def testBody(self):
name = "wte_count"
reg = i.igloo[name]["register"]
size = i.igloo[name]["size"] / 8
print '----------%s----------' % name
resultArr = []
diffGoodVal = True
for n in xrange(20):
resultArr.append(
helpers.getValue(
i.intListToString(
i.readFromRegister_Quiet(self.bus, i.iglooAdd, reg,
size))))
diff = 0
if n != 0:
diff = resultArr[n] - resultArr[n - 1]
if diff < 0: diff += 2**32
if diff > 39000 and diff < 36000: # approx 37kHz
diffGoodVal = False
print diff
time.sleep(1)
if (diffGoodVal):
print '~~ Pass: WTE Counter 37kHz ~~'
return True
else:
print '~~ Fail: Counter NOT 37kHz ~~'
return False
def testBody(self):
name = "wte_count"
reg = i.igloo[name]["register"]
size = i.igloo[name]["size"] / 8
sleepFactor = 0.25
print '----------%s----------' %name
resultArr=[]
diffGoodVal = True
for n in xrange(2):
resultArr.append(t.getValue(i.intListToString(i.readFromRegister_Quiet(self.bus, i.iglooAdd, reg, size))))
diff = 0
if n != 0:
diff = resultArr[n] - resultArr[n-1]
if diff < 0: diff += 2**32
rate = (float(diff)/(sleepFactor))
if rate > 59000 or rate < 15000: # approx 37kHz
diffGoodVal = False
print rate
time.sleep(1*sleepFactor)
if (diffGoodVal):
print '~~ Pass: WTE Counter 37kHz ~~'
return True
else:
print '~~ Fail: Counter NOT 37kHz ~~'
return False
def toggleIgloo(self):
iglooControl = 0x22
message = self.readBridge(iglooControl, 4)
value = t.getValue(message)
value = value ^ 0x400 # toggle igloo power!
messageList = t.getMessageList(value, 4)
self.writeBridge(iglooControl, messageList)
return self.readBridge(iglooControl, 4)
def toggleIgloo(self):
iglooControl = 0x22
message = self.readBridge(iglooControl,4)
value = t.getValue(message)
value = value ^ 0x400 # toggle igloo power!
messageList = t.getMessageList(value,4)
self.writeBridge(iglooControl,messageList)
return self.readBridge(iglooControl,4)
def testBody(self): # Check for zeros for all oribts but [71:48] (bin 3 of 7) # This nonzero bin is address 0x1D zeroOrbitRegisters = [0x19,0x1A,0x1B,0x1C,0x1E,0x1F] for orbitReg in zeroOrbitRegisters: self.bus.write(self.address, [orbitReg]) self.bus.read(self.address, 3) raw_data = self.bus.sendBatch()[-1] cooked_data = h.reverseBytes(raw_data) cooked_data = h.getValue(cooked_data) if (cooked_data != 0): print 'Nonzero orbit error!' return False return True
def testBody(self): # Check for zeros for all oribts but [71:48] (bin 3 of 7) # This nonzero bin is address 0x1D zeroOrbitRegisters = [0x19,0x1A,0x1B,0x1C,0x1E,0x1F] for orbitReg in zeroOrbitRegisters: self.bus.write(self.address, [orbitReg]) self.bus.read(self.address, 3) raw_data = self.bus.sendBatch()[-1] cooked_data = h.reverseBytes(raw_data) cooked_data = h.getValue(cooked_data) if (cooked_data != 0): print 'Nonzero orbit error!' return False return True
def control_reg_orbit_histo(bus,slot,delay):
bus.write(slot,[0x18,2,0,0,0])
bus.sendBatch()
bus.write(slot,[0x18,1,0,0,0])
bus.sendBatch()
time.sleep(delay)
bus.write(slot,[0x18,0,0,0,0])
bus.sendBatch()
# runBridgeTests([rm],t.getSlotList(rm,slot),range(16,24),0)
bus.write(slot,[0x1D])
bus.read(slot,3)
message = bus.sendBatch()
message = message[-1][2:]
message = t.reverseBytes(message)
value = t.getValue(message)
return value
def control_reg_orbit_histo(bus, slot, delay):
bus.write(slot, [0x18, 2, 0, 0, 0])
bus.sendBatch()
bus.write(slot, [0x18, 1, 0, 0, 0])
bus.sendBatch()
time.sleep(delay)
bus.write(slot, [0x18, 0, 0, 0, 0])
bus.sendBatch()
# runBridgeTests([rm],t.getSlotList(rm,slot),range(16,24),0)
bus.write(slot, [0x1D])
bus.read(slot, 3)
message = bus.sendBatch()
message = message[-1][2:]
message = t.reverseBytes(message)
value = t.getValue(message)
return value
def testBody(self): sleepFactor = 0.25 resultArr = [] numBytes = 4 isGoodVal = True rate = 0 for n in xrange(2): # Get data from chip, and then process it self.bus.write(self.address, [0x14]) self.bus.read(self.address, numBytes) ret = [] for i in self.bus.sendBatch()[-1].split(): ret.append(int(i)) ret.reverse() if (ret[-1] != 0 ): print "I2C Error in WTE_Counter!" return False del ret[-1] # End I2C and data processing part resultArr.append(h.getValue(self.intListToString(ret))) if (n != 0): diff = resultArr[n] - resultArr[n-1] if diff < 0: diff += 2**32 rate = (float(diff)/(sleepFactor)) if rate > 23000 or rate < 8000: isGoodVal = False time.sleep(1*sleepFactor) if(isGoodVal): # Note we want NOT EQUAL TO print "WTE_Counter rate in acceptable range!" return True else: print "WTE_Counter FAILED. Rate either above 27 kHz or below 8 kHz" print "Failing rate is: " + str(rate) + " Hz" return False
def testBody(self):
name = "wte_count"
reg = i.igloo[name]["register"]
size = i.igloo[name]["size"] / 8
print '----------%s----------' %name
resultArr=[]
diffGoodVal = True
for n in xrange(20):
resultArr.append(helpers.getValue(i.intListToString(i.readFromRegister_Quiet(self.bus, i.iglooAdd, reg, size))))
diff = 0
if n != 0:
diff = resultArr[n] - resultArr[n-1]
if diff < 0: diff += 2**32
if diff > 39000 and diff < 36000: # approx 37kHz
diffGoodVal = False
print diff
time.sleep(1)
if (diffGoodVal):
print '~~ Pass: WTE Counter 37kHz ~~'
return True
else:
print '~~ Fail: Counter NOT 37kHz ~~'
return False
def testBody(self): sleepFactor = 0.25 resultArr = [] numBytes = 4 isGoodVal = True rate = 0 for n in xrange(2): # Get data from chip, and then process it self.bus.write(self.address, [0x12]) self.bus.read(self.address, numBytes) ret = [] for i in self.bus.sendBatch()[-1].split(): ret.append(int(i)) ret.reverse() if (ret[-1] != 0 ): print "I2C Error in RES_QIE_Counter!" return False del ret[-1] # End I2C and data processing part resultArr.append(h.getValue(self.intListToString(ret))) if (n != 0): diff = resultArr[n] - resultArr[n-1] if (abs(diff) > 3650): isGoodVal = False time.sleep(1*sleepFactor) if(isGoodVal): print "Clock_Counter rate in acceptable range!" return True else: print "Clock_Counter FAILED!" print "Failing Clock_Counter diff: " + str(diff) return False