def main():
global topName
parser = argparse.ArgumentParser()
parser.add_argument("top", help="Top node (eg B_SYS_HV)")
parser.add_argument(
"topname",
help=
"Top node name - a layer name in quotes (eg \"High voltage\") or\"\" to skip it"
)
parser.add_argument(
"confname",
help="Name of Alarm configuration - almost certainly HallB")
parser.add_argument("-v",
"--verbosity",
help="increase verbosity",
nargs='?',
const=0,
default=0)
args = parser.parse_args()
topName = args.topname
configName = args.confname
global verbose
verbose = args.verbosity
now = datetime.datetime.now()
print "<!--"
print " Alarm config generated by makeAlarmConfig.py on " + now.strftime(
"%Y-%m-%d %H:%M")
print "-->"
print "<config name=\"" + configName + "\">"
#This is the function that works recursively through the tree and calls do_unto_element start_node end_node
doNode.doNode(args.top, do_node=my_node, v=verbose)
print "</config>"
def main():
parser = argparse.ArgumentParser(
) # parser for the inputs - must keep the 2 lines below.
parser.add_argument(
"top",
help="top node") # must have a top node, -v VERBOSITY is an opion
parser.add_argument("-v",
"--verbosity",
help="increase verbosity 1,2 ..",
nargs='?',
const=0,
default=0)
parser.add_argument("-t",
"--type",
help="summary type: Mean, OR, AND",
nargs='?',
const="Mean",
default="Mean")
#add extra args and opts here
parser.add_argument("pv", help="pvname")
args = parser.parse_args() #get the input args from the parser
global verbose
verbose = args.verbosity
global type
type = args.type
global pvname
pvname = args.pv
#This calls the doNode() (bottom of this file) that works recursively through the tree and calls do_node()
#which you may overwrite by calling your own function (eg my_node() shown here
doNode.doNode(args.top, do_node=my_node, v=verbose)
def main():
parser = argparse.ArgumentParser() # parser for the inputs - must keep the 2 lines below.
parser.add_argument("-f", "--setupfile", help="setup file (default = monitor.dat)",nargs='?', const=0, default="monitor.dat")
parser.add_argument("-v", "--verbosity", help="increase verbosity", nargs='?', const=0, default=0)
args = parser.parse_args() #get the input args from the parser
global verbose
verbose = args.verbosity
setup_file = args.setupfile
global pvdata
global mon_line
global pvf
global pvfull
#read the setup file, which has the form
#index TOP PVname Period(s)
for line in file(setup_file): #read the lines in the setup file to pvdata monitor list
if not (line.startswith("#") or len(line.split())<3): #skip comments and require 3 fields
s=line.split() #split input into fields
wf=PV(s[pvf.TOP]+":"+s[pvf.NAME]+"_wf") #wf, en are PVs for waveform and enable
en=PV(s[pvf.TOP]+":"+s[pvf.NAME]+"_en")
pvdata.append([s[0],s[pvf.TOP],s[pvf.NAME],s[pvf.PERIOD],wf,en,[]]) #add to list, with list for IDS
#Call doNode() which works recursively through the tree and calls do_node()
#which you may overwrite by calling your own function (eg my_node() shown here)
#In this case, it calls my_node() for every element - see below.
doNode.doNode(pvdata[mon_line][pvf.TOP],do_node=my_node, v=verbose)
#now the pvf.ID array has been filled, try to connect to all the elements
for n,chid in enumerate(pvdata[mon_line][pvf.ID]):
if not ca.connect_channel(chid,timeout=0.001):
if verbose:
print pvfull[n], "... Not connected, chid = 0"
pvdata[mon_line][pvf.ID][n]=0
else:
if verbose:
print pvfull[n], "... Connected, chid = ",chid
pvdata[mon_line].append(numpy.zeros(len(pvdata[mon_line][pvf.ID]))) #create a zero numpy array for the data
pvfull = [] #reset the list of names
mon_line+=1 #increment the current line number
#start a monitor thread for each
for l in range(mon_line):
t = Thread(target=monitor, args=(l,))
t.start()
#do the poll loop here, to cover all monitor threads
while mon_line > 0:
ca.poll()
time.sleep(1.0)
print "poll"
def main():
parser = argparse.ArgumentParser() # parser for the inputs - must keep the 2 lines below.
parser.add_argument("top", help="top node") # must have a top node, -v VERBOSITY is an opion
parser.add_argument("-v", "--verbosity", help="increase verbosity 1,2 ..", nargs='?', const=0, default=0)
#add extra args and opts here
args = parser.parse_args() #get the input args from the parser
global verbose
verbose = args.verbosity
#This calls the doNode() (bottom of this file) that works recursively through the tree and calls do_node()
#which you may overwrite by calling your own function (eg my_node() shown here
doNode.doNode(args.top,do_node=my_node, v=verbose)
def main():
parser = argparse.ArgumentParser(
) # parser for the inputs - must keep the 2 lines below.
parser.add_argument(
"top",
help="top node") # must have a top node, -v VERBOSITY is an opion
parser.add_argument("-v",
"--verbosity",
help="increase verbosity",
nargs='?',
const=0,
default=0)
#add extra args and opts here
parser.add_argument("pv", help="pvname")
parser.add_argument('value', help="value")
parser.add_argument('sigma', help="sigma")
args = parser.parse_args() #get the input args from the parser
global verbose
verbose = args.verbosity
global pvname
global val
global sigma
pvname = args.pv
val = args.value
sigma = args.sigma
#This calls the doNode() (bottom of this file) that works recursively through the tree and calls do_node()
#which you may overwrite by calling your own function (eg my_node() shown here
doNode.doNode(args.top, do_node=my_node, v=verbose)
#get random all nodes with elements
#This has now filled elemNodes[] with all the names of the nodes which contain detector elements.
#go into a loop selecting nodes randomly, and fill pvname with random values
n = 0
while n < 1000000:
time.sleep(0.001)
rand_node = random.choice(elemNodes)
randel = random.choice(ElementNames[NodeIndex[rand_node]].split(","))
randval = random.gauss(float(val), float(sigma))
fullpv = rand_node + "_" + randel + ":" + str(pvname)
caput(fullpv, randval)
if verbose:
print n, "caput", fullpv, randval
n += 1
def main():
global topName
parser = argparse.ArgumentParser()
parser.add_argument("top", help="Top node (eg B_SYS_HV)")
parser.add_argument("topname", help='Top node name - a nice name in quotes (eg "High voltage")')
parser.add_argument("confname", help="Name of Alarm configuration - almost certainly HallB")
parser.add_argument("-v", "--verbosity", help="increase verbosity", nargs="?", const=0, default=0)
args = parser.parse_args()
topName = args.topname
configName = args.confname
global verbose
verbose = args.verbosity
now = datetime.datetime.now()
print "<!--"
print " Alarm config generated by makeAlarmConfig.py on " + now.strftime("%Y-%m-%d %H:%M")
print "-->"
print '<config name="' + configName + '">'
# This is the function that works recursively through the tree and calls do_unto_element start_node end_node
doNode.doNode(args.top, do_node=my_node, v=verbose)
print "</config>"
def main():
parser = argparse.ArgumentParser(
) # parser for the inputs - must keep the 2 lines below.
parser.add_argument("-f",
"--setupfile",
help="setup file (default = monitor.dat)",
nargs='?',
const=0,
default="monitor.dat")
parser.add_argument("-v",
"--verbosity",
help="increase verbosity",
nargs='?',
const=0,
default=0)
args = parser.parse_args() #get the input args from the parser
global verbose
verbose = args.verbosity
setup_file = args.setupfile
global pvdata
global mon_line
global pvf
global pvfull
#read the setup file, which has the form
#index TOP PVname Period(s)
for line in file(
setup_file
): #read the lines in the setup file to pvdata monitor list
if not (line.startswith("#")
or len(line.split()) < 3): #skip comments and require 3 fields
s = line.split() #split input into fields
wf = PV(s[pvf.TOP] + ":" + s[pvf.NAME] +
"_wf") #wf, en are PVs for waveform and enable
en = PV(s[pvf.TOP] + ":" + s[pvf.NAME] + "_en")
pvdata.append(
[s[0], s[pvf.TOP], s[pvf.NAME], s[pvf.PERIOD], wf, en,
[]]) #add to list, with list for IDS
#Call doNode() which works recursively through the tree and calls do_node()
#which you may overwrite by calling your own function (eg my_node() shown here)
#In this case, it calls my_node() for every element - see below.
doNode.doNode(pvdata[mon_line][pvf.TOP],
do_node=my_node,
v=verbose)
#now the pvf.ID array has been filled, try to connect to all the elements
for n, chid in enumerate(pvdata[mon_line][pvf.ID]):
if not ca.connect_channel(chid, timeout=0.001):
if verbose:
print pvfull[n], "... Not connected, chid = 0"
pvdata[mon_line][pvf.ID][n] = 0
else:
if verbose:
print pvfull[n], "... Connected, chid = ", chid
pvdata[mon_line].append(numpy.zeros(len(pvdata[mon_line][
pvf.ID]))) #create a zero numpy array for the data
pvfull = [] #reset the list of names
mon_line += 1 #increment the current line number
#start a monitor thread for each
for l in range(mon_line):
t = Thread(target=monitor, args=(l, ))
t.start()
#do the poll loop here, to cover all monitor threads
while mon_line > 0:
ca.poll()
time.sleep(1.0)
def main():
parser = argparse.ArgumentParser() # parser for the inputs - must keep the 2 lines below.
parser.add_argument("top", help="top node") # must have a top node, -v VERBOSITY is an opion
parser.add_argument("-v", "--verbosity", help="increase verbosity", nargs='?', const=0, default=0)
#add extra args and opts here
parser.add_argument("pv", help="pvname")
args = parser.parse_args() #get the input args from the parser
global verbose
verbose = args.verbosity
global pvname
global nChid
pvname = args.pv
#This calls the doNode() (bottom of this file) that works recursively through the tree and calls do_node()
#which you may overwrite by calling your own function (eg my_node() shown here
#In this case, it calls my_node() for every element - see below.
doNode.doNode(args.top,do_node=my_node, v=verbose)
wave=numpy.zeros(nChid) #create an array for all the values
pvname_wf = args.top+":"+pvname+"_wf" #make the names of the PVs for waveform and enable switch
pvname_en = args.top+":"+pvname+"_en"
print pvname_wf,pvname_en
pvwf = PV(pvname_wf) #set the PV
pven = PV(pvname_en) #set the PV
pven.put(1)
for i in range(len(allids)): #connect call the channels
if not ca.connect_channel(allids[i],timeout=0.001):
allids[i]=0
print "Warning didn't connect to PV =", allnames[i], "ignoring this one"
ca.poll() #Not sure exactly what this does!
n=0
while n < 100000:
for i in range(len(allids)):
#print i, allids[i]
if allids[i] > 0:
ca.get(allids[i], wait=False) #Tell them all to start getting but don't wait
ca.poll()
for i in range(len(allids)): #now finish getting
if allids[i] > 0:
val = ca.get_complete(allids[i])
wave[i]=val
if verbose:
#print allnames[i],val
pvwf.put(wave)
time.sleep(0.5)
if not pven.get():
exit()
#print n,pven.get()
n+=1
def main():
parser = argparse.ArgumentParser() # parser for the inputs - must keep the 2 lines below.
parser.add_argument("top", help="top node") # must have a top node, -v VERBOSITY is an opion
parser.add_argument("-v", "--verbosity", help="increase verbosity", nargs='?', const=0, default=0)
#add extra args and opts here
parser.add_argument("pv", help="pvname")
args = parser.parse_args() #get the input args from the parser
global verbose
verbose = args.verbosity
global pvname
global nChid
pvname = args.pv
#This calls the doNode() (bottom of this file) that works recursively through the tree and calls do_node()
#which you may overwrite by calling your own function (eg my_node() shown here
#In this case, it calls my_node() for every element - see below.
doNode.doNode(args.top,do_node=my_node, v=verbose)
wave=numpy.zeros(nChid) #create an array for all the values
pvname_wf = args.top+":"+pvname+"_wf" #make the names of the PVs for waveform and enable switch
pvname_en = args.top+":"+pvname+"_en"
print pvname_wf,pvname_en
pvwf = PV(pvname_wf) #set the PV
pven = PV(pvname_en) #set the PV
pven.put(1)
for i in range(len(allids)): #connect call the channels
if not ca.connect_channel(allids[i],timeout=0.001):
allids[i]=0
print "Warning didn't connect to PV =", allnames[i], "ignoring this one"
ca.poll() #Not sure exactly what this does!
n=0
while n < 100000:
for i in range(len(allids)):
#print i, allids[i]
if allids[i] > 0:
ca.get(allids[i], wait=False) #Tell them all to start getting but don't wait
ca.poll()
for i in range(len(allids)): #now finish getting
if allids[i] > 0:
val = ca.get_complete(allids[i])
wave[i]=val
#if verbose:
#print allnames[i],val
pvwf.put(wave)
time.sleep(0.5)
if not pven.get():
exit()
#print n,pven.get()
n+=1
