l = sorted(l)

c = []

start = -1

end = -1

for i in range(len(l)):

if start == -1:

start = l[i]

if i == len(l)-1 or l[i]+1 != l[i+1]:

c.append( (start, end) )

start = -1

end = -1

else:

end = l[i+1]

s = ''

last = len(c)-1

for i, (start, end) in enumerate(c):

if end == -1:

s += '%d' % start

else:

s += '%d-%d' % ( start, end )

if i != last:

s += ','

now = time.time() # seconds since 1970

up = []

down = []

for host in all.keys():

if now - all[host]['reported'] < timeout:

up.append(host)

else:

down.append(host)

g = gangliaStats( reportTimeOnly=1 )

all = g.getAll()

up, down = findUpDown(all, deadTimeout)

up.sort()

# delete hosts with unreliable bmc's

for u in unreliable:

if u in up:

up.remove(u)

# sort up hosts into groups with the same prefix

uplist = {}

uplist[singles] = []

for u in up:

# split into prefix (eg. 'x') and suffix (eg. 99)

p = u.rstrip( string.digits )

s = u[len(p):]

#print u, s

if len(s):

if s not in unreliable:

if p not in uplist.keys():

uplist[p] = []

uplist[p].append(int(s))

else:

if p not in unreliable:

uplist[singles].append(p)

#print 'uplist', uplist

# find the minimal lists of ipmi sequences

ipmi = []

for p, l in uplist.items():

if p != singles:

c = compressList(l)

if ',' in c or '-' in c:

c = '[' + c + ']'

ipmi.append( p + c + manSuffix )

else:

for i in l:

ipmi.append( i + manSuffix )

# concatenate

ipmiHosts = ''

for i in ipmi:

ipmiHosts += i + ','

ipmiHosts = ipmiHosts[:-1]

#print 'ipmiHosts', ipmiHosts

# run ipmi-sensors

s = 'ipmi-sensors --session-timeout=40000 -h \'' + ipmiHosts + '\' -u ' + user + ' -p \'' + passwd + '\' ' + cmd

p = subprocess.Popen( s, shell=True, bufsize=-1, stdout=subprocess.PIPE, stderr=subprocess.PIPE )

# set a watchdog alarm as ipmi sometimes hangs

alarmSet(killTime)

try:

out, err = p.communicate()

except IOError:

os.kill(p.pid, 15)

p.wait()

alarmClear()

if p.returncode < 0:

sys.stderr.write( 'ipmiLanGmetric: Error: ipmi-sensors: failed or was killed. return code %d\n' % p.returncode )

return None

r = out.split('\n')

# write any errs to stderr

if len(err):

# can get responses that look like ->

# cmm25: ipmi_cmd_get_sensor_reading: bad completion code: request data/parameter invalid

# cmm63: ipmi_cmd_get_sensor_reading: bad completion code: request data/parameter invalid

# filter these out as they are usually missing/misbehaving blade power's

# that we don't want or use anyway.

# besides, any missing data that we really want will show up as errors

# in postProcess checks.

for e in err.split('\n'):

if e == '' or 'ipmi_cmd_get_sensor_reading: bad completion code: request data/parameter invalid' in e:

continue

sys.stderr.write( 'ipmiLanGmetric: Error: ipmi-sensors: ' + str(e) + '\n' )

try:

ip = ipCache[host]

except:

#print 'host', host, 'not in ipCache'

try:

ip = socket.gethostbyname(host)

ipCache[host] = ip

except:

ip = None

# parse temps and generate gmetric commands, and a dict of responses

c = []

d = {}

post = {}

for l in r:

if not len(l): # last line can be '', so skip it

continue

l = l.split()

# xe210

# xemdsbmc: 11: Serverboard Tem (Temperature): 25.00 C (5.00/66.00): [OK]

# xemdsbmc: 12: Ctrl Panel Temp (Temperature): 19.00 C (0.00/48.00): [OK]

# xemdsbmc: 23: P1 Therm Margin (Temperature): -54.00 C (NA/NA): [OK]

# xemdsbmc: 24: P2 Therm Margin (Temperature): -61.00 C (NA/NA): [OK]

# xemdsbmc: 25: P1 Therm Ctrl % (Temperature): 0.00 unspecified (NA/49.53): [OK]

# xemdsbmc: 26: P2 Therm Ctrl % (Temperature): 0.00 unspecified (NA/49.53): [OK]

# xemdsbmc: 59: CPU1 VRD Temp (Temperature): [OK]

# xemdsbmc: 60: CPU2 VRD Temp (Temperature): [OK]

# xemdsbmc: 111: HSBP Temp (Temperature): NA(NA/NA): [Unknown]

# supermicro

# x22bmc: 4: CPU Temp 1 (Temperature): 31.00 C (NA/78.00): [OK]

# x22bmc: 5: CPU Temp 2 (Temperature): 35.00 C (NA/78.00): [OK]

# x22bmc: 6: CPU Temp 3 (Temperature): 0.00 C (NA/78.00): [OK]

# x22bmc: 7: CPU Temp 4 (Temperature): 0.00 C (NA/78.00): [OK]

# x23bmc: 8: Sys Temp (Temperature): 27.00 C (NA/78.00): [OK]

# sun c48 ilom

# v185ilom: 20: MB/T_AMB_FRONT (Temperature): 27.00 C (-5.00/55.00): [OK]

# v185ilom: 21: MB/T_AMB_REAR (Temperature): 40.00 C (-5.00/55.00): [OK]

# sun x4170/x4270/x4275 ilom

# vu-man1ilom: 23: /MB/T_AMB (Temperature): 35.00 C (-5.00/55.00): [OK]

# vu-man1ilom: 66: T_AMB (Temperature): 30.00 C (NA/45.00): [OK]

# # ipmi-sensors -D lan -h 'cmm[1,2]' -u ... -p ... -W endianseq -g Fan -g Power_Unit | grep cmm1

# cmm1: 10752: fm0.f0.speed (Fan): 4100.00 RPM (NA/NA): [OK]

# cmm1: 11008: fm0.f1.speed (Fan): 4200.00 RPM (NA/NA): [OK]

# ...

# cmm1: 49664: PS0/IN_POWER (Power Unit): 3750.00 W (NA/NA): [OK]

# cmm1: 49920: PS0/OUT_POWER (Power Unit): 3360.00 W (NA/NA): [OK]

# cmm1: 50176: PS1/IN_POWER (Power Unit): 3700.00 W (NA/NA): [OK]

# cmm1: 50432: PS1/OUT_POWER (Power Unit): 3296.00 W (NA/NA): [OK]

#

# where

# PS0/IN_POWER and ps0.ac_watts are about the same

# PS1/OUT_POWER and ps1.dc_watts "" "" , but PS0/OUT_POWER != ps0.dc_watts :-/

# /CH/VPS and ch.ac_watts "" ""

# ps0.ac_watts+ps1.ac_watts (7500) ~= ch.ac_watts (7474)

# as the ILOM advertises the upper case versions, I'll use them ie.

# PS0/1 IN_POWER and OUT_POWER

#

# 18176: ps0.t_amb (Temperature): 29.00 C (NA/NA): [OK]

# 23040: ps0.t_amb_fault (Temperature): [Predictive Failure deasserted]

# 24832: ps0.t_amb_warn (Temperature): [Predictive Failure deasserted]

# 25856: ps1.t_amb (Temperature): 27.00 C (NA/NA): [OK]

# newer ipmi-sensors 1.16 ->

# cmm51: 2 | CMM/T_AMB | Temperature | 45.00 | C | 'OK'

# cmm51: 3 | T_AMB | Temperature | 29.00 | C | 'OK'

# cmm51: 68 | FM0/F0/TACH | Fan | 3700.00 | RPM | 'OK'

# cmm51: 69 | FM0/F1/TACH | Fan | 3800.00 | RPM | 'OK'

# cmm51: 85 | PS0/IN_POWER | Power Unit | 3550.00 | W | 'OK'

# cmm51: 86 | PS0/OUT_POWER | Power Unit | 3150.00 | W | 'OK'

# cmm51: 88 | PS1/IN_POWER | Power Unit | 3500.00 | W | 'OK'

# cmm51: 89 | PS1/OUT_POWER | Power Unit | 3100.00 | W | 'OK'

# cmm51: 90 | PS0/T_AMB | Temperature | 29.00 | C | 'OK'

# cmm51: 98 | PS0/FAN0/TACH | Fan | 12300.00 | RPM | 'OK'

# cmm51: 99 | PS0/FAN1/TACH | Fan | 12420.00 | RPM | 'OK'

# cmm51: 100 | PS0/FAN2/TACH | Fan | 12240.00 | RPM | 'OK'

# cmm51: 101 | PS0/FAN3/TACH | Fan | 12120.00 | RPM | 'OK'

# cmm51: 120 | PS1/T_AMB | Temperature | 30.00 | C | 'OK'

# cmm51: 128 | PS1/FAN0/TACH | Fan | 12540.00 | RPM | 'OK'

# cmm51: 129 | PS1/FAN1/TACH | Fan | 12600.00 | RPM | 'OK'

# cmm51: 150 | VPS | Power Unit | 7100.00 | W | 'OK'

# cmm51: 156 | BL5/VPS | Power Unit | 515.00 | W | 'OK'

# cmm51: 157 | BL6/VPS | Power Unit | 555.00 | W | 'OK'

# v51ilom: 22 | MB/T_AMB_FRONT | Temperature | 32.00 | C | 'OK'

# v51ilom: 23 | MB/T_AMB_REAR | Temperature | 58.00 | C | 'OK'

# v51ilom: 24 | VPS | Power Unit | 281.40 | W | 'OK'

# hamster5ilom: 24 | /MB/T_AMB | Temperature | 30.00 | C | 'OK'

# hamster5ilom: 41 | /SYS/VPS | Power Unit | 260.00 | W | 'OK'

# hamster5ilom: 52 | PS0/IN_POWER | Power Unit | 110.00 | W | 'OK'

# hamster5ilom: 53 | PS0/OUT_POWER | Power Unit | 80.00 | W | 'OK'

# hamster5ilom: 64 | PS1/IN_POWER | Power Unit | 110.00 | W | 'OK'

# hamster5ilom: 65 | PS1/OUT_POWER | Power Unit | 80.00 | W | 'OK'

# hamster5ilom: 66 | T_AMB | Temperature | 24.00 | C | 'OK'

# sw 2.6.1

# gopher4ilom: 24 | /MB/T_AMB | Temperature | N/A | C | N/A

# gopher4ilom: 41 | /SYS/VPS | Power Unit | 210.00 | W | 'OK'

# gopher4ilom: 52 | PS0/IN_POWER | Power Unit | 90.00 | W | 'OK'

# gopher4ilom: 53 | PS0/OUT_POWER | Power Unit | 70.00 | W | 'OK'

# gopher4ilom: 64 | PS1/IN_POWER | Power Unit | 120.00 | W | 'OK'

# gopher4ilom: 65 | PS1/OUT_POWER | Power Unit | 90.00 | W | 'OK'

# gopher4ilom: 66 | T_AMB | Temperature | 25.00 | C | 'OK'

# cx250

# bm4bmc: 1 | CPU0_Temp | Temperature | 84.00 | C | 'OK'

# bm4bmc: 2 | CPU1_Temp | Temperature | 75.00 | C | 'OK'

# bm4bmc: 17 | HDDBP_Ambient1 | Temperature | 34.00 | C | 'OK'

# bm4bmc: 18 | HDDBP_Ambient2 | Temperature | 28.00 | C | 'OK'

# bm4bmc: 19 | PDB_FAN1A | Fan | N/A | RPM | N/A

# bm4bmc: 20 | PDB_FAN2A | Fan | N/A | RPM | N/A

# bm4bmc: 21 | PDB_FAN3A | Fan | 9300.00 | RPM | 'OK'

# bm4bmc: 22 | PDB_FAN4A | Fan | 9300.00 | RPM | 'OK'

# bm4bmc: 32 | P0_DIMM_Temp | Temperature | 52.00 | C | 'OK'

# bm4bmc: 33 | P1_DIMM_Temp | Temperature | 48.00 | C | 'OK'

# bm4bmc: 37 | MB2_Temp | Temperature | 60.00 | C | 'OK'

# bm4bmc: 38 | MB1_Temp | Temperature | 59.00 | C | 'OK'

# bm4bmc: 48 | PDB_FAN1B | Fan | N/A | RPM | N/A

# bm4bmc: 49 | PDB_FAN2B | Fan | N/A | RPM | N/A

# bm4bmc: 50 | PDB_FAN3B | Fan | 8200.00 | RPM | 'OK'

# bm4bmc: 51 | PDB_FAN4B | Fan | 8200.00 | RPM | 'OK'

# bm4bmc: 52 | PSU_Input_Power | Current | 192.00 | W | 'OK'

# rx300

# sf1bmc: 32 | Ambient | Temperature | 28.50 | C | 'OK'

# sf1bmc: 96 | Systemboard 1 | Temperature | 30.00 | C | 'OK'

# sf1bmc: 160 | Systemboard 2 | Temperature | 36.00 | C | 'OK'

# sf1bmc: 224 | CPU1 | Temperature | 40.00 | C | 'OK'

# sf1bmc: 288 | CPU2 | Temperature | 41.00 | C | 'OK'

# sf1bmc: 352 | MEM A | Temperature | 31.00 | C | 'OK'

# ...

# sf1bmc: 800 | MEM H | Temperature | 32.00 | C | 'OK'

# sf1bmc: 864 | PSU1 Inlet | Temperature | 31.00 | C | 'OK'

# sf1bmc: 928 | PSU2 Inlet | Temperature | 30.00 | C | 'OK'

# sf1bmc: 992 | PSU1 | Temperature | 54.00 | C | 'OK'

# sf1bmc: 1056 | PSU2 | Temperature | 53.00 | C | 'OK'

# sf1bmc: 2016 | FAN1 SYS | Fan | 6300.00 | RPM | 'OK'

# sf1bmc: 2080 | FAN2 SYS | Fan | 6480.00 | RPM | 'OK'

# sf1bmc: 2144 | FAN3 SYS | Fan | 6120.00 | RPM | 'OK'

# sf1bmc: 2208 | FAN4 SYS | Fan | 6480.00 | RPM | 'OK'

# sf1bmc: 2272 | FAN5 SYS | Fan | 6480.00 | RPM | 'OK'

# sf1bmc: 2336 | FAN PSU1 | Fan | 1280.00 | RPM | 'OK'

# sf1bmc: 2400 | FAN PSU2 | Fan | 1360.00 | RPM | 'OK'

# sf1bmc: 2464 | CPU1 Power | Other Units Based Sensor | 4.00 | W | 'OK'

# sf1bmc: 2528 | CPU2 Power | Other Units Based Sensor | 6.00 | W | 'OK'

# sf1bmc: 2592 | System Power | Other Units Based Sensor | 62.00 | W | 'OK'

# sf1bmc: 2656 | HDD Power | Other Units Based Sensor | 6.00 | W | 'OK'

# sf1bmc: 2720 | PSU1 Power | Other Units Based Sensor | 60.00 | W | 'OK'

# sf1bmc: 2784 | PSU2 Power | Other Units Based Sensor | 60.00 | W | 'OK'

# sf1bmc: 2848 | Total Power | Other Units Based Sensor | 120.00 | W | 'OK'

# sf1bmc: 2912 | Total Power Out | Other Units Based Sensor | 96.00 | W | 'OK'

vOffset = 0

cmm = len(l[0]) > 3 and l[0][:3] == 'cmm'

# rx300

if l[3] == 'Total' and l[4] == 'Power' and l[5] == '|':

vField = 11

dClass = 'power'

dTag = 'node_power'

dType = 'float'

unit = 'W'

elif l[3] in ( 'CPU1', 'CPU2' ) and l[5] == 'Temperature':

vField = 7

dClass = 'temp'

dTag = 'cpu' + l[3][3] + '_temp'

dType = 'uint32'

unit = 'C'

elif l[3] == 'Systemboard': # pick one at random

vField = 8

dClass = 'temp'

dTag = 'chassis_temp'

dType = 'uint32'

unit = 'C'

elif l[3] == 'Ambient' and l[5] == 'Temperature' and l[7] != 'N/A':

vField = 7

dClass = 'temp'

dTag = 'ambient_temp'

dType = 'uint32'

unit = 'C'

elif l[3][:3] == 'FAN' and l[4] == 'SYS':

vField = 8

dClass = 'fans'

dTag = 'fan' + l[3][3] # eg. fan1-fan5

dTag = dTag.lower()

dType = 'uint32'

unit = 'RPM'

# cx250

elif l[3] in ( 'CPU0_Temp', 'CPU1_Temp' ):

vField = 7

dClass = 'temp'

dTag = 'cpu' + str(int(l[3][3])+1) + '_temp' # change 0,1 to 1,2

dType = 'uint32'

unit = 'C'

elif l[3] in ( 'MB1_Temp', 'MB2_Temp' ): # pick one at random

vField = 7

dClass = 'temp'

dTag = 'chassis_temp'

dType = 'uint32'

unit = 'C'

elif l[3] in ( 'HDDBP_Ambient1', 'HDDBP_Ambient2' ): # disk temps, pick one at random to use as ambient

vField = 7

dClass = 'temp'

dTag = 'ambient_temp'

dType = 'uint32'

unit = 'C'

elif l[3][:7] == 'PDB_FAN' and l[7] != 'N/A': # nodes see either 1a,1b,2a,2b or 3a,3b,4a,4b

vField = 7

dClass = 'fans'

dTag = 'fan' + l[3][7:] # eg. fan3a

dTag = dTag.lower()

dType = 'uint32'

unit = 'RPM'

elif l[3] == 'PSU_Input_Power':

vField = 7

dClass = 'power'

dTag = 'node_power'

dType = 'float'

unit = 'W'

elif l[3] in ( 'MB/T_AMB_FRONT', '/MB/T_AMB' ): # ilom T

vField = 7

if l[3] == '/MB/T_AMB' and l[vField] == 'N/A': # busted. skip on new lynx 2.6.1

continue

dClass = 'temp'

dTag = 'front_temp'

dType = 'uint32'

unit = 'C'

#elif l[2] == 'MB/T_AMB_REAR': # ilom T

# vField = 4

elif l[3] == 'MB/T_AMB_REAR': # ilom T

vField = 7

dClass = 'temp'

dTag = 'rear_temp'

dType = 'uint32'

unit = 'C'

# don't pickup cmm t_amb ~= ps0/1_temp by mistake

#elif l[2] == 'T_AMB' and not cmm:

# vField = 4

elif l[3] == 'T_AMB' and not cmm: # ilom T_AMB for lynx's - close to ambient?

vField = 7

dClass = 'temp'

dTag = 'ambient_temp'

dType = 'uint32'

unit = 'C'

# don't pickup cmm power by mistake

#elif l[2] in ( 'VPS', '/SYS/VPS' ) and not cmm: # ilom node power

# vField = 5

elif l[3] in ( 'VPS', '/SYS/VPS' ) and not cmm: # ilom node power

vField = 8

dClass = 'power'

dTag = 'node_power'

dType = 'float'

unit = 'W'

# limit this to cmm's as lynx's also have PS0/*

#elif cmm and l[2] in ( 'PS0/IN_POWER', 'PS1/IN_POWER', 'PS0/OUT_POWER', 'PS1/OUT_POWER' ): # cmm power

# vField = 5

# dTag = 'cmm_ps' + l[2][2] + '_' + l[2].split('_')[0][4:].lower() # eg. cmm_ps0_in, cmm_ps1_out ...

elif cmm and l[3] in ( 'PS0/IN_POWER', 'PS1/IN_POWER', 'PS0/OUT_POWER', 'PS1/OUT_POWER' ): # cmm power

vField = 8

dClass = 'power'

dTag = 'cmm_ps' + l[3][2] + '_' + l[3].split('_')[0][4:].lower() # eg. cmm_ps0_in, cmm_ps1_out ...

dType = 'uint32'

unit = 'W'

elif cmm and len(l[2]) > 2 and l[2][:2] == 'fm' and len(l[2].split('.')) == 3 and l[2].split('.')[2] == 'speed': # cmm v2 format fan speeds

vField = 4

dClass = 'fans'

dTag = l[2][:3] + '_' + l[2][4:6] # eg. fm0.f0.speed -> fm0_f0

dTag = dTag.lower() # just in case

dType = 'uint32'

unit = 'RPM'

#elif cmm and len(l[2]) > 2 and l[2][:2] == 'FM' and len(l[2].split('/')) == 3 and l[2].split('/')[2] == 'TACH': # cmm v3 format fan speeds

# vField = 4

# dTag = l[2][:3] + '_' + l[2][4:6] # eg. 61: FM3/F0/TACH (Fan): 5600.00 RPM (NA/NA): [OK] -> fm3_f0

elif cmm and len(l[3]) > 2 and l[3][:2] == 'FM' and len(l[3].split('/')) == 3 and l[3].split('/')[2] == 'TACH': # cmm v3 format fan speeds

vField = 7

dClass = 'fans'

dTag = l[3][:3] + '_' + l[3][4:6] # eg. 61: FM3/F0/TACH (Fan): 5600.00 RPM (NA/NA): [OK] -> fm3_f0

dTag = dTag.lower() # just in case

dType = 'uint32'

unit = 'RPM'

#elif cmm and l[2] in ( 'ps0.t_amb', 'ps1.t_amb', 'PS0/T_AMB', 'PS1/T_AMB' ): # cmm ps0/1 temps - supposedly related to fan speeds

# vField = 4

# dTag = l[2][:3] + '_temp' # eg. ps0.t_amb or PS0/T_AMB -> ps0_temp

elif cmm and l[3] in ( 'ps0.t_amb', 'ps1.t_amb', 'PS0/T_AMB', 'PS1/T_AMB' ): # cmm ps0/1 temps - supposedly related to fan speeds

vField = 7

dClass = 'temp'

dTag = l[3][:3] + '_temp' # eg. ps0.t_amb or PS0/T_AMB -> ps0_temp

dTag = dTag.lower()

dType = 'uint32'

unit = 'C'

#elif cmm and l[2] in ( 'ch.t_amb_0', 'T_AMB0', 'T_AMB' ):

# vField = 4

elif cmm and l[3] in ( 'ch.t_amb_0', 'T_AMB0', 'T_AMB' ): # cmm "chassis ambient" temps - only T_AMB0 from cmm v3, so ignore ch.t_amb_1 from cmm v2

# later v3 has just T_AMB (as well as a CMM/T_AMB that we ignore)

vField = 7

dClass = 'temp'

if l[3] == 'T_AMB':

dTag = 'ch0_temp'

else:

dTag = 'ch' + l[3][-1] + '_temp' # eg. ch.t_amb_0 -> ch0_temp

dType = 'uint32'

unit = 'C'

elif l[4] == 'Margin': # xe210 cpu

vField = 6

vOffset = intelTempOffset

dClass = 'temp'

dTag = 'cpu' + l[2][1] + '_temp'

dType = 'int32'

unit = 'C'

elif l[2] == 'Serverboard': # xe210 motherboard

vField = 5

dClass = 'temp'

dTag = 'chassis_temp'

dType = 'uint32'

unit = 'C'

elif l[4] in ( '1', '2' ): # supermicro cpu

vField = 6

dClass = 'temp'

dTag = 'cpu' + l[4] + '_temp'

dType = 'int32'

unit = 'C'

elif l[2] == 'Sys': # supermicro motherboard

vField = 5

dClass = 'temp'

dTag = 'chassis_temp'

dType = 'uint32'

unit = 'C'

else:

continue

host = l[0].rstrip( manSuffix + ':' )

ip = getIp(host)

if ip == None:

continue

spoofStr = ip + ':' + host

try:

if dType in ( 'int32', 'uint32' ):

val = int(l[vField].split('.')[0]) + vOffset

valStr = '%d' % val

elif dType in ( 'float', 'double' ):

val = float(l[vField]) + vOffset

valStr = '%.2f' % val

else:

print 'unknown dType'

sys.exit(1)

except:

sys.stderr.write( sys.argv[0] + ': Error converting value' + str(l) )

continue

#print host, dTag, val, valStr, spoofStr

c.append( '/usr/bin/gmetric -S ' + spoofStr + ' -t ' + dType + ' -n "' + dTag + '" -u "' + unit + '" -v ' + valStr + '\n' )

# keep a count of how many of which type of reponses

if host not in d.keys():

d[host] = {}

if dClass not in d[host].keys():

d[host][dClass] = 0

d[host][dClass] += 1

# store away all cmm stuff for post processing...

if cmm:

if host not in post.keys():

post[host] = {}

if dClass not in post[host].keys():

post[host][dClass] = []

post[host][dClass].append( ( dTag, val ) )

hosts = d.keys()

for i in up:

if i not in hosts:

print 'host ' + i + ' did not respond'

continue

resp = d[i]

respkeys = resp.keys()

if i[0] == 'v' and i[1] in string.digits:

# vayu blades have 2 temps and 1 power

if 'power' not in respkeys or resp['power'] != 1:

sys.stderr.write( 'ipmiLanGmetric: Error: host ' + i + ' power incomplete\n' )

if 'temp' not in respkeys or resp['temp'] != 2:

sys.stderr.write( 'ipmiLanGmetric: Error: host ' + i + ' temperatures incomplete\n' )

elif len(i) > 3 and i[:3] == 'cmm':

# cmm's have 16 fans and 4 power and 3 temps

if 'power' not in respkeys or resp['power'] != 4:

sys.stderr.write( 'ipmiLanGmetric: Error: host ' + i + ' power incomplete\n' )

if 'fans' not in respkeys or resp['fans'] != 16:

sys.stderr.write( 'ipmiLanGmetric: Error: host ' + i + ' fans incomplete\n' )

if 'temp' not in respkeys or resp['temp'] != 3:

sys.stderr.write( 'ipmiLanGmetric: Error: host ' + i + ' temperatures incomplete\n' )

elif i[:3] in ( 'sta' ):

# rx300's have 5 fans, 5 temps, 1 power

if 'power' not in respkeys or resp['power'] != 1:

sys.stderr.write( 'ipmiLanGmetric: Error: host ' + i + ' power incomplete\n' )

if 'fans' not in respkeys or resp['fans'] != 5:

sys.stderr.write( 'ipmiLanGmetric: Error: host ' + i + ' fans incomplete\n' )

if 'temp' not in respkeys or resp['temp'] != 5:

sys.stderr.write( 'ipmiLanGmetric: Error: host ' + i + ' temperatures incomplete\n' )

elif i[:2] in ( 'rt' ):

# cx250's have 4 fans, 6 temps, 1 power

if 'power' not in respkeys or resp['power'] != 1:

sys.stderr.write( 'ipmiLanGmetric: Error: host ' + i + ' power incomplete\n' )

if 'fans' not in respkeys or resp['fans'] != 4:

sys.stderr.write( 'ipmiLanGmetric: Error: host ' + i + ' fans incomplete\n' )

if 'temp' not in respkeys or resp['temp'] != 6:

sys.stderr.write( 'ipmiLanGmetric: Error: host ' + i + ' temperatures incomplete\n' )

else:

# lynx's have 2 temps and 1 power

if 'power' not in respkeys or resp['power'] != 1:

sys.stderr.write( 'ipmiLanGmetric: Error: host ' + i + ' power incomplete\n' )

if 'temp' not in respkeys or resp['temp'] != 2:

postkeys = post.keys()

if not len(postkeys):

return

# for each host in turn...

for i in up:

spoofStr = getIp(i) + ':' + i

if i not in postkeys:

sys.stderr.write( 'ipmiLanGmetric: Error: host ' + i + ' not in post\n' )

continue

h = post[i]

# power ->

# add up the ps0 and ps1 and print a total for 'in' == cmm_power_in, 'out' == cmm_power_out

if 'power' not in h.keys():

sys.stderr.write( 'ipmiLanGmetric: Error: host ' + i + ' no power field\n' )

else:

p = h['power']

if len(p) != 4:

sys.stderr.write( 'ipmiLanGmetric: Error: host ' + i + ' not 4 power entries\n' )

p_in = 0.0

p_out = 0.0

inCnt = 0

outCnt = 0

for t, v in p:

# tag, val -> cmm_ps0_in, cmm_ps1_out, ...

if t[-3:] == '_in':

p_in += float(v)

inCnt += 1

else:

p_out += float(v)

outCnt += 1

if inCnt == 2:

c.append( '/usr/bin/gmetric -S ' + spoofStr + ' -t float -n "cmm_power_in" -u "W" -v %.2f\n' % p_in )

if outCnt == 2:

c.append( '/usr/bin/gmetric -S ' + spoofStr + ' -t float -n "cmm_power_out" -u "W" -v %.2f\n' % p_out )

# fans ->

# add up all the fans on this cmm and compute stats

if 'fans' not in h.keys():

sys.stderr.write( 'ipmiLanGmetric: Error: host ' + i + ' no fans field\n' )

else:

p = h['fans']

if len(p) != 16:

sys.stderr.write( 'ipmiLanGmetric: Error: host ' + i + ' not 16 power entries\n' )

ff = []

for t, v in p:

# fm0_f0 ... fm7_f1

ff.append( str(v) )

a = add.add()

a.ll = ff

a.process()

dtype = 'float'

d = 'fan_'

unit = 'RPM'

for f in ( 'ave', 'rms', 'min', 'max', 'sigma' ):

val = a.q[f][0]

# maybe add -x maxTime ?