp, osnr, lber[sn], lber[refsn], rxpwr[sn], rxpwr[refsn]))
uutindex += 1
try:
qval[sn] = round(get_Q(lber[sn]), 2)
except:
self.diagnostic("Got invliad UUT BER...")
qval[sn] = 0
self.info("Getting TDC dispersion...")
current_disp[sn] = ser_obj.show_actual_dispersion()
self.info("TDC disperison: %s" % current_disp[sn])
q_list.append((qval[sn], current_disp[sn]))
numIter = self.config.numIter
try:
qval[refsn] = round(get_Q(lber[refsn]), 2)
except:
invalid_q_val = 99
self.diagnostic("Got invliad BER...set Q_val as %d" % invalid_q_val)
qval[refsn] = invalid_q_val # invalid BER
#Comparing lber with the specified limits
uutid = self.uutDict[sn]["id"]
slot = self.uutDict[sn]["slot"]
self.info("slot%s(%s):\n TAmb: %s UUTRxBER: %s(%s) RefRxBER: %s(%s) UUTRxPwr: %s RefRxPower: %s\n"
% (slot, sn, temp, lber[sn], qval[sn], lber[refsn], qval[refsn], rxpwr[sn], rxpwr[refsn]))
self.lf.write("slot%s(%s):\n TAmb: %s UUTRxBER: %s(%s) RefRxBER: %s(%s) UUTRxPwr: %s RefRxPower: %s\n"
% (slot, sn, temp, lber[sn], qval[sn], lber[refsn], qval[refsn], rxpwr[sn], rxpwr[refsn]))
high = max(osnrBerLimits[adjtargetOSNR])
low = min(osnrBerLimits[adjtargetOSNR])
self.diagnostic("REF_Q: %s, LOW: %s, HIGH: %s" % ( qval[refsn], low, high))
if (self.config.flags.VERBOSE and self.config.flags.DEBUG):
self.info("Start logging diagnostics from UUT Mike Shell...")
self.diag_logger[sn].info("*** AFTER: PV OSNR: %s, CD: %s" % (targetOSNR, cd))
self.diag[sn].capture(None, ser_obj)
self.info("Start logging diagnostics from REF Mike Shell...")
self.diag_logger[refsn_uut].info("*** BEFORE: PV OSNR: %s, CD: %s" % (targetOSNR, cd))
self.diag[refsn_uut].capture(None, self.REFRX)
if osnrBerLimits.has_key(targetOSNR):
if qval[refsn] < low or qval[refsn] > high:
self.errorCount[sn] += 1
self.error("%s(%s):\nREF actual Q %s (%s) not within BER limit (%s, %s)\n"
%(slot, sn, qval[refsn], lber[refsn], low, high))
self.lf.write("\n\nERROR: %s(%s):\n UUT actual Q %s (%s) not within BER limit (%s, %s)\n"
%(slot, sn, qval[refsn], lber[refsn], low, high))
self.lineTxBerArgs[uutid].append((temp, cd, osnr,
lber[sn], lber[refsn],
qval[sn], qval[refsn],
rxpwr[sn], rxpwr[refsn]))
edfa_info = ser_obj.get_edfa_loop_params()
(pd1, pd2) = ser_obj.get_pd1_pd2()
self.diagnostic("LaserCurr: %s, LaserAdc: %s, IpwrdBm: %s, Ipwr: %s, Pd1: %s, Pd2: %s" % \
(edfa_info['LaserCurr'], edfa_info['LaserAdc'],
edfa_info['IpwrdBm'], edfa_info['Ipwr'], pd1, pd2))
self.lf.write( "\nTime Stamp: %s"
% (time.strftime( "%m-%d-%Y %H:%M:%S", time.localtime())))
self.lf.flush()
for sn in self.uutSnList:
slot = self.uutDict[sn]["slot"]
uutid = self.uutDict[sn]["id"]
self.diagnostic(self.errorCount[sn])
if (self.errorCount[sn]):
self.lf.write("\n\nERROR: slot%s(%s):\n UUT LineTxBER test failed.\n"
%(slot, sn))
self.failed("slot%s(%s):\n UUT LineTxBER test failed.\n" %(slot, sn), uutid)
else:
# clean up logs if the test passes by providing the diagnostic
# dictionary to the clean-up function.
Diag.clean_up_logs(sn, self.diag)
self.passed("slot%s(%s):\n UUT LineTxBER test passed.\n" %(slot, sn), uutid)
return self.completed("LineTxBER test completed.")
