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#!/usr/bin/env python3
#
# Run the tests to test a LOFAR station
# H. Meulman
# 24 sep: local log directory aangepast
# 27 sept: - Toevoeging delay voor tbbdriver polling
# - Aanzetten van LBA's m.b.v rspctl --aweights=8000,0
# 26 nov: Check op 160 MHZ en 200 MHZ clock.
# 18 jan 2011: Check op !="?" vervangen door =='LOCKED' in 160 en 200 MHz clock test
# 18 jan 2011: Local Log directory aangepast
# 19 jan 2011: clocktest in 160 en 200 MHz clock test over een 10 itteraties!
# 19 jan 2011: Diff test AP nummer word nu ook gelogged. 'sync' verwijderd
# 19 jan 2011: TBB versie aangepast naar 2.32
# 21 jan 2011: TBB Version foutmelding aangepast (AP/BP Error moet TP/BP Error zijn)
# 02 feb 2011: LBA down toe gevoegd!
# 18 mrt 2011: Automatiesche detectie Core- remote- en International station toegevoegd.
# 18 mrt 2011: Volgende testen aangepast zodat ze ook internationale stations kunnen testen:
# CheckRSPVersion, CheckTDSStatus160 en 200, CheckRSPStatus, CheckTBBVersion
# LBAtest(), HBAModemTest(), HBAtest() De laatste test werkt pas als transmitters geinstalleerd zijn.
# 18 mrt 2011: Als alle LBA's niet werken, wordt error gelogd. (average < 4000000)
# 30 mrt 2011: TBBversion_int.gold aangepast voor internationale stations.
# 7 sep 2011: Bug removed. On the remote stations LBA mode 1 will now also be tested.
# oct 2011: added CS028 and CS031
# 22 nov 2011: TBB versie aanpassen naar 2.39
# 22 nov 2011: Changed filename to not overwrite testdata subrack test
# 12 jan 2012: Reject LBA antennas when signal differs more than 10dB up. These antennas shoeld not contribute to the average
# 26 jan 2012: Reject LBA antennas when signal differs less than 3dB down. These antennas shoeld not contribute to the average
# 27 jan 2012: Store logfiles in /localhome/stationtest/data in "local mode"
# 17 feb 2012: Added detection of oscillating tiles.
# 9 mar 2012: Devide by 0 error solved in HBAtest
# 13 Apr 2012: added LBAdatatest directory. Also directorys need to change permissions to work with USER0.
# 20 Apr 2012: Logging suspicious tiles and elements in HBA modem test
# 13 Sep 2012: Added for user0..9 sys.path.append("/opt/stationtest/modules")
# 9 Nov 2012: New remote stations added: RS210 RS305 RS310 RS407 and RS409
# CS302 changed in Core station
# Write permissions changed from the log files for all users
# Added LBA statistics High and Low limmit. Changed it to 158% and 63%
# todo:
# - Als meer dan 10 elementen geen rf signaal hebben, keur dan hele tile af
# - als beamserver weer goed werkt deze weer toevoegen aan LBA test
# - =='LOCKED' in 160 en 200 MHz clock test over een aantal keren!
# Loggen absolute waarden van alle antennes (LBH LBL eb HBA)
sys.path.append("/opt/stationtest/modules")
from optparse import OptionParser
import cli
import testlog
from time import localtime, strftime
import array
import os
import time
import operator
import math
import numpy
################################################################################
# Init
# Variables
debug=0
clkoffset=1
#factor = 30 # station statistics fault window: Antenna average + and - factor = 100 +/- 30
factorHL = 158 # LBA statistics high limmit
factorLL = 63 # LBA statistics low limmit
InternationalStations = ('DE601C','DE602C','DE603C','DE604C','DE605C','FR606C','SE607C','UK608C')
RemoteStations = ('RS106C','RS205C','RS208C','RS210C','RS305C','RS306C','RS307C','RS310C','RS406C','RS407C','RS409C','RS503C')
CoreStations = ('CS001C','CS002C','CS003C','CS004C','CS005C','CS006C','CS007C','CS011C','CS013C','CS017C','CS021C','CS024C','CS026C','CS028C','CS030C','CS031','CS032C','CS101C','CS103C','CS201C','CS301C','CS302C','CS401C','CS501C')
NoHBAelementtestPossible = ('DE601C','DE602C','DE603C','DE605C','FR606C','SE607C','UK608C') #
NoHBANaStestPossible = ('')
HBASubband = dict( DE601C=155,\
DE602C=155,\
DE603C=284,\
DE605C=479,\
FR606C=155,\
UK608C=155)
# Do not change:
Severity=0 # Severity (0='' 1=feature 2=minor 3=major 4=block 5=crash
Priority=0 # Priority (0=no 1=low 2=normal 3=high 4=urgent 5=immediate
SeverityLevel=('-- ','feature','minor ','Major ','BLOCK ','CRASH ')
PriorityLevel=('-- ','low ','normal ','High ','URGENT ','IMMEDIATE')
#print (SeverityLevel[Severity])
#print (PriorityLevel[Priority])
# Time
tm=strftime("%a, %d %b %Y %H:%M:%S", localtime()) # Determine system time
tme=strftime("_%b_%d_%Y_%H.%M", localtime()) # Time for fileheader History log file
# Determine station ID and station type
StationType = 0
Core = 1
Remote = 2
International = 3
StIDlist = os.popen3('hostname -s')[1].readlines() # Name of the station
StID = str(StIDlist[0].strip('\n'))
print(('StationID = %s' % StID))
if StID in InternationalStations: StationType = International # International station
if StID in RemoteStations: StationType = Remote # Remote Station
if StID in CoreStations: StationType = Core # Core Station
if debug: print(('StationType = %d' % StationType))
if StationType == 0: print(('Error: StationType = %d (Unknown station)' % StationType))
if os.path.exists('/globalhome'):
print('ILT mode')
if StationType == International:
RSPgoldfile=('/misc/home/etc/stationtest/gold/rsp_version_int.gold')
TBBgoldfile=('/misc/home/etc/stationtest/gold/tbb_version_int.gold')
TDS=[0,4,8,12,16,20]
else:
RSPgoldfile=('/misc/home/etc/stationtest/gold/rsp_version.gold')
TBBgoldfile=('/misc/home/etc/stationtest/gold/tbb_version.gold')
TDS=[0,4,8]
TBBmgoldfile=('/misc/home/etc/stationtest/gold/tbb_memory.gold')
#LogPath=('/misc/home/log/')
TestLogPath=('/misc/home/log/') # Logging remote (on Kis001)
#TestLogPath=('/opt/stationtest/data/') # Logging local (on station)
else:
print('Local mode')
if StationType == International:
RSPgoldfile=('/opt/stationtest/gold/rsp_version_int.gold')
TBBgoldfile=('/opt/stationtest/gold/tbb_version_int.gold')
TDS=[0,4,8,12,16,20]
else:
RSPgoldfile=('/opt/stationtest/gold/rsp_version.gold')
TBBgoldfile=('/opt/stationtest/gold/tbb_version.gold')
TDS=[0,4,8]
TBBmgoldfile=('/opt/stationtest/gold/tbb_memory.gold')
#LogPath=('/misc/home/log/')
#TestLogPath=('/misc/home/log/') # Logging remote (on Kis001)
TestLogPath=('/opt/stationtest/data/') # Logging local (on station)
#HistLogPath=('/opt/stationtest/data/') # Logging local (on station)
HistLogPath=('/localhome/stationtest/data/') # Logging local (on station)
TestlogName = ('%sstationtest_%s.tmp' % (TestLogPath, StID))
TestlogNameFinalized = ('%sstationtest_%s.log' % (TestLogPath, StID))
HistlogName = ('%sstationtest_%s%s.log' % (HistLogPath, StID, tme))
# Array om bij te houden welke Tiles niet RF getest hoeven worden omdat de modems niet werken.
if len(sys.argv) < 3 :
if StationType == International:
num_rcu=192
else:
num_rcu=96
ModemFail=[0 for i in range (num_rcu // 2)]
#print (TestlogName)
#print (TestlogNameFinalized)
# Parse command line for station ID
#
# -v 0 : only PASSED or FAILED
# -v 1 : overall title
# -v 11 : result per test
# -v 21 : title per test
op = OptionParser(usage='usage: python %prog [options]', version='%prog 0.1')
op.add_option('-v', type='int', dest='verbosity',
help='Verbosity level',default=11)
#op.add_option('-r', type='int', dest='rsp_nr',
# help='Provide number of rsp boards that will be used in this test',default=None)
#op.add_option('-t', type='int', dest='tbb_nr',
# help='Provide number of tbb boards that will be used in this test',default=None)
opts, args = op.parse_args()
opts.rsp_nr=12 # fixed number
opts.tbb_nr=6 # Fixed number
if (StationType == Core or StationType == Remote): # NL station doe have 12 rsp's and 6 TBB's
opts.rsp_nr=12 # fixed number
opts.tbb_nr=6 # Fixed number
noTBB=6
if StationType == International: # INT station doe have 24 rsp's and 12 TBB's
opts.rsp_nr=24 # fixed number
opts.tbb_nr=12 # Fixed number
noTBB=12
if debug: print(('RSPs = %d' % opts.rsp_nr))
if debug: print(('TBBs = %d' % opts.tbb_nr))
# - Option checks and/or reformatting
if opts.rsp_nr==None:
op.error('Option -r must specify the number of rsp boards')
if opts.tbb_nr==None:
op.error('Option -t must specify the number of tbb boards')
if opts.rsp_nr == 4:
RspBrd = 'rsp0,rsp1,rsp2,rsp3'
SubBrd = 'rsp0'
SubRck = 'sub0'
if opts.rsp_nr == 12:
RspBrd = 'rsp0,rsp1,rsp2,rsp3,rsp4,rsp5,rsp6,rsp7,rsp8,rsp9,rsp10,rsp11'
SubBrd = 'rsp0,rsp4,rsp8'
SubRck = 'sub0,sub1,sub2'
if opts.rsp_nr == 24:
RspBrd = 'rsp0,rsp1,rsp2,rsp3,rsp4,rsp5,rsp6,rsp7,rsp8,rsp9,rsp10,rsp11,rsp12,rsp13,rsp14,rsp15,rsp16,rsp17,rsp18,rsp19,rsp20,rsp21,rsp22,rsp23'
SubBrd = 'rsp0,rsp4,rsp8,rsp12,rsp16,rsp20'
SubRck = 'sub0,sub1,sub2,sub3,sub4,sub5'
if debug: print(('RspBrd = %s' % RspBrd))
# Define subrack testlog class for pass/fail and logging
vlev = opts.verbosity
testId = ''
appLev = False
logName = '/opt/stationtest/data/STAT-%05d-%05d.dat' % (opts.rsp_nr, opts.tbb_nr)
cli.command('rm -f /opt/stationtest/data/STAT-%05d-%05d.dat', appLev)
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sr = testlog.Testlog(vlev, testId, logName)
sr.setResult('PASSED')
sr.setId('Station - ')
sr.appendLog(11,'')
sr.appendLog(1,'Station production test %s' % logName)
sr.appendLog(11,'')
# Define station testlog
st_log = file(TestlogName, 'w')
st_log.write('StID >: %s\n' % StID)
st_log.write('Lgfl >: %s\n' % TestlogNameFinalized)
st_log.write('Time >: %s\n' % tm)
#cli.command('rm -f %s' % logName, appLev)
#cli.command('rm -f /opt/stationtest/data/stationtest.log', appLev)
#sr.setId('')
#sr.appendLog(11,'')
#sr.appendLog(1,'Lgfl >: %s' % logNameFinalized)
#sr.appendLog(1,'StID >: %s' % StID)
#sr.appendLog(1,'Time >: %s' % tm)
#time.sleep(20)
################################################################################
# Function CheckTBB : CHeck if TBB's are running. The returned string
# "V 0.3 V 4.7 V 2.4 V 2.9" Shouls have 4 times 'V'
def CheckTBB():
SeverityOfThisTest=3
PriorityOfThisTest=3
global Severity
global Priority
print('Checking TBB!!!')
print('wait 60 sec')
time.sleep(60)
if debug: print(int(len(os.popen3('tbbctl --version')[1].readlines())))
sr.setId('TBB >: ')
n=0 # Maximum itteration
while len(os.popen3('tbbctl --version')[1].readlines()) < 4:
# if debug:
print ('Polling TBB Driver')
time.sleep(5)
n+=1
if n > 12:
sr.appendLog(11,'Error: TBB driver is not running or some TBBs not active')
sr.setResult('FAILED')
# store station testlog
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('TBB >: Sv=%s Pr=%s, Error: TBB driver is not running\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest]))
return
n=0 # Check till 4 V's per TBB
while n < 12: # maximum itterations
res2 = os.popen3('tbbctl --version')[1].readlines()
if debug:
for line in res2:
print(('%s' % line.rstrip('\n')))
#print ('res2 is: %s' % res2)
#print ('res2[9] is: %s' % res2[9])
print(('Itteration %d' % n))
for TBBnr in TBBrange:
cnt += res2[9+TBBnr].count('V') # count number of 'V's (Version)
if cnt == noTBB*4: # 4 per TBB
break
n+=1
time.sleep(5)
else:
for TBBnr in TBBrange:
if res2[9+TBBnr].count('V') != 4: # Log Errors
sr.appendLog(11,'Error: TBB :%s' % str(res2[9+TBBnr].strip('\n')))
sr.setResult('FAILED')
# store station testlog
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('TBB >: Sv=%s Pr=%s, Error: TBB : %s\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], str(res2[9+TBBnr].strip('\n'))))
#print ('number of Vs is ', res2[9+TBBnr].count('V')),
#print (' Error in TBB : %s' % res2[9+TBBnr])
if debug:
print('stopped Checking TBB')
print(("number of V's is %d" % cnt))
return
################################################################################
# Function Goto Swlevel 2
def GotoSwlevel2():
res = os.popen3('swlevel 1')[1].readlines()
if debug:
print('System is Going to swlevel 1')
# for line in res:
# print ('To swlevel 1 ', line) # werkt niet!!???
time.sleep(5)
# Set swlevel 2 if not running
#
res = os.popen3('swlevel')[1].readlines()
#print res[1]
if len(res) > 0:
for line in res:
if debug: print(('%s' % line.rstrip('\n')))
if line == ('2 : RSPDriver DOWN\n') or line == ('2 : TBBDriver DOWN\n'):
print('System is Going to swlevel 2')
# errorprg = os.system('swlevel 2')
# if len(err) > 0:
# else:
# print fromprg.readlines()
res2 = os.popen3('swlevel 2')[1].readlines()
# print errorprg
print(('%s' % line.rstrip('\n')))
res = os.popen3('rspctl --datastream=0')[1].readlines()
# time.sleep(90) # Tijdelijk toe gevoegd voor nieuwe tbbdriver. Deze loopt vast tijdens pollen
# CheckTBB() # Tijdelijk weg gelaten voor nieuwe tbbdriver. Deze loopt vast tijdens pollen
#fromprg.close()
break
return
#res.close()
################################################################################
# Check ntpd time demon
#
def CheckNtpd():
SeverityOfThisTest=3
PriorityOfThisTest=3
global Severity
global Priority
print ('Check of the Ntpd!')
sr.setId('Clock - ')
res = os.popen3('/usr/sbin/ntpq -p')[1].readlines()
#res = os.popen3('/opt/stationtest/test/timing/ntpd.sh')[1].readlines()
if debug:
for line in res:
print(('-%s' % line.rstrip('\n')))
#print ('res : %s' % res)
if len(res) > 0:
# print (res[3])
offset=0
for line in res:
if debug: print(('line= %s' % line))
locallock=line.find('*LOCAL(0)')
if locallock==0: break
gpslock=line.find('*GPS_ONCORE(0)')
if gpslock==0:
offset=float((line.split())[8])
break
if debug:
# print ('res[3] is: %s' % res[3])
# print ('res[4] is: %s' % res[4])
print(('gpslock is %s' % gpslock))
print(('locallock is %s' % locallock))
print(('offset is %.3f' % offset))
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if gpslock > -1:
if debug: print('GPS in Lock. OK')
else:
if locallock > -1:
sr.appendLog(11,'Clock locked on Local Clock!!')
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('Clock >: Sv=%s Pr=%s, Clock locked on Local Clock!\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest]))
sr.setResult('FAILED')
else:
sr.appendLog(11,'Clock out of sync!!')
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('Clock >: Sv=%s Pr=%s, Clock out of sync!\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest]))
sr.setResult('FAILED')
if offset < -clkoffset or offset > clkoffset:
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('Clock >: Sv=%s Pr=%s, Clock Offset to large : %.3f\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], offset))
sr.appendLog(11,'Clock Offset to large : %.3f' % offset)
sr.setResult('FAILED')
else:
sr.appendLog(11,'no answer from ntpq!')
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('Clock >: Sv=%s Pr=%s, no answer from ntpq!\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest]))
sr.setResult('FAILED')
return
################################################################################
# Function Check RSP status bytes
#
def CheckRSPStatus():
# debug = 1
SeverityOfThisTest=2
PriorityOfThisTest=2
global Severity
global Priority
sr.setId('RSPst >: ')
print ('Check RSP Status')
OutputClock,PLL160MHz,PLL200MHz=gettdstatus() # td-status
time.sleep(1)
res = os.popen3('rspctl --status')[1].readlines()
#print res[1]
linecount=0
if len(res) > 0:
for line in res:
sync=line.find('RSP[ 0] Sync')
if sync==0: break
linecount+=1
#print 'sync = ' + str(sync) + ' and linecount = ' + str(linecount)
for rsp in range(opts.rsp_nr):
# print res[linecount+rsp]
# x = res[linecount+rsp].split( )
# print res[linecount+rsp*5].lstrip('RSP').strip('[').split()
if debug:
print('\n', end=' ')
print(res[linecount+rsp*5], end=' ')
dif = res[linecount+rsp*5+sync].lstrip('RSP').strip('[').strip(':').split()
#print str(linecount+rsp*5+sync),
#print dif[2]
if dif[2] not in ('0', '512'): # was ('0', '1', '512', '513'):
#if debug: print ('RSP : %d status error: sync = %d, diff = %d' % (int(rsp), int(sync), int(dif[2])))
sr.appendLog(11,'RSP : %d status error: sync = %d diff = %d' % (int(rsp), int(sync), int(dif[2])))
sr.setResult('FAILED')
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('RSPst >: Sv=%s Pr=%s, RSP : %d AP%d status error at %s MHz: diff = %d\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], int(rsp), int(dif[1].strip(':')), OutputClock, int(dif[2])))
sr.setResult('FAILED')
#time.sleep(3)
# debug = 0
################################################################################
# Function check if clock 160 MHz is locked
#
def CheckTDSStatus160():
SeverityOfThisTest=2
PriorityOfThisTest=2
global Severity
global Priority
sr.setId('TDSst >: ')
# TDS=[0,4,8]
if debug: print(('TDS = ',TDS))
if StationType == International:
LockCount160=[0 for i in range (21)]
else:
LockCount160=[0 for i in range (9)]
if debug: print(('LockCount160 = ',LockCount160))
PLL160MHz = '?'
PLL200MHz = '?'
res = os.popen3('rspctl --clock=160')[1].readlines()
print ('Clock set to 160MHz')
time.sleep(1)
n=0 # Wait till clock set
while n < 15: # maximum itterations
OutputClock,PLL160MHz,PLL200MHz=gettdstatus() # td-status
if PLL160MHz=='LOCKED':
print(('Clock %s' %(PLL160MHz)))
# print ('OutputClock = ',OutputClock)
# print ('PLL160MHz = ',PLL160MHz)
# print ('PLL200MHz = ',PLL200MHz)
n+=1
time.sleep(5)
if n==15:
print ('Clock never locked')
# if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
# if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
# st_log.write('TDSst >: Sv=%s Pr=%s, TDS : all @ 160MHz never locked: PLL200MHz = %s, PLL160MHz = %s, Output Clock = %s\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], PLL200MHz, PLL160MHz, OutputClock))
sr.setResult('FAILED')
# if n < 15:
for TDSBrd in TDS:
# print('TDSBrd = ',TDSBrd)
LockCount160[TDSBrd]==0
if debug: print(('LockCount160[%s] = %s' % (TDSBrd,LockCount160[TDSBrd])))
n=0 # Check if clock is LOCKED every 2 seconds for 10 times!
while n < 10:
n+=1
for TDSBrd in TDS:
valid=0
PLL160MHz = '?'
PLL200MHz = '?'
# print('TDSBrd = ',TDSBrd)
res = os.popen3('rspctl --tdstatus --sel=%s'%(TDSBrd))[1].readlines()
for line in res:
if line[0] == 'R':
valid=1
if debug: print ('valid tdstatus')
#print res[0].split()
if valid == 1:
for line in res:
if line[0] == 'R': # Check of regel geldig is!
header=line.replace('|',' ').split()
if debug: print(('header = ', header))
else: # Check of regel geldig is!
status=line.replace('|',' ').replace('not locked','notlocked').split()
if debug:
print(('status= ', status))
print(('OutputClock = ',status[2]))
print(('PLL160MHz = ',status[4]))
print(('PLL200MHz = ',status[5]))
OutputClock = status[2]
PLL160MHz = status[4]
PLL200MHz = status[5]
LockCount160[TDSBrd] += 1 # store station testlog
# print('LockCount160[TDSBrd] = ',LockCount160[TDSBrd])
if LockCount160[TDSBrd] == 1: # Store Error at the first time
print ('Clock 160MHz not locked')
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('TDSst >: Sv=%s Pr=%s, TDS : %s @ 160MHz not locked: PLL200MHz = %s, PLL160MHz = %s, Output Clock = %s\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], TDSBrd, PLL200MHz, PLL160MHz, OutputClock))
sr.setResult('FAILED')
if (n==10 and LockCount160[TDSBrd]!=0): # Store number of Errors only at the last time first time
st_log.write('TDSlt >: Sv=%s Pr=%s, TDS : %s @ 160MHz Did go wrong %s out of 10 times\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], TDSBrd, LockCount160[TDSBrd]))
time.sleep(1)
return
################################################################################
# Function check if clock 200 MHz is locked
#
def CheckTDSStatus200():
# debug = 1
SeverityOfThisTest=2
PriorityOfThisTest=2
global Severity
global Priority
sr.setId('TDSst >: ')
if debug: print(('TDS = ',TDS))
if StationType == International:
LockCount200=[0 for i in range (21)]
else:
LockCount200=[0 for i in range (9)]
if debug: print(('LockCount200 = ',LockCount200))
PLL160MHz = '?'
PLL200MHz = '?'
res = os.popen3('rspctl --clock=200')[1].readlines()
print ('Clock set to 200MHz')
time.sleep(1)
n=0 # Wait till clock set
while n < 15: # maximum itterations
OutputClock,PLL160MHz,PLL200MHz=gettdstatus() # td-status
if PLL200MHz=='LOCKED':
print(('Clock %s' %(PLL200MHz)))
# print ('OutputClock = ',OutputClock)
# print ('PLL160MHz = ',PLL160MHz)
# print ('PLL200MHz = ',PLL200MHz)
n+=1
time.sleep(5)
if n==15:
print ('Clock never locked')
# if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
# if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
# st_log.write('TDSst >: Sv=%s Pr=%s, TDS : all @ 200MHz not locked: PLL200MHz = %s, PLL160MHz = %s, Output Clock = %s\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], PLL200MHz, PLL160MHz, OutputClock))
sr.setResult('FAILED')
# if n < 15:
for TDSBrd in TDS:
# print('TDSBrd = ',TDSBrd)
LockCount200[TDSBrd]==0
# print('LockCount200[TDSBrd] = ',LockCount200[TDSBrd])
n=0 # Check if clock is LOCKED every 2 seconds for 10 times!
while n < 10:
n+=1
for TDSBrd in TDS:
valid=0
PLL160MHz = '?'
PLL200MHz = '?'
# print('TDSBrd = ',TDSBrd)
res = os.popen3('rspctl --tdstatus --sel=%s'%(TDSBrd))[1].readlines()
for line in res:
if line[0] == 'R':
valid=1
if debug: print ('valid tdstatus')
#print res[0].split()
if valid == 1:
for line in res:
if line[0] == 'R': # Check of regel geldig is!
header=line.replace('|',' ').split()
if debug: print(('header = ', header))
else: # Check of regel geldig is!
status=line.replace('|',' ').replace('not locked','notlocked').split()
if debug:
print(('status= ', status))
print(('OutputClock = ',status[2]))
print(('PLL160MHz = ',status[4]))
print(('PLL200MHz = ',status[5]))
OutputClock = status[2]
PLL160MHz = status[4]
PLL200MHz = status[5]
LockCount200[TDSBrd] += 1 # store station testlog
# print('LockCount200[TDSBrd] = ',LockCount200[TDSBrd])
if LockCount200[TDSBrd] == 1: # Store Error at the first time
print ('Clock 200MHz not locked')
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('TDSst >: Sv=%s Pr=%s, TDS : %s @ 200MHz not locked: PLL200MHz = %s, PLL160MHz = %s, Output Clock = %s\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], TDSBrd, PLL200MHz, PLL160MHz, OutputClock))
sr.setResult('FAILED')
if (n==10 and LockCount200[TDSBrd]!=0): # Store number of Errors only at the last time first time
st_log.write('TDSlt >: Sv=%s Pr=%s, TDS : %s @ 200MHz Did go wrong %s out of 10 times\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], TDSBrd, LockCount200[TDSBrd]))
time.sleep(1)
# debug = 0
################################################################################
# Function get the TD status
#
def gettdstatus():
res = os.popen3('rspctl --tdstatus --sel=0')[1].readlines()
for line in res:
if line[0] == 'R': # Check of regel geldig is!
header=line.replace('|',' ').split()
#print ('header = ', header)
else: # Check of regel geldig is!
status=line.replace('|',' ').replace('not locked','notlocked').split()
#print ('status= ', status)
#print ('OutputClock = ',status[2])
#print ('PLL160MHz = ',status[4])
if debug: print(('PLL160MHz = %s, PLL200MHz = %s' % (status[4],status[5])))
OutputClock = status[2]
PLL160MHz = status[4]
PLL200MHz = status[5]
return OutputClock,PLL160MHz,PLL200MHz
################################################################################
# Function make RSP Version gold
#
def makeRSPVersionGold():
res = os.popen3('rspctl --version')[1].readlines()
time.sleep(3)
if StationType == International:
f_log = file('/misc/home/etc/stationtest/gold/rsp_version-int.gold', 'w')
else:
f_log = file('/misc/home/etc/stationtest/gold/rsp_version.gold', 'w')
print ('RSP Version Gold file has been made!')
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return
################################################################################
# Function read RSP Version gold
#
def readRSPVersionGold():
f=open(RSPgoldfile,'rb')
# if debug:
# for line in f:
# print ('Res = ', line)
return f
################################################################################
# Function Check RSP Version
#
def CheckRSPVersion():
SeverityOfThisTest=2
PriorityOfThisTest=2
global Severity
global Priority
sr.setId('RSPver>: ')
sr.appendLog(21,'')
sr.appendLog(21,'### Verify LCU - RSP ethernet link by getting the RSP version info')
sr.appendLog(21,'')
print ('Check RSP Version')
# RSPgold=readRSPVersionGold()
RSPgold = open(RSPgoldfile,'r').readlines() # Read RSP Version gold
RSPversion = os.popen3('rspctl --version')[1].readlines() # Get RSP Versions
# res = cli.command('./rsp_version.sh')
print(('RSPgold = ', RSPgold))
if RSPgold[RSPnumber] == RSPversion[RSPnumber]: print(('RSP OK = ', RSPnumber))
else: print(('RSPNOK = ', RSPnumber))
# store subreck testlog
for RSPnumber in range(len(RSPgold)):
if RSPgold[RSPnumber] != RSPversion[RSPnumber]:
sr.appendLog(11,'>>> RSP version test went wrong')
#sr.appendLog(11,'CLI:')
#sr.appendLog(11,res,1,1,1)
sr.appendLog(11,'Result:')
for line in RSPversion:
#print ('%s' % line.rstrip('\n'))
sr.appendLog(11,'%s' % line.rstrip('\n'))
sr.appendLog(11,'Expected:')
for line in RSPgold:
#print ('%s' % line.rstrip('\n'))
sr.appendLog(11,'%s' % line.rstrip('\n'))
sr.setResult('FAILED')
break
# store station testlog
for RSPnumber in range(len(RSPgold)):
if RSPgold[RSPnumber] != RSPversion[RSPnumber]:
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('RSPver>: Sv=%s Pr=%s, BP/AP Error! %s' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], RSPversion[RSPnumber]))
sr.setResult('FAILED')
if debug: print(('RSPNOK = ', RSPnumber))
return
################################################################################
# Function make TBB Version gold
#
def makeTBBVersionGold():
res = os.popen3('tbbctl --version')[1].readlines()
time.sleep(3)
f_log = file(TBBgoldfile, 'w')
for line in res:
print ('TBB Version Gold file has been made!')
return
################################################################################
# Function Check TBB Version
#
def CheckTBBVersion():
SeverityOfThisTest=2
PriorityOfThisTest=2
global Severity
global Priority
sr.setId('TBBver>: ')
sr.appendLog(21,'')
sr.appendLog(21,'### Verify LCU - TBB ethernet link by getting the TBB version info')
sr.appendLog(21,'')
TBBgold = open(TBBgoldfile,'r').readlines() # Read TBB Version gold
TBBversion = os.popen3('tbbctl --version')[1].readlines() # Get TBB Versions
time.sleep(1)
if len(TBBversion) < 4:
# store station testlog
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('TBB >: Sv=%s Pr=%s, Error: TBB driver is not running\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest]))
print(('Returned message from TBBversion: %s' % TBBversion))
print(('TBBgold: %s' % TBBgold))
print(('TBBversion: %s' % TBBversion))
if TBBgold[TBBnumber] == TBBversion[TBBnumber]: print(('TBB OK = ', TBBnumber))
else: print(('TBBNOK = ', TBBnumber))
# store subreck testlog
for TBBnumber in range(len(TBBgold)):
if TBBgold[TBBnumber] != TBBversion[TBBnumber]:
sr.appendLog(11,'>>> TBB version test went wrong')
#sr.appendLog(11,'CLI:')
#sr.appendLog(11,res,1,1,1)
sr.appendLog(11,'Result:')
for line in TBBversion:
#print ('%s' % line.rstrip('\n'))
sr.appendLog(11,'%s' % line.rstrip('\n'))
sr.appendLog(11,'Expected:')
for line in TBBgold:
#print ('%s' % line.rstrip('\n'))
sr.appendLog(11,'%s' % line.rstrip('\n'))
sr.setResult('FAILED')
break
# store station testlog
for TBBnumber in range(len(TBBgold)):
if TBBgold[TBBnumber] != TBBversion[TBBnumber]:
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('TBBver>: Sv=%s Pr=%s, TP/MP Error! %s' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], TBBversion[TBBnumber]))
if debug: print(('TBBNOK = ', TBBnumber))
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return
################################################################################
# Function Check TBB Version Eventueel nog toevoegen!
#
#sr.setId('TBB version - ')
#sr.appendLog(21,'')
#sr.appendLog(21,'### Verify LCU - TBB ethernet link by getting the TBB version info')
#sr.appendLog(21,'')
#res = cli.command('./tbb_version.sh')
#if res.find('OK')==-1:
# sr.appendLog(11,'>>> TBB version test went wrong')
# sr.appendLog(11,'CLI:')
# sr.appendLog(11,res,1,1,1)
# sr.appendLog(11,'Result:')
# sr.appendFile(11,'tbb_version.log')
# sr.appendLog(11,'Expected:')
# sr.appendFile(11,'gold/tbb_version.gold')
# sr.setResult('FAILED')
#else:
# sr.appendLog(11,'>>> TBB version test went OK')
################################################################################
# Function make TBB Memory gold
#
def makeTBBMemGold():
res = os.popen3('./tbb_memory.sh')[1].readlines()
time.sleep(3)
f_log = file(TBBmgoldfile, 'w')
for line in res:
print ('TBB Memory Gold file has been made!')
return
################################################################################
# Function Check TBB Memory
#
def CheckTBBMemory():
SeverityOfThisTest=2
PriorityOfThisTest=2
global Severity
global Priority
sr.setId('TBBmem>: ')
sr.appendLog(21,'')
sr.appendLog(21,'### Verify TBB memory modules on the TBB')
sr.appendLog(21,'')
print ('TBB Memory check')
TBBmgold = open(TBBmgoldfile,'r').readlines() # Read TBB Memory gold
TBBmem = os.popen3('./tbb_memory.sh')[1].readlines() # Start TBB memory test
# res = cli.command('./tbb_version.sh')
if debug:
for TBBnumber in range(len(TBBmgold)):
if TBBmgold[TBBnumber] == TBBmem[TBBnumber]: print(('TBB OK = ', TBBnumber))
else: print(('TBBNOK = ', TBBnumber))
# store subreck testlog
# for TBBnumber in range(len(TBBgold)):
# if TBBgold[TBBnumber] != TBBversion[TBBnumber]:
# sr.appendLog(11,'>>> TBB version test went wrong')
# #sr.appendLog(11,'CLI:')
# #sr.appendLog(11,res,1,1,1)
# sr.appendLog(11,'Result:')
# for line in TBBversion:
# #print ('%s' % line.rstrip('\n'))
# sr.appendLog(11,'%s' % line.rstrip('\n'))
# sr.appendLog(11,'Expected:')
# for line in TBBgold:
# #print ('%s' % line.rstrip('\n'))
# sr.appendLog(11,'%s' % line.rstrip('\n'))
# sr.setResult('FAILED')
# break
# store station testlog
for TBBnumber in range(len(TBBmgold)):
if TBBmgold[TBBnumber] != TBBmem[TBBnumber]:
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('TBBmem>: Sv=%s Pr=%s, BP/AP Error! %s' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], TBBmem[TBBnumber]))
sr.setResult('FAILED')
if debug: print(('TBBNOK = ', TBBnumber))
return
################################################################################
# Function Check TBB Memory Nog testen met defect TBB board!
#
def CheckTBBMemoryOrg():
sr.setId('TBBmem>: ')
sr.appendLog(21,'### Verify TBB memory modules on the TBB')
# linecount=0
# TBBmemory = os.popen3('./tbb_memory')[1].readlines() # Get RSP Versions
# if len(TBBmemory) > 0:
# for line in TBBmemory:
# lineContainingTBBmemory=line.find('TBB memory')
# if lineContainingTBBmemory==0: break
# linecount+=1
#
# if debug:
#
# for tbb in range(opts.tbb_nr):
# print TBBmemory[linecount+tbb]
#
# return
res = cli.command('./tbb_memory.sh')
if res.find('wrong')==-1:
if debug: print((11,'>>> TBB memory test went OK'))
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else:
sr.appendLog(11,'>>> TBB memory test went wrong')
sr.appendLog(11,'CLI:')
sr.appendLog(11,res,1,1,1)
sr.appendLog(11,'Result:')
sr.appendFile(11,'tbb_memory.log')
sr.appendLog(11,'Expected:')
sr.appendFile(11,'gold/tbb_memory.gold')
sr.setResult('FAILED')
return
################################################################################
# Function Check TBB Size Nog testen met defect TBB board!
#
def CheckTBBSizetmp():
SeverityOfThisTest=2
PriorityOfThisTest=2
global Severity
global Priority
TBBsgold = open(TBBsgoldfile,'r').readlines() # Read TBB Memory gold
TBBsze = os.popen3('./tbb_size.sh')[1].readlines() # Start TBB memory test
# res = cli.command('./tbb_version.sh')
if debug:
for TBBnumber in range(len(TBBsgold)):
if TBBsgold[TBBnumber] == TBBsze[TBBnumber]: print(('TBB OK = ', TBBnumber))
else: print(('TBBNOK = ', TBBnumber))
# store station testlog
for TBBnumber in range(len(TBBsgold)):
if TBBsgold[TBBnumber] != TBBsze[TBBnumber]:
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('TBBsze>: Sv=%s Pr=%s, TBBSize Error! %s' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], TBBsze[TBBnumber]))
sr.setResult('FAILED')
if debug: print(('TBBNOK = ', TBBnumber))
return
################################################################################
# Function Check TBB Size Nog testen met defect TBB board!
#
def CheckTBBSize():
SeverityOfThisTest=2
PriorityOfThisTest=2
global Severity
global Priority
sr.setId('TBBsze>: ')
sr.appendLog(21,'### Verify the size of the TBB memory modules')
res = cli.command('./tbb_size.sh')
if res.find('wrong')==-1:
#sr.appendLog(11,'>>> TBB size test went OK')
if debug: print((11,'>>> TBB size test went OK'))
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else:
sr.appendLog(11,'>>> TBB size test went wrong')
sr.appendLog(11,'CLI:')
sr.appendLog(11,res,1,1,1)
sr.appendLog(11,'Result:')
sr.appendFile(11,'tbb_size.log')
sr.appendLog(11,'Expected:')
sr.appendFile(11,'gold/tbb_size.gold')
sr.setResult('FAILED')
# store station testlog
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('TBBsze>: Sv=%s Pr=%s, TBB size test went wrong!\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest]))
return
################################################################################
# Function Pseudo Random TBB Test Nog testen met defect TBB board!
#
def PseudoRandomTBBTest():
sr.setId('PsRndT>: ')
sr.appendLog(21,'### Verify the RCU - RSP - TBB LVDS interfaces by capturing pseudo random data on TBB')
res = cli.command('./tbb_prbs_tester.sh')
if res.find('wrong')==-1:
#sr.appendLog(11,'>>> RCU - RSP - TBB LVDS interfaces test went OK')
if debug: print((11,'>>> RCU - RSP - TBB LVDS interfaces test went OK'))
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else:
sr.appendLog(11,'>>> RCU - RSP - TBB LVDS interfaces went wrong')
sr.appendLog(11,'CLI:')
sr.appendLog(11,res,1,1,1)
sr.setResult('FAILED')
return
################################################################################
# Function CHeck SPU status Nog testen met defect SPU board!
#
def CheckSPUStatus():
SeverityOfThisTest=2
PriorityOfThisTest=2
global Severity
global Priority
sr.setId('SPUst >: ')
sr.setId('SPU status - ')
sr.appendLog(21,'### Verify the RSP - SPU I2C interface by reading the SPU sensor data')
res = cli.command('python i2c_spu.py --sub %s --rep 1 -v 11' %(SubRck,))
res = cli.command('python i2c_spu.py --sub sub0,sub1,sub2')
if res.find('FAILED')==-1:
#sr.appendLog(11,'>>> RSP - SPU I2c interface test went OK')
if debug: print((11,'>>> RSP - SPU I2c interface test went OK'))
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else:
sr.appendLog(11,'>>> RSP - SPU I2c interface test went wrong')
# sr.appendLog(11,'CLI:')
# sr.appendLog(11,res,1,1,1)
# sr.appendLog(11,'Result:')
sr.appendFile(11,'spustat.log')
sr.setResult('FAILED')
# store station testlog
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('SPUst >: Sv=%s Pr=%s, RSP - SPU I2c interface test went wrong!\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest]))
return
################################################################################
# Function CHeck RSP TD interface Nog testen met defect interface!
#
def CheckRSPTdI2C():
SeverityOfThisTest=2
PriorityOfThisTest=2
global Severity
global Priority
sr.setId('RSPTD >: ')
sr.appendLog(21,'### Verify the RSP - TD I2C interface by reading the TD sensor data')
res = cli.command('python i2c_td.py --brd %s' %(SubBrd,))
if debug: print(('res = %s' % res))
if res.find('FAILED')==-1:
#sr.appendLog(11,'>>> RSP - TD I2c interface test went OK')
if debug: print((11,'>>> RSP - TD I2c interface test went OK'))
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else:
sr.appendLog(11,'>>> RSP - TD I2c interface test went wrong')
# sr.appendLog(11,'CLI:')
# sr.appendLog(11,res,1,1,1)
# sr.appendLog(11,'Result:')
sr.appendFile(11,'tdstat.log')
sr.setResult('FAILED')
# store station testlog
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('RSPTD >: Sv=%s Pr=%s, RSP - TD I2c interface test went wrong!\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest]))
return
################################################################################
# Function Built in self test RSP Nog testen op een defecte RSP!
#
def Bist():
SeverityOfThisTest=2
PriorityOfThisTest=2
global Severity
global Priority
sr.setId('Bist >: ')
sr.appendLog(21,'### Build In Self Test (BIST)')
res = cli.command('python verify.py --brd %s --rep 1 -v 21 --te tc/bist.py' %(RspBrd,))
if debug: print(('res = %s' % res))
if res.find('wrong')==-1:
#sr.appendLog(11,'>>> BIST went OK')
if debug: print((11,'>>> BIST went OK'))
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sr.appendLog(21,'tc/bist.log')
else:
sr.appendLog(11,'>>> BIST went wrong')
# sr.appendLog(11,'CLI:')
# sr.appendLog(11,res,1,1,1)
sr.appendLog(11,'tc/bist.log')
sr.appendLog('FAILED')
# store station testlog
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('Bist >: Sv=%s Pr=%s, BIST went wrong!\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest]))
return
################################################################################
# Function Pseudo Random RSP Test Nog testen op een defecte RSP!
#
def PseudoRandomRSPTest():
sr.setId('PsRndR>: ')
sr.appendLog(21,'### Verify the RCU -> RSP LVDS interfaces by capturing pseudo random data on RSP')
res = cli.command('python verify.py --brd %s --fpga blp0,blp1,blp2,blp3 --pol x,y --rep 1 -v 11 --te tc/prsg.py' %(RspBrd,))
if res.find('wrong')==-1:
#sr.appendLog(11,'>>> RCU-RSP interface test went OK')
if debug: print((11,'>>> RCU-RSP interface test went OK'))
sr.appendFile(21,'tc/prsg.log')
else:
sr.appendLog(11,'>>> RCU-RSP interface test went wrong')
# sr.appendLog(11,'CLI:')
# sr.appendLog(11,res,1,1,1)
sr.appendFile(11,'tc/prsg.log')
sr.setResult('FAILED')
return
################################################################################
# Function RCU - HBA modem test Nog testen met defecte RCU
#
def RCUHBAModemTest():
sr.setId('RCUHBm>: ')
sr.appendLog(21,'### Verify the control modem on the RCU')
res = cli.command('python verify.py --brd %s --fpga blp0,blp1,blp2,blp3 --rep 1 -v 11 --te tc/hba_client.py --client_access r --client_reg version --data 10' %(RspBrd,))
if res.find('wrong')==-1:
#sr.appendLog(11,'>>> RCU-HBA modem test went OK')
if debug: print((11,'>>> RCU-HBA modem test went OK'))
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sr.appendFile(21,'tc/hba_client.log')
else:
sr.appendLog(11,'>>> RCU-HBA modem test went wrong')
# sr.appendLog(11,'CLI:')
# sr.appendLog(11,res,1,1,1)
sr.appendFile(11,'tc/hba_client.log')
sr.setResult('FAILED')
# store station testlog
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('RCUHBm>: Sv=%s Pr=%s, RCU-HBA modem test went wrong!\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest]))
return
################################################################################
# Function Serdes ring 'off' test Nog testen met losse infiniband kabel!
#
def SerdesRingTestOff():
sr.setId('SerOff>: ')
sr.appendLog(21,'### Verify the Serdes ring connection between the RSP boards with ring is off')
cli.command('rspctl --splitter=0')
res = cli.command('python verify.py --brd %s --rep 1 -v 21 --te tc/serdes.py --diag_sync 0' %(RspBrd,))
if res.find('wrong')==-1:
#sr.appendLog(11,'>>> Serdes ring off test went OK')
if debug: print((11,'>>> Serdes ring off test went OK'))
sr.appendLog(21,'tc/serdes.log')
else:
sr.appendLog(11,'>>> Serdes ring off test went wrong')
# sr.appendLog(11,'CLI:')
# sr.appendLog(11,res,1,1,1)
sr.appendLog(11,'tc/serdes.log')
sr.appendLog('FAILED')
return
################################################################################
# Function Serdes ring 'on' test Nog testen met losse infiniband kabel!
#
def SerdesRingTestOn():
sr.setId('SerOn >: ')
sr.appendLog(21,'### Verify the Serdes ring connection between the RSP boards with ring is on')
cli.command('rspctl --splitter=1')
res = cli.command('python verify.py --brd %s --rep 1 -v 21 --te tc/serdes.py --diag_sync 0' %(RspBrd,))
if res.find('wrong')==-1:
#sr.appendLog(11,'>>> Serdes ring on test went OK')
if debug: print((11,'>>> Serdes ring on test went OK'))
sr.appendLog(21,'tc/serdes.log')
else:
sr.appendLog(11,'>>> Serdes ring on test went wrong')
# sr.appendLog(11,'CLI:')
# sr.appendLog(11,res,1,1,1)
sr.appendLog(11,'tc/serdes.log')
sr.appendLog('FAILED')
return
################################################################################
# Function LBA test
# Read directory with the files to processs
def open_dir(dirname) : # Sub functions belonging to LBA test and HBA test
files = list(filter(os.path.isfile, os.listdir('.')))
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#files.sort(key=lambda x: os.path.getmtime(x))
return files
def rm_files(dir_name,file) :
cmdstr = 'rm -f ' + file
os.popen(cmdstr)
return
def rec_stat(dirname,num_rcu) :
os.popen("rspctl --statistics --duration=1 --integration=1 --select=0:" + str(num_rcu-1) + " 2>/dev/null")
return
# Open file for processsing
def open_file(files, file_nr) :
# check if file is data file, no junk
if files[file_nr][-3:] == 'dat':
file_name = files[file_nr]
fileinfo = os.stat(file_name)
size = int(fileinfo.st_size)
f=open(file_name,'rb')
max_frames = size/(512*8)
frames_to_process=max_frames
rcu_nr = int(files[file_nr][-7:-4]) # was [-6:-4]
#print 'File nr ' + str(file_nr) + ' RCU nr ' + str(rcu_nr) + ' ' + files[file_nr][-6:-4]
else :
frames_to_process=0
f=open(files[file_nr],'rb')
rcu_nr = 0
return f, frames_to_process, rcu_nr
# Read single frame from file
def read_frame(f):
sst_data = array.array('d')
sst_data.fromfile(f,512)
sst_data = sst_data.tolist()
return sst_data
# LBA test
def LBAtest():
SeverityOfThisTest=2
PriorityOfThisTest=2
global Severity
global Priority
print ('LBA test')
sr.setId('LBAmd1>: ')
sub_time=[]
sub_file=[]
# dir_name = './lbadatatest/' #Work directory will be cleaned
dir_name = '/opt/stationtest/test/hbatest/lbadatatest/' #Work directory will be cleaned
if not (os.path.exists(dir_name)):
os.mkdir(dir_name)
rmfile = '*.log'
ctrl_string='='
# read in arguments
if len(sys.argv) < 2 :
subband_nr=301
else :
if len(sys.argv) < 3 :
if StationType == International:
num_rcu=192
else:
num_rcu=96
else :
print(' Dir name is ' + dir_name)
print(' Number of RCUs is ' + str(num_rcu))
# init log file
f_log = file('/opt/stationtest/test/hbatest/LBA_elements.log', 'w')
f_log.write(' ************ \n \n LOG File for LBA element test \n \n *************** \n')
f_logfac = file('/opt/stationtest/test/hbatest/LBA_factors.log', 'w')
f_loglin = file('/opt/stationtest/test/hbatest/LBA_lin.log', 'w')
f_logdown = file('/opt/stationtest/test/hbatest/LBA_down.log', 'w') # log number that indicates if LBA antenna is falen over (down)
# initialize data arrays
ref_data=list(range(0, num_rcu))
meet_data=list(range(0, num_rcu))
meet_data_left=list(range(0, num_rcu))
meet_data_right=list(range(0, num_rcu))
meet_data_down=list(range(0, num_rcu))
#---------------------------------------------
# Set swlevel and determine a beam
rm_files(dir_name,'*')
os.popen3("swlevel 2");
if StationType == Core or StationType == Remote: # Test LBA's in mode1 of NL stations only
os.popen("rspctl --rcuenable=1")
time.sleep(5)
res=os.popen3("rspctl --rcumode=1");
res=os.popen3("rspctl --aweights=8000,0");
# time.sleep(5)
# res=os.popen3("beamctl --array=LBA_OUTER --rcus=0:95 --rcumode=1 --subbands=100:110 --beamlets=0:10 --direction=0,0,LOFAR_LMN&")
# if debug: print 'answer from beamclt = ' + res
time.sleep(1)
# To simulate a defect antenna:
if debug:
os.popen3("rspctl --rcu=0x10037880 --sel=50:53")
time.sleep(1)
# get list of all files in dir_name
files = open_dir(dir_name)
#---------------------------------------
# capture lba element data
#rm_files(dir_name,'*')
print('Capture LBA data in mode 1.')
rec_stat(dir_name,num_rcu)
# get list of all files in dir_name
files = open_dir(dir_name)
# start processing the element measurements
for file_cnt in range(len(files)) :
f, frames_to_process, rcu_nr = open_file(files, file_cnt)
if frames_to_process > 0 :
sst_data = read_frame(f)
sst_subband = sst_data[subband_nr]
meet_data[rcu_nr] = sst_subband
if ((sst_subband>75000000) and (sst_subband<1500000000)): # average LCU is about 150.000.000. Reject antennes met grotere afwijking dan 10dB en kleiner dan 3dB
averagesum=averagesum+sst_subband
else:
Rejected_antennas=Rejected_antennas+1
if debug:
if rcu_nr==0:
print(' waarde sst_subband 0 is ' + str(sst_subband))
if rcu_nr==2:
print(' waarde sst_subband 2 is ' + str(sst_subband))
if rcu_nr==50:
print(' waarde sst_subband 50 is ' + str(sst_subband))
f.close
if (num_rcu-Rejected_antennas) != 0: average_lba=averagesum/(num_rcu-Rejected_antennas) # to avoid devide by zero when all antenna's are wrong!
# if debug:
print('average = ' + str(average_lba))
print('Number of rejected antennas = ' + str(Rejected_antennas))
f_loglin.write('Number of rejected antennas for mode 1 = ' + str(Rejected_antennas) + '\n')
if average_lba < 4000000:
print ('LBA levels to low in mode 1!!!')
# if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
# if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('LBAmd1>: Sv=%s Pr=%s, LBA levels to low!!!\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest]))
return
for rcuind in range(num_rcu) : # Log lineair value of data
print('RCU: ' + str(rcuind) + ' factor: ' + str(meet_data[rcuind]))
f_loglin.write(str(rcuind) + ' ' + str(meet_data[rcuind]) + '\n')
f_log.write('\nrcumode 1: \n')
for rcuind in range(num_rcu) :
if debug: print('RCU: ' + str(rcuind) + ' factor: ' + str(round(meet_data[rcuind]*100/average_lba)))
f_logfac.write(str(rcuind) + ' ' + str(round(meet_data[rcuind]*100/average_lba)) + '\n')
if (round(meet_data[rcuind]*100/average_lba)) < factorLL or (round((meet_data[rcuind]*100/average_lba))) > factorHL:
# Store in log file
f_log.write('RCU: ' + str(rcuind)+ ' factor: ' + str(round(meet_data[rcuind]*100/average_lba)) + '\n')
sr.appendLog(11,'LBL : subb. stat. RCU: ' + str(rcuind)+ ' factor: ' + str(round(meet_data[rcuind]*100/average_lba)))
# store station testlog
st_log.write('LBAmd1>: Sv=%s Pr=%s, LBA Outer (LBL) defect: RCU: %s factor: %s\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], rcuind, str(round(meet_data[rcuind]*100/average_lba))))
# if debug==0: print('RCU: ' + str(rcuind)+ ' factor: ' + str(round(meet_data[rcuind]*100/average_lba)))
sr.setResult('FAILED')
else:
sr.appendLog(11,'No Beam set in mode 1!!')
sr.setResult('FAILED')
# store station testlog
st_log.write('LBAmd1>: Sv=%s Pr=%s, No Beam set in mode 1!!\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest]))
# When LBA antenna resonance frequency has low level (<60 >2) and the resonance is shifted more than 10 subbands, the antenna is falen over!
Highest_subband=0
Previous_subband=0
for file_cnt in range(len(files)) :
f, frames_to_process, rcu_nr = open_file(files, file_cnt)
if frames_to_process > 0 :
sst_data = read_frame(f)
sst_subband = sst_data[subband_nr]
meet_data[rcu_nr] = sst_subband
window = list(range(-40,40))
# print window
Highest_subband=0
Previous_subband=0
for scan in window:
# print ' sst_data = ' + str(sst_data[subband_nr+scan])
if sst_data[subband_nr+scan] > Previous_subband:
Previous_subband = sst_data[subband_nr+scan]
Highest_subband = scan
print(' Highest_subband = ' + str(Highest_subband))
meet_data_down[rcu_nr] = Highest_subband
if (round(meet_data[rcu_nr]*100/average_lba)) < 60 and (round(meet_data[rcu_nr]*100/average_lba)) > 2:
if (Highest_subband < -10 or Highest_subband > +10):
st_log.write('LBAdn1>: Sv=%s Pr=%s, LBA Outer (LBL) down: RCU: %s factor: %s offset: %s\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], rcu_nr, str(round(meet_data[rcu_nr]*100/average_lba)), Highest_subband))
f.close
for rcuind in range(num_rcu) :
print('RCU: ' + str(rcuind) + ' factor: ' + str(round(meet_data_down[rcuind])))
f_logdown.write(str(rcuind) + ' ' + str(round(meet_data_down[rcuind])) + '\n')
f_log.close
f_logfac.close
rm_files(dir_name,'*')
# os.popen("killall beamctl")
os.popen("rspctl --rcuenable=1")
time.sleep(5)
time.sleep(1)
res=os.popen3("rspctl --aweights=8000,0")
# time.sleep(5)
# res = os.popen3("beamctl --array=LBA_INNER --rcus=0:95 --rcumode=3 --subbands=100:110 --beamlets=0:10 --direction=0,0,LOFAR_LMN&")
time.sleep(1)
# To simulate a defect antenna:
if debug:
print (res)
os.popen("rspctl --rcu=0x10037880 --sel=54:55")
time.sleep(1)
# get list of all files in dir_name
files = open_dir(dir_name)
#---------------------------------------
# capture lba element data
#rm_files(dir_name,'*')
print('Capture LBA data in mode 3')
rec_stat(dir_name,num_rcu)
# get list of all files in dir_name
files = open_dir(dir_name)
# start processing the element measurements
for file_cnt in range(len(files)) :
f, frames_to_process, rcu_nr = open_file(files, file_cnt)
if frames_to_process > 0 :
sst_data = read_frame(f)
sst_subband = sst_data[subband_nr]
meet_data[rcu_nr] = sst_subband
if ((sst_subband>75000000) and (sst_subband<1500000000)): # average LCU is 150.000.000. Reject antennes met grotere afwijking dan 10dB en kleiner dan 3dB
averagesum=averagesum+sst_subband
else:
Rejected_antennas=Rejected_antennas+1
#averagesum=averagesum+sst_subband
print(' waarde sst_subband 0 is ' + str(sst_subband))
print(' waarde sst_subband 2 is ' + str(sst_subband))
print(' waarde sst_subband 50 is ' + str(sst_subband))
if (num_rcu-Rejected_antennas) != 0: average_lba=averagesum/(num_rcu-Rejected_antennas) # to avoid devide by zero when all antenna's are wrong!
print('average = ' + str(average_lba))
print('Number of rejected antennas = ' + str(Rejected_antennas))
f_loglin.write('Number of rejected antennas for mode 3 = ' + str(Rejected_antennas) + '\n')
if average_lba < 4000000:
print ('LBA levels to low in mode 3!!!')
# if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
# if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('LBAmd3>: Sv=%s Pr=%s, LBA levels to low!!!\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest]))
return
for rcuind in range(num_rcu) : # Log lineair value of data
print('RCU: ' + str(rcuind) + ' factor: ' + str(meet_data[rcuind]))
f_loglin.write(str(rcuind) + ' ' + str(meet_data[rcuind]) + '\n')
if debug: print('RCU: ' + str(rcuind) + ' factor: ' + str(round(meet_data[rcuind]*100/average_lba)))
f_logfac.write(str(rcuind) + ' ' + str(round(meet_data[rcuind]*100/average_lba)) + '\n')
if (round(meet_data[rcuind]*100/average_lba)) < factorLL or (round((meet_data[rcuind]*100/average_lba))) > factorHL:
# Store in log file
f_log.write('RCU: ' + str(rcuind)+ ' factor: ' + str(round(meet_data[rcuind]*100/average_lba)) + '\n')
sr.appendLog(11,'LBH : subb. stat. RCU: ' + str(rcuind)+ ' factor: ' + str(round(meet_data[rcuind]*100/average_lba)))
# store station testlog
st_log.write('LBAmd3>: Sv=%s Pr=%s, LBA Inner (LBH) defect: RCU: %s factor: %s\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], rcuind, str(round(meet_data[rcuind]*100/average_lba))))
sr.setResult('FAILED')
else:
sr.appendLog(11,'No Beam set in mode 3!!')
sr.setResult('FAILED')
# store station testlog
st_log.write('LBAmd3>: Sv=%s Pr=%s, No Beam set in mode 3!!\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest]))
# When LBA antenna resonance frequency has low level (<60% >2%) and the resonance is shifted more than 10 subbands, the antenna is falen over!
Highest_subband=0
Previous_subband=0
for file_cnt in range(len(files)) :
f, frames_to_process, rcu_nr = open_file(files, file_cnt)
if frames_to_process > 0 :
sst_data = read_frame(f)
sst_subband = sst_data[subband_nr]
meet_data[rcu_nr] = sst_subband
window = list(range(-40,40))
# print window
Highest_subband=0
Previous_subband=0
for scan in window:
# print ' sst_data = ' + str(sst_data[subband_nr+scan])
if sst_data[subband_nr+scan] > Previous_subband:
Previous_subband = sst_data[subband_nr+scan]
Highest_subband = scan
# print ' Highest_subband = ' + str(Highest_subband)
meet_data_down[rcu_nr] = Highest_subband
if (round(meet_data[rcu_nr]*100/average_lba)) < 60 and (round(meet_data[rcu_nr]*100/average_lba)) > 2:
if (Highest_subband < -10 or Highest_subband > +10):
st_log.write('LBAdn3>: Sv=%s Pr=%s, LBA Inner (LBH) down: RCU: %s factor: %s offset: %s\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], rcu_nr, str(round(meet_data[rcu_nr]*100/average_lba)), Highest_subband))
f.close
if debug:
for rcuind in range(num_rcu) :
print('RCU: ' + str(rcuind) + ' factor: ' + str(round(meet_data_down[rcuind])))
f_logdown.write(str(rcuind) + ' ' + str(round(meet_data_down[rcuind])) + '\n')
rm_files(dir_name,'*')
# os.popen("killall beamctl")
if debug:
print(('Factor should be inbetween %d and %d. ' % (int(factorLL), int(factorHL))))
print('Factor 100 is average of all antennas.')
return
################################################################################
# Function HBA Modem test
#
def isodd(n):
return bool(n%2)
def HBAModemTest():
SeverityOfThisTest=2
PriorityOfThisTest=2
global Severity
global Priority
global ModemFail
print ('HBA ModemTest')
res = os.popen3('cd /opt/stationtest/test/hbatest/ ; rm hba_modem1.log')[1].readlines()
#res = cli.command('./modemtest.sh')
#res = os.popen3('cd /opt/stationtest/test/hbatest/ ". .bash_profile ; ./modemtest.sh" &')[1].readlines()
res = os.popen3('cd /opt/stationtest/test/hbatest/ ; ./modemtest.sh')[1].readlines()
# print res[1]
time.sleep(1)
try:
f=open('/opt/stationtest/test/hbatest/hba_modem1.log','rb')
except:
print ('Import error')
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('HBAmdt>: Sv=%s Pr=%s, No modem-logfile found!\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest]))
return
time.sleep(1)
for line in f:
ModemReply=line
ModemReplyGold=['HBA', '95', 'real', 'delays=', '1', '2', '3', '4', '5', '6', '7', '8', '9', '10', '11', '12', '13', '14', '15', '16']
if debug: print(('line = ',line[0]))
if line[0] == 'H': # Check of regel geldig is!
ModemReply=line.replace('[',' ').replace('].',' ').split()
RCUNr=int(ModemReply[1])
TileNr=RCUNr // 2
print(('line = ',line))
print(('ModemReply = ',ModemReply))
print(('ModemReplyGold = ',ModemReplyGold))
print(('RCUNr = ',RCUNr))
print(('TileNr = ',TileNr))
# Check if HBA modems work!
count=0
for ElementNumber in range(4, 20):
# print ModemReplyGold[ElementNumber]
if ModemReply[ElementNumber] != ModemReplyGold[ElementNumber]:
count+=1
ModemFail[TileNr]=1 # global variabele om in HBA element test de RF meting over te slaan.
#
if (count > 10 and isodd(RCUNr)): #Als er meer dan 10 fouten in zitten, keur dan hele tile af!
print(('Tile %s - RCU %s; Broken. No modem communication' % (TileNr,RCUNr)))
# store station testlog
#if debug: print ('ModemFail = ',ModemFail)
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('HBAmdt>: Sv=%s Pr=%s, Tile %s - RCU %s; Suspicious.\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], TileNr, RCUNr))
sr.setResult('FAILED')
else: #Anders keur elementen af als fout.
for ElementNumber in range(4, 20):
if (ModemReply[ElementNumber] != ModemReplyGold[ElementNumber] and isodd(RCUNr)):
print(('Tile %s - RCU %s; Element %s; Suspicious. : (%s, %s)' % (TileNr, RCUNr, ElementNumber-3, ModemReply[ElementNumber], ModemReplyGold[ElementNumber])))
# store station testlog
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('HBAmdt>: Sv=%s Pr=%s, Tile %s - RCU %s; Element %s Suspicious. : (%s, %s)\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], TileNr, RCUNr, ElementNumber-3, ModemReply[ElementNumber], ModemReplyGold[ElementNumber]))
sr.setResult('FAILED')
# print ('ModemFail = ',ModemFail)
try:
f=open('/opt/stationtest/test/hbatest/hba_modem3.log','rb')
except:
print ('Import error')
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('HBAmdt>: Sv=%s Pr=%s, No modem-logfile found!\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest]))
return
time.sleep(1)
for line in f:
ModemReply=line
ModemReplyGold=['HBA', '95', 'real', 'delays=', '253', '253', '253', '253', '253', '253', '253', '253', '253', '253', '253', '253', '253', '253', '253', '253']
if debug: print(('line = ',line[0]))
if line[0] == 'H': # Check of regel geldig is!
ModemReply=line.replace('[',' ').replace('].',' ').split()
RCUNr=int(ModemReply[1])
TileNr=RCUNr // 2
print(('line = ',line))
print(('ModemReply = ',ModemReply))
print(('ModemReplyGold = ',ModemReplyGold))
print(('RCUNr = ',RCUNr))
print(('TileNr = ',TileNr))
# Check if HBA modems work!
count=0
for ElementNumber in range(4, 20):
# print ModemReplyGold[ElementNumber]
if ModemReply[ElementNumber] != ModemReplyGold[ElementNumber]:
count+=1
ModemFail[TileNr]=1 # global variabele om in HBA element test de RF meting over te slaan.
#
if (count > 10 and isodd(RCUNr)): #Als er meer dan 10 fouten in zitten, keur dan hele tile af!
print(('Tile %s - RCU %s; Broken. No modem communication' % (TileNr,RCUNr)))
# store station testlog
#if debug: print ('ModemFail = ',ModemFail)
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('HBAmdt>: Sv=%s Pr=%s, Tile %s - RCU %s; Broken. No modem communication\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], TileNr, RCUNr))
sr.setResult('FAILED')
else: #Anders keur elementen af als fout.
for ElementNumber in range(4, 20):
if (ModemReply[ElementNumber] != ModemReplyGold[ElementNumber] and isodd(RCUNr)):
print(('Tile %s - RCU %s; Element %s; Broken. No modem communication : (%s, %s)' % (TileNr, RCUNr, ElementNumber-3, ModemReply[ElementNumber], ModemReplyGold[ElementNumber])))
# store station testlog
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('HBAmdt>: Sv=%s Pr=%s, Tile %s - RCU %s; Element %s Broken. No modem communication : (%s, %s)\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], TileNr, RCUNr, ElementNumber-3, ModemReply[ElementNumber], ModemReplyGold[ElementNumber]))
sr.setResult('FAILED')
# print ('ModemFail = ',ModemFail)
return
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################################################################################
# Function HBA Noise and Spurious
#
# Failure modes to detect:
# - Large oscillations on a single tile
# - Spurious on a single tile
# - To high and to low noise levels on a single tile over wide range of subbands
# - Fluctuating noise levels on a single tile over wide range of subbands
#
# Ignore subbands:
# - Large signals on all tiles (Close-by radio transmitter)
# - Subbands outside frequencyband of 120 to 180 MHz (mode5)
#
# Detecting methods:
# - Large oscillations on one single tile
# Fail when subband is not ignored and
# when subband signal of one tile is larger then the average of all tiles by a factor of "HBAoscLim"
# - Spurious on a single tile
# Fail when subband is not ignored and
# when subband signal of one tile is larger then the average of all tiles by a factor of "HBAspurLim"
# - To high and to low noise levels on a single tile over wide range of subbands
# Fail when subband is not ignored and
# when the average levels of a range of subbands is higher or lower than the average levels of a range of the subbands of all tiles by a factor of "HBAnoiseLim"
# - Fluctuating noise levels on a single tile over wide range of subbands
# Fail when subband is not ignored and
# when maximun subband value minus the minimum subband value of the multiple captures differ by a factor of "HBAfluctLim"
#
# Determine subband average of multiple captures
# Ignore when subband is ignored and
# when the subband of all captures is larger then "HBAnominal * IgnoreHBAsubbHiLim" or
# when the subband of all captures is smaller then "HBAnominal * IgnoreHBAsubbLoLim"
#
# Signal levels
# Inband noise = 9.2 E+6
# Ouband noise = 920 E+3
# P2000 (subband 155) = 1.5 E+12
#
def HBANaStest():
SeverityOfThisTest=2
PriorityOfThisTest=2
global Severity
global Priority
# Limmits:
HBAoscLim = 10000 # To determine high signal levels due to oscillation
HBAspurLim = 3 # To determine increased signal levels due to Summator spurious
HBAnoiseLim = 3 # To determine to high or to low noise levels du to bad connectivity or defect elements
IgnoreHBAsubbHiLim = 10 # Ignore subbands that have a signal level of "HBAnominal" * this factor higher than this factor on all tiles (to determine average)
IgnoreHBAsubbLoLim = 0.2 # Ignore subbands that have a signal level of this factor lower than this factor on all tiles (to determine average)
HBAnominal = 9200000 # Nominal value of subband 150
HBANaSdata = [] # 2D array with captured lineair data of all HBA tiles
HBANaSarray = [] # 3D array with multiple captures of lineair data of all HBA tiles
CaptureIterations = 1 # How many times the HBA spectrum will be captured!
SubbStart = 98 # Ignore subbands below
SubbStop = 420 # Ignore subbands above
# SubbStart = 0
# SubbStop = 512
ctrlword = 253
Ignore = 1
HBANaSfile=('/opt/stationtest/data/HBANaS.csv')
NaS_log = file(HBANaSfile, 'w')
if StID in NoHBANaStestPossible:
print ('No HBA elementtest Possible!!!')
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('HBAmd5>: Sv=%s Pr=%s, No HBA elementtest Possible!!!\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest]))
else:
debug=0
print ('HBA Noise Spurious and Oscillation check')
sr.setId('HBAosc>: ')
subband_nr=155
if StationType == International: subband_nr = HBASubband[StID]
if debug: print((' subband_nr of %s = %d %d' % (StID,subband_nr,HBASubband[StID])))
sub_time=[]
sub_file=[]
dir_name = '/opt/stationtest/test/hbatest/hbadatatest/' #Work directory will be cleaned
if not(os.path.exists(dir_name)):
os.mkdir(dir_name)
rmfile = '*.log'
hba_elements=16
sleeptime=10
ctrl_string='='
print(' Dir name is ' + dir_name)
os.chdir(dir_name)
if len(sys.argv) < 3 :
if StationType == International:
num_rcu=192
else:
num_rcu=96
else :
num_rcu = int(sys.argv[2])
print(' Number of RCUs is ' + str(num_rcu))
## initialize data arrays
ref_data=list(range(0, num_rcu))
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# Determine Subbands to be ignored: manualy part!
IgnoreHBA = [0 for i in range(512)] # 1 = ignore subband...
for i in range(0,SubbStart): IgnoreHBA[i]=1
for i in range(SubbStop,512): IgnoreHBA[i]=1
#print ('IgnoreHBA: %s' % (IgnoreHBA))
##os.popen("rspctl --clock=200")
##print 'Clock is set to 200 MHz'
##time.sleep(10)
##---------------------------------------------
## capture reference data (all HBA elements off)
switchon_hba()
##os.popen("rspctl --rcumode=5 2>/dev/null")
##os.popen("rspctl --rcuenable=1 2>/dev/null")
time.sleep(2)
## To simulate a defect antenna:
#if debug==2:
#os.popen3("rspctl --rcu=0x10037880 --sel=50:53")
#time.sleep(1)
for ind in range(hba_elements) :
ctrl_string=ctrl_string + '253,'
strlength=len(ctrl_string)
ctrl_string=ctrl_string[0:strlength-1]
print(('rspctl --hbadelay' + ctrl_string + ' 2>/dev/null'))
cmd_str='rspctl --hbadelay' + ctrl_string + ' 2>/dev/null'
os.popen(cmd_str)
time.sleep(sleeptime)
#res = os.popen3('rspctl --rcumode=0 --sel=52:53,66:67')[1].readlines() # for test
#time.sleep(sleeptime)
#time.sleep(sleeptime)
# T E S T ! ! !
# print('rspctl --hbadelay=253,2,2,2,2,2,2,2,2,2,2,2,2,2,2,2 2>/dev/null')
# cmd_str=('rspctl --hbadelay=253,2,2,2,2,2,2,2,2,2,2,2,2,2,2,2 2>/dev/null')
# os.popen(cmd_str)
# res = os.popen3('rspctl --rcumode=0 --sel=10,11,94,95')[1].readlines()
# time.sleep(sleeptime)
# Capture HBA data
for i in range(0,CaptureIterations):
rm_files(dir_name,'*')
HBANaSdata = [[0 for j in range(512)] for k in range(num_rcu)]
print(('Capture HBA data nr %s of %s' % (i+1,CaptureIterations)))
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rec_stat(dir_name,num_rcu)
#rm_files(dir_name,rmfile)
# get list of all files in dir_name
files = open_dir(dir_name)
print (files)
# start processing the measurement
for file_cnt in range(len(files)) :
f, frames_to_process, rcu_nr = open_file(files, file_cnt)
if frames_to_process > 0 :
sst_data = read_frame(f)
#print ('Number or RCUs processed: ' + str(rcu_nr))
#sst_subband = sst_data[subband_nr]
#ref_data[rcu_nr] = sst_subband
#HBANaSdata.append(sst_data)
for subnr in range(0, 512): HBANaSdata[rcu_nr][subnr] = sst_data[subnr]
f.close
#print('file_cnt = %s' % len(files))
#print('HBANaSdata = %s' % HBANaSdata)
#print('From RCU %s subband nr %s = %s' % (0,155,HBANeSdata[0][155]))
#print('From RCU %s subband nr %s = %s' % (0,150,HBANeSdata[0][150]))
HBANaSarray.append(HBANaSdata)
print(('Capture %s from RCU %s subband nr %s = %s' % (0,0,155,HBANaSarray[0][0][155])))
print(('Capture %s from RCU %s subband nr %s = %s' % (0,54,155,HBANaSarray[0][54][155])))
print(('Capture %s from RCU %s subband nr %s = %s' % (0,94,154,HBANaSarray[0][94][154])))
print(('Capture %s from RCU %s subband nr %s = %s' % (0,66,155,HBANaSarray[0][66][155])))
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##---------------------------------------------
## compute hba data for all tiles
#noRCU = 96
#noEll = 16
#HBAlist = [[0 for i in range(noEll)] for j in range(noRCU)] # Array (list) with HBA antenna elements. 0=OK 1=defect
# calculate average of multiple captures of all RCU's
# Determine subband average of multiple captures
# Ignore when subband is ignored and
# when the subband of all captures is larger then "HBAnominal * IgnoreHBAsubbHiLim" or
# when the subband of all captures is smaller then "HBAnominal * IgnoreHBAsubbLoLim"
HBAaverageSubb = [0 for i in range(512)]
HBAfail = [0 for i in range(num_rcu)]
HBAfact = [0 for i in range(num_rcu)]
HBAoscFactor = [0 for i in range(512)] # Subband with highest signal value = factor
HBAoscRCU = [0 for i in range(512)] # RCU with highest signal
for Subnr in range(0,512):
CountIgnore = 0
NaS_log.write('SubbNr %s;' % (Subnr))
# Ignore when the subband of all captures is larger then "HBAnominal * IgnoreHBAsubbHiLim"
for RCUnr in range(0,num_rcu):
# Get the average of the subband signals over multiple captures
SubbValue = 0
for Capt in range(0,CaptureIterations):
SubbValue = SubbValue + HBANaSarray[Capt][RCUnr][Subnr]
SubbValue = SubbValue // CaptureIterations
NaS_log.write('%s;' % (SubbValue))
if (SubbValue > (HBAnominal * IgnoreHBAsubbHiLim)): CountIgnore+=1 # Count to High
elif (SubbValue < (HBAnominal * IgnoreHBAsubbLoLim)): CountIgnore+=1 # Count to Low
else:HBAaverageSubb[Subnr] = HBAaverageSubb[Subnr] + SubbValue
if CountIgnore > (num_rcu // 2): IgnoreHBA[Subnr]=1 # Ignore subband when the subband signal of more than half of the RCU's is to high
if (num_rcu-CountIgnore) != 0: HBAaverageSubb[Subnr] = (HBAaverageSubb[Subnr] / (num_rcu-CountIgnore))
else: HBAaverageSubb[Subnr] = HBAnominal
NaS_log.write(';\n')
#if IgnoreHBA[RCUnr] == 1: print ('RCUnr %s Subnr %s = %s' % (RCUnr,Subnr,HBAaverageSubb[Subnr]))
#print(HBAaverageSubb)
#print('HBAaverageSubb[] = %s' % HBAaverageSubb)
#for i in range(512):
#if IgnoreHBA[i] == Ignore:
#print('IgnoreHBA[%s] = %s HBAaverageSubb = %s' % (i,IgnoreHBA[i],HBAaverageSubb[i]))
for i in range(CaptureIterations):
print(('Capture %s from RCU %s subband nr %s = %s' % (i,0,150,HBANaSarray[i][0][150])))
print(('The average of all captures of All RCUs of subband nr %s = %s' % (150,HBAaverageSubb[150])))
print(('Capture %s from RCU %s subband nr %s = %s' % (0,66,338,HBANaSarray[0][66][338])))
# - Large oscillations on one single tile
# Fail when subband is not ignored and
# when subband signal of one tile is larger then the average of all tiles by a factor of "HBAoscLim"
# for test:
#IgnoreHBA[155] = 0
#HBAaverageSubb[155] = HBAnominal
for RCUnr in range(0,num_rcu):
for Subnr in range(0,512):
if IgnoreHBA[Subnr] != Ignore: # Ignore when the subband of all captures is larger then "HBAnominal * IgnoreHBAsubbHiLim"
# Get the average of the subband signals over multiple captures and test if to high
SubbValue = 0
for Capt in range(0,CaptureIterations):
SubbValue = SubbValue + HBANaSarray[Capt][RCUnr][Subnr]
SubbValue = SubbValue // CaptureIterations
if (SubbValue // HBAnominal) > (HBAoscFactor[Subnr]): # Remember highest osc factor
HBAoscFactor[Subnr] = round(SubbValue // HBAnominal)
HBAoscRCU[Subnr]=RCUnr # Remember RCU number with highest osc factor
#if (SubbValue > (HBAaverageSubb[Subnr] * HBAoscLim)): # Detect oscillations
#if (SubbValue > (HBAnominal * HBAoscLim)): # Detect oscillations
# HBAfail[RCUnr] = 1
#if (SubbValue // HBAaverageSubb[Subnr]) > (HBAoscFactor[RCUnr]): # Remember highest osc factor
# HBAoscFactor[RCUnr] = round(SubbValue // HBAaverageSubb[Subnr])
# if (SubbValue // HBAnominal) > (HBAoscFactor[RCUnr]): # Remember highest osc factor
# HBAoscFactor[RCUnr] = round(SubbValue // HBAnominal)
for Subnr in range(0,512):
#for RCUnr in range(0,num_rcu):
if (HBAoscFactor[Subnr] > HBAoscLim):
HBAfail[HBAoscRCU[Subnr]] = 1
HBAfact[HBAoscRCU[Subnr]] = HBAoscFactor[Subnr]
#for Subnr in range(0,512): print('Osc factors Subnr %s = %s, of RCU %s (Fail=%s)' % (Subnr,HBAoscFactor[Subnr],HBAoscRCU[Subnr],HBAfail[HBAoscRCU[Subnr]]))
# Save in log file
for RCUnr in range(0,num_rcu):
if HBAfail[RCUnr] == 1:
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('HBAosc>: Sv=%s Pr=%s, Tile %s - RCU %s; Large oscillation (Factor = %s, CtrlWord = %s)\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], str(RCUnr // 2), RCUnr, str(HBAfact[RCUnr]), ctrlword))
sr.setResult('FAILED')
print(('HBAosc>: Sv=%s Pr=%s, Tile %s - RCU %s; Large oscillation (Factor = %s, CtrlWord = %s)\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], str(66 // 2), 66, str(HBAfact[66]), ctrlword)))
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# for k in range(0,512):
# for j in range(0,num_rcu):
# NaS_log.write('%s;' % (k,j+1))
# try:
# for i in range(0,100): hist_log.write('%s;' % (HBAlists[i][k][j]))
# except:
# hist_log.write('\n')
NaS_log.close
##---------------------------------------------
## capture hba element data for all elements
#for temp_ctrl in ctrl_word:
#print 'Capture data for control word: ' + str(temp_ctrl)
## init log file
#filename='/opt/stationtest/test/hbatest/HBA_elements_' + str(temp_ctrl)
#f_log = file(filename, 'w')
#writestring=' ************ \n \n LOG File for HBA element test (used ctrl word for active element:' + str(temp_ctrl) +' \n \n *************** \n \n'
#f_log.write(writestring)
#filename='/opt/stationtest/test/hbatest/HBA_factors_' + str(temp_ctrl)
#f_logfac = file(filename, 'w')
#for element in range(hba_elements) :
#meet_data=capture_data(dir_name,num_rcu,hba_elements,temp_ctrl,sleeptime,subband_nr,element)
##Find the factor
#data_tmp=10*numpy.log10(meet_data)
#data_tmp=numpy.sort(data_tmp)
#median=data_tmp[len(data_tmp)/2]
#factor=median/2
#print 'Processing element ' + str(element) + ' using a limit of ' + str(round(factor,1)) + ' dB'
##Write results to file
#for rcuind in range(num_rcu) :
#f_logfac.write(str(element+1) + ' ' + str(rcuind) + ' ' + str(round(meet_data[rcuind]/ref_data[rcuind])) + '\n')
#if meet_data[rcuind] < factor*ref_data[rcuind] :
#if rcuind == 0 :
#tilenumb=0
#else:
#tilenumb=rcuind // 2
#f_log.write('Element ' + str(element+1) + ', Tile ' + str(tilenumb) + ' in RCU: ' + str(rcuind)+ ' factor: ' + str(round(meet_data[rcuind]/ref_data[rcuind])) + '\n')
## store station testlog
#if ModemFail[tilenumb] != 1:
#if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
#if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
#st_log.write('HBAmd5>: Sv=%s Pr=%s, Tile %s - RCU %s; Element %s Broken. RF-signal to low : (Factor = %s, CtrlWord = %s)\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], str(tilenumb), rcuind, str(element+1), str(round(meet_data[rcuind]/ref_data[rcuind])), temp_ctrl))
#sr.setResult('FAILED')
#f_log.close
#f_logfac.close
return
################################################################################
# Function HBA test
#
# functions belonging to HBA test:
def capture_data(dir_name,num_rcu,hba_elements,ctrl_word,sleeptime,subband_nr,element):
meet_data=list(range(0, num_rcu))
rm_files(dir_name,'*')
ctrl_string='='
for ind in range(hba_elements) :
if ind == element:
ctrl_string=ctrl_string + '128,'
else:
ctrl_string=ctrl_string + '2,'
strlength=len(ctrl_string)
ctrl_string=ctrl_string[0:strlength-1]
cmd_str='rspctl --hbadelay' + ctrl_string + ' 2>/dev/null'
os.popen(cmd_str)
time.sleep(sleeptime)
print('Capture HBA element ' + str(element+1) + ' data')
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rec_stat(dir_name,num_rcu)
# get list of all files in dir_name
files = open_dir(dir_name)
# start processing the element measurements
for file_cnt in range(len(files)) :
f, frames_to_process, rcu_nr = open_file(files, file_cnt)
if frames_to_process > 0 :
sst_data = read_frame(f)
sst_subband = sst_data[subband_nr]
meet_data[rcu_nr] = sst_subband
f.close
return meet_data
def switchon_hba() :
try:
os.popen3("rspctl --rcumode=5 --sel=0:31")
time.sleep(1)
os.popen3("rspctl --rcumode=5 --sel=32:63")
time.sleep(1)
os.popen3("rspctl --rcumode=5 --sel=64:95")
time.sleep(1)
os.popen3("rspctl --rcumode=5 --sel=96:127")
time.sleep(1)
os.popen3("rspctl --rcumode=5 --sel=128:159")
time.sleep(1)
os.popen3("rspctl --rcumode=5 --sel=160:191")
time.sleep(1)
except:
print("This is a NL station")
os.popen("rspctl --rcuenable=1")
return
# HBA test
def HBAtest():
SeverityOfThisTest=2
PriorityOfThisTest=2
global Severity
global Priority
if StID in NoHBAelementtestPossible:
print ('No HBA elementtest Possible!!!')
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('HBAmd5>: Sv=%s Pr=%s, No HBA elementtest Possible!!!\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest]))
else:
debug=0
print ('HBA element test')
sr.setId('HBAmd5>: ')
subband_nr=155
if StationType == International: subband_nr = HBASubband[StID]
if debug: print((' subband_nr of %s = %d %d' % (StID,subband_nr,HBASubband[StID])))
sub_time=[]
sub_file=[]
dir_name = '/opt/stationtest/test/hbatest/hbadatatest/' #Work directory will be cleaned
if not(os.path.exists(dir_name)):
os.mkdir(dir_name)
rmfile = '*.log'
hba_elements=16
sleeptime=10
ctrl_word=[128,253]
ctrl_string='='
# read in arguments
# if len(sys.argv) < 2 :
# subband_nr=155
# else :
# subband_nr = int(sys.argv[1])
print(' Dir name is ' + dir_name)
if len(sys.argv) < 3 :
if StationType == International:
num_rcu=192
else:
num_rcu=96
else :
num_rcu = int(sys.argv[2])
print(' Number of RCUs is ' + str(num_rcu))
#print ' Number of the used Subband is ' + str(subband_nr)
print((' Number of the used Subband of %s is = %d' % (StID,subband_nr)))
# initialize data arrays
ref_data=list(range(0, num_rcu))
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os.chdir(dir_name)
#os.popen("rspctl --clock=200")
#print 'Clock is set to 200 MHz'
#time.sleep(10)
#---------------------------------------------
# capture reference data (all HBA elements off)
rm_files(dir_name,'*')
switchon_hba()
#os.popen("rspctl --rcumode=5 2>/dev/null")
#os.popen("rspctl --rcuenable=1 2>/dev/null")
time.sleep(2)
# To simulate a defect antenna:
if debug==2:
os.popen3("rspctl --rcu=0x10037880 --sel=50:53")
time.sleep(1)
for ind in range(hba_elements) :
ctrl_string=ctrl_string + '2,'
strlength=len(ctrl_string)
ctrl_string=ctrl_string[0:strlength-1]
cmd_str='rspctl --hbadelay' + ctrl_string + ' 2>/dev/null'
os.popen(cmd_str)
time.sleep(sleeptime)
print('Capture reference data')
rec_stat(dir_name,num_rcu)
#rm_files(dir_name,rmfile)
# get list of all files in dir_name
files = open_dir(dir_name)
# start processing the reference measurement
for file_cnt in range(len(files)) :
f, frames_to_process, rcu_nr = open_file(files, file_cnt)
if frames_to_process > 0 :
sst_data = read_frame(f)
sst_subband = sst_data[subband_nr]
ref_data[rcu_nr] = sst_subband
#if rcu_nr==0:
# print ' waarde is ' + str(sst_subband)
f.close
#---------------------------------------------
# capture hba element data for all elements
for temp_ctrl in ctrl_word:
print('Capture data for control word: ' + str(temp_ctrl))
# init log file
filename='/opt/stationtest/test/hbatest/HBA_elements_' + str(temp_ctrl)
f_log = file(filename, 'w')
writestring=' ************ \n \n LOG File for HBA element test (used ctrl word for active element:' + str(temp_ctrl) +' \n \n *************** \n \n'
f_log.write(writestring)
filename='/opt/stationtest/test/hbatest/HBA_factors_' + str(temp_ctrl)
f_logfac = file(filename, 'w')
for element in range(hba_elements) :
meet_data=capture_data(dir_name,num_rcu,hba_elements,temp_ctrl,sleeptime,subband_nr,element)
#Find the factor
data_tmp=10*numpy.log10(meet_data)
data_tmp=numpy.sort(data_tmp)
median=data_tmp[len(data_tmp)/2]
factor=median/2
print('Processing element ' + str(element) + ' using a limit of ' + str(round(factor,1)) + ' dB')
#Write results to file
for rcuind in range(num_rcu) :
#print ('ref_data = %d rcuind = %d' % (ref_data[rcuind],rcuind))
if ref_data[rcuind] != 0: f_logfac.write(str(element+1) + ' ' + str(rcuind) + ' ' + str(round(meet_data[rcuind]/ref_data[rcuind])) + '\n')
if meet_data[rcuind] < factor*ref_data[rcuind] :
if rcuind == 0 :
tilenumb=0
else:
tilenumb=rcuind // 2
f_log.write('Element ' + str(element+1) + ', Tile ' + str(tilenumb) + ' in RCU: ' + str(rcuind)+ ' factor: ' + str(round(meet_data[rcuind]/ref_data[rcuind])) + '\n')
# store station testlog
if ModemFail[tilenumb] != 1:
if Severity<SeverityOfThisTest: Severity=SeverityOfThisTest
if Priority<PriorityOfThisTest: Priority=PriorityOfThisTest
st_log.write('HBAmd5>: Sv=%s Pr=%s, Tile %s - RCU %s; Element %s Broken. RF-signal to low : (Factor = %s, CtrlWord = %s)\n' % (SeverityLevel[SeverityOfThisTest], PriorityLevel[PriorityOfThisTest], str(tilenumb), rcuind, str(element+1), str(round(meet_data[rcuind]/ref_data[rcuind])), temp_ctrl))
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