#%TITLE% candsa1000.mac
#%NAME%
# Set the parameters of the Canberra dsa1000 module
#
#%CATEGORY% Detection, mca
#
#%END%
#%UU% [mca_no]
#%MDESC% Setup the module, attached to the %B%mca_no%B% MCA as set in the
#SPEC config.
def candsa1000setup '{
global DSA1000_DEV[] DSA1000_OK[]
global DSA1000_NO DSA1000_BASE DSA1000_EXPERT
global CAN_HVPS CAN_GAIN CAN_FILTER CAN_STAT
global CAN_HVPSF CAN_GAINF CAN_FILTERF
local i inp mca_no dsa_no
if ($#==0) {
DSA1000_NO = getval ("How many DSA1000 MCA do you want to use?",DSA1000_NO)
for (i=0; i<DSA1000_NO; i++) {
mca_no[i] = getval("MCA number as in the config: ",mca_no[i])
}
} else {
DSA1000_NO = (split("$*",inp))
for (i=0; i<DSA1000_NO; i++) {
mca_no[i] = inp[i]
}
}
for (i=0; i<DSA1000_NO; i++) {
DSA1000_OK[i] = _dsa1000setup(mca_no[i])
if (DSA1000_OK[i]) {
tty_cntl("md")
eprintf("DSA 1000 #%d not configured. Check MCA device #%d.\n", i, \
mca_no[i])
tty_cntl("me")
}
CAN_STAT[i]["ok"] = 0
CAN_HVPS[i]["readok"] = 0
CAN_HVPS[i]["checkok"] = 0
CAN_GAIN[i]["readok"] = 0
CAN_GAIN[i]["auxok"] = 0
CAN_GAIN[i]["checkok"] = 0
CAN_FILTER[i]["readok"] = 0
CAN_FILTER[i]["checkok"] = 0
}
DSA1000_BASE = 0x20000000
DSA1000_EXPERT = 0
}'
#%UI% (no)
#%MDESC% Get the device name, set to TCP and increase the timeout for the
#%B%no%B% mca number.
def _dsa1000setup(no) '{
DSA1000_DEV[no] = ""
DSA1000_DEV[no] = mca_spar(no,"device_id")
if ((DSA1000_DEV[no] != -1) && (DSA1000_DEV[no] != "?")) {
esrf_io(DSA1000_DEV[no],"tcp")
esrf_io(DSA1000_DEV[no],"timeout",1000)
} else
return(-1)
return(0)
}'
#%UI%
#%MDESC% List all the configured modules
def dsa1000list '{
local i
for (i=0; i<DSA1000_NO; i++) { _dsa1000list(i) }
}'
#%UI% (no)
#%MDESC% Print the module %B%no%B%.
def _dsa1000list(no) '{
if (!DSA1000_OK[no]) {
tty_cntl("md"); printf("%2d: ", no); tty_cntl("me")
printf("%s\n", DSA1000_DEV[no])
}
}'
#%UU% [no]
#%MDESC% Start the menu for all the configured modules or modul #%B%no%B%.
def candsa1000menu '{
local dsa_no interact ok str
if (!DSA1000_NO) {
tty_cntl("md")
printf("No DSA 1000 configured !! Please, run candsa1000setup.")
tty_cntl("me")
exit
}
dsa_no = -1
interact = ($# == 0)
while (1) {
ok = 1
if (interact) {
clscreen()
tty_cntl("md")
printf("\n\nDSA 1000 Devices Configured:\n\n")
tty_cntl("me")
dsa1000list
while (++dsa_no < DSA1000_NO) {
dsa_no = (dsa_no < DSA1000_NO) ? dsa_no : -1
}
str = "\n\tDSA 1000 number or -1 to Exit"
dsa_no = getval(str, -1)
if (dsa_no < 0)
break
} else
dsa_no = int($1)
if ((dsa_no >= DSA1000_NO) || (DSA1000_OK[dsa_no])) {
_msg(dsa_no, "Device not in spec config !!")
ok = 0
}
if (ok)
_dsa1000submenu(dsa_no)
if (!interact)
break
}
}'
#%UI% (no)
#%MDESC% Display the parameters submenu for module %B%no%B%.
def _dsa1000submenu(no) '{
CAN_STAT[no]["ok"] = _dsa1000stat(no)
CAN_HVPS[no]["readok"] = _canHVPS_read(no)
CAN_HVPS[no]["checkok"] = _canHVPS_check(no)
CAN_GAIN[no]["readok"] = _canGain_read(no)
CAN_GAIN[no]["auxok"] = _canGain_readaux(no)
CAN_GAIN[no]["checkok"] = _canGain_check(no)
CAN_FILTER[no]["readok"] = _canFilter_read(no)
CAN_FILTER[no]["checkok"] = _canFilter_check(no)
CAN_HVPSF[no] = 0
CAN_GAINF[no] = 0
CAN_FILTERF[no] = 0
option = 1
while (option) {
clscreen()
tty_cntl("md"); printf("\t\t< DSA1000 SETUP >\n"); tty_cntl("me")
_dsa1000list(no)
tty_cntl("us")
printf(" \n\n")
tty_cntl("ue")
#Setup
if (CAN_STAT[no]["ok"] != 0) {
tty_cntl("md")
printf ("Attention! DSA1000 #%d:", no)
tty_cntl("me")
printf ("%s\n",CAN_STAT[no]["ok"])
} else {
printf(" Preamp output polarity. . . . . . . :")
tty_cntl("md")
printf("<%s>\n", CAN_STAT[no]["pamppol"]?"Negative":"Positive")
tty_cntl("me")
printf(" Preamp type . . . . . . . . . . . . :")
tty_cntl("md"); printf("<%s>\n", CAN_STAT[no]["pamptype"]); tty_cntl("me")
printf(" Pole/Zero . . . . . . . . . . . . . :")
tty_cntl("md"); printf("<%s>\n", CAN_STAT[no]["pz"]); tty_cntl("me")
printf(" Acquisitoion Mode . . . . . . . . . :")
tty_cntl("md"); printf("<%s>\n", CAN_STAT[no]["acqmode"]); tty_cntl("me")
}
#HVPS
if (CAN_HVPS[no]["readok"] != 0) {
tty_cntl("md")
printf ("Attention! DSA1000 #%d:", no)
tty_cntl("me")
printf ("%s\n", CAN_HVPS[no]["readok"])
} else {
printf("\n 1 - High Voltage:")
if (CAN_HVPS[no]["checkok"] != 0) {
tty_cntl("md")
printf ("Attention! DSA1000 #%d:", no)
tty_cntl("me")
printf ("%s\n", CAN_HVPS[no]["checkok"])
}
if (DSA1000_EXPERT)
printf("\n 11 -")
else
printf("\n ")
printf(" Range . . . . . . . . . . . . .:")
tty_cntl("md")
printf("<%s V>", CAN_HVPS[no]["range"])
tty_cntl("me")
if (DSA1000_EXPERT)
printf("\n 12 -")
else
printf("\n ")
printf (" Voltage Limit . . . . . . . . .:")
tty_cntl("md")
printf("<%s V>", CAN_HVPS[no]["vlim"])
tty_cntl("me")
printf("\n 13 - Voltage . . . . . . . . . . . .:")
tty_cntl("md")
printf("<%s V>", CAN_HVPS[no]["v"])
tty_cntl("me")
if (DSA1000_EXPERT)
printf("\n 14 -")
else
printf("\n ")
printf(" Inhibit Signal . . . . . . . . :")
tty_cntl("md")
printf("<%s>", CAN_HVPS[no]["inh"]?"Negative":"Positive")
tty_cntl("me")
printf("\n 15 - State . . . . . . . . . . . . .:")
tty_cntl("md")
printf("<%s>", CAN_HVPS[no]["state"]?"On":"Off")
tty_cntl("me")
}
#DSP Gain
if (CAN_GAIN[no]["readok"] != 0) {
tty_cntl("md")
printf ("Attention! DSA1000 #%d:", no)
tty_cntl("me")
printf ("%s\n", CAN_GAIN[no]["readok"])
} else if (CAN_GAIN[no]["auxok"] != 0) {
tty_cntl("md")
printf ("Attention! DSA1000 #%d:", no)
tty_cntl("me")
printf ("%s\n", CAN_GAIN[no]["auxok"])
} else {
printf("\n 2 - DSP Gain:")
if (CAN_GAIN[no]["checkok"] != 0) {
tty_cntl("md")
printf ("Attention! DSA1000 #%d:", no)
tty_cntl("me")
printf ("%s\n", CAN_GAIN[no]["checkok"])
}
printf("\n 21 - Coarse Gain . . . . . . . . . .:")
tty_cntl("md")
printf("<x %s>", CAN_GAIN[no]["coarse"])
tty_cntl("me")
printf("\n 22 - Fine Gain . . . . . . . . . . .:")
tty_cntl("md")
printf("<x %s>", CAN_GAIN[no]["fine"])
tty_cntl("me")
printf("\n 23 - S-fine Gain . . . . . . . . . .:")
tty_cntl("md")
printf("<x %s>", CAN_GAIN[no]["sfine"])
tty_cntl("me")
if (DSA1000_EXPERT)
printf("\n 24 -")
else
printf("\n ")
printf(" Gain Attenuator . . . . . . . .:")
tty_cntl("md")
printf("<%s>", CAN_GAIN[no]["att"]?"On":"Off")
tty_cntl("me")
printf("\n 25 - LLD Mode . . . . . . . . . . .:")
tty_cntl("md")
printf("<%s>", CAN_GAIN[no]["lldmode"]?"Auto":"Manual")
tty_cntl("me")
printf("\n 26 - LLD . . . . . . . . . . . . . .:")
tty_cntl("md")
printf("<%s %>", CAN_GAIN[no]["lld"])
tty_cntl("me")
printf("\n 27 - FDISC Mode . . . . . . . . . . :")
tty_cntl("md")
printf("<%s>", CAN_GAIN[no]["fdiscmode"])
tty_cntl("me")
printf("\n 28 - FDISC . . . . . . . . . . . . .:")
tty_cntl("md")
printf("<%s>", CAN_GAIN[no]["fdisc"])
tty_cntl("me")
}
#DSP Filter
if (CAN_FILTER[no]["readok"] != 0) {
tty_cntl("md")
printf ("Attention! DSA1000 #%d:", no)
tty_cntl("me")
printf ("%s\n",CAN_FILTER[no]["readok"])
} else {
printf("\n 3 - DSP Filter:")
if (CAN_FILTER[no]["checkok"] != 0) {
tty_cntl("md")
printf ("Attention! DSA1000 #%d:", no)
tty_cntl("me")
printf ("%s\n",CAN_FILTER[no]["checkok"])
}
printf("\n 31 - Rise Time . . . . . . . . . . .:")
tty_cntl("md")
printf("<%s us>", CAN_FILTER[no]["risetime"])
tty_cntl("me")
printf("\n 32 - Flat Top . . . . . . . . . . . :")
tty_cntl("md")
printf("<%s us>", CAN_FILTER[no]["flattop"])
tty_cntl("me")
printf("\n 33 - LTC/PUR Mode . . . . . . . . . :")
tty_cntl("md")
printf("<%s>", CAN_FILTER[no]["ltcmode"]?"Enable":"Disable")
tty_cntl("me")
printf("\n BLR Mode . . . . . . . . . . . :")
tty_cntl("md")
printf("<%s>", CAN_FILTER[no]["blrmode"])
tty_cntl("me")
}
printf("\n 99 - Save Parameters")
option = getval("\n\n\n\t Option ",0)
if ((option == 0) || (option == 99)) {
tty_cntl("md")
printf("Please wait, setting may take few seccods.\n")
tty_cntl("me")
_canHVPS_set(no)
_canGain_set(no)
_canFilter_set(no)
} else
_dsa1000option(no, option)
}
}'
#%UI% (no, option)
#%MDESC% Set parameter(s) for module %B%no%B%, menu option %B%option%B%.
def _dsa1000option(no,option) '{
local str llim hlim oldval
#HVPS
if (((option == 1) && DSA1000_EXPERT) || (option == 11)) {
oldval = CAN_HVPS[no]["range"]
CAN_HVPS[no]["range"] = getval("Range (-5000, -1300, 1300, 5000):",\
CAN_HVPS[no]["range"])
if (_rcheck(no) == 0)
CAN_HVPSF[no] = 1
else
CAN_HVPS[no]["range"] = oldval
}
if (((option == 1) && DSA1000_EXPERT) || (option == 12)) {
oldval = CAN_HVPS[no]["vlim"]
str = sprintf ("Limit (%d to %4d):", llim, CAN_HVPS[no]["range"])
CAN_HVPS[no]["vlim"] = getval(sprintf ("%s", str),CAN_HVPS[no]["vlim"])
if (_vlimcheck(no) == 0)
CAN_HVPSF[no] = 1
else
CAN_HVPS[no]["vlim"] = oldval
}
if ((option == 1) || (option == 13)) {
oldval = CAN_HVPS[no]["v"]
str = sprintf ("Voltage (%d to %4d):", llim, CAN_HVPS[no]["vlim"])
CAN_HVPS[no]["v"] = getval(sprintf("%s", str),CAN_HVPS[no]["v"])
if (_vcheck(no) == 0)
CAN_HVPSF[no] = 1
else
CAN_HVPS[no]["v"] = oldval
}
if ((option == 14) && DSA1000_EXPERT) {
CAN_HVPS[no]["inh"] = CAN_HVPS[no]["inh"]?0:1
CAN_HVPSF[no] = 1
}
if (option == 15) {
CAN_HVPS[no]["state"] = CAN_HVPS[no]["state"]?0:1
_canHVPS_on(no,CAN_HVPS[no]["state"])
}
#DSP Gain
if ((option == 2) || (option == 21)){
str = sprintf ("Coarse gain (2.5")
for (i=1; i<10; i++)
str = sprintf("%s %d",str, 2.5*pow(2,i))
CAN_GAIN[no]["coarse"] = \
getval(sprintf ("%s):", str), CAN_GAIN[no]["coarse"])
CAN_GAINF[no] = 1
}
if ((option == 2) || (option == 22)) {
CAN_GAIN[no]["fine"] = getval("Fine Gain (0.900 to 1.900):", \
CAN_GAIN[no]["fine"])
CAN_GAINF[no] = 1
}
if ((option == 2) || (option == 23)) {
CAN_GAIN[no]["sfine"] = getval("S-fine Gain (0.997500 to 1.002500):", \
CAN_GAIN[no]["sfine"])
CAN_GAINF[no] = 1
}
if ((option == 24) && DSA1000_EXPERT) {
CAN_GAIN[no]["att"] = CAN_GAIN[no]["att"]?0:1
_canGain_setaux(no)
}
if (option == 25) {
CAN_GAIN[no]["lldmode"] = CAN_GAIN[no]["lldmode"]?0:1
CAN_GAINF[no] = 1
}
if ((option == 2) || (option == 26)) {
CAN_GAIN[no]["lld"] = getval("LLD ():", CAN_GAIN[no]["lld"])
CAN_GAINF[no] = 1
}
if (option == 27) {
CAN_GAIN[no]["fdiscmode"] = (CAN_GAIN[no]["fdiscmode"] == "Auto")?"Manual":"Auto"
CAN_GAINF[no] = 1
}
if ((option == 2) || (option == 28)) {
CAN_GAIN[no]["fdisc"] = getval("FDISC ():", CAN_GAIN[no]["fdisc"])
CAN_GAINF[no] = 1
}
#DSP Filter
if ((option == 3) || (option == 31)){
oldval = sprintf("%0.1f", CAN_FILTER[no]["risetime"])
str = sprintf ("Rise Time ( 0.4")
for (i=1; i<7; i++)
str = sprintf("%s %4.1f",str, 0.4+i*0.1)
str = sprintf("%s\n ",str)
for (i=0; i<8; i++)
str = sprintf("%s %4.1f",str, 1.2+i*0.4)
str = sprintf("%s\n ",str)
for (i=0; i<10; i++)
str = sprintf("%s %4.1f",str, 4.8+i*0.8)
str = sprintf("%s\n ",str)
for (i=0; i<10; i++)
str = sprintf("%s %4.1f",str, 13.6+i*1.6)
str = sprintf("%s\n ",str)
for (i=0; i<5; i++)
str = sprintf("%s %4.1f",str, 30+i*2)
CAN_FILTER[no]["risetime"] = \
getval(sprintf ("%s): ", str), CAN_FILTER[no]["risetime"])
if (_rtcheck(no) == 0)
CAN_FILTERF[no] = 1
else
CAN_FILTER[no]["risetime"] = oldval
}
if ((option == 3) || (option == 32)) {
oldval = sprintf("%0.1f", CAN_FILTER[no]["flattop"])
str = sprintf ("Flat Top (0.0")
for (i=1; i<11; i++)
str = sprintf("%s %0.1f",str, i*0.1)
str = sprintf("%s\n ",str)
for (i=0; i<10; i++)
str = sprintf("%s %0.1f",str, 1.2+i*0.2)
CAN_FILTER[no]["flattop"] = getval(sprintf ("%s): ", str), \
CAN_FILTER[no]["flattop"])
if (_ftcheck(no) == 0)
CAN_FILTERF[no] = 1
else
CAN_FILTER[no]["flattop"] = oldval
}
if (option == 33) {
CAN_FILTER[no]["ltcmode"] = CAN_FILTER[no]["ltcmode"]?0:1
CAN_FILTERF[no] = 1
}
}'
#%UI% (no)
#%MDESC% Check the HVPS parameters for module %B%no%B%.
def _canHVPS_check(no) '{
if (_rcheck(no) == -1)
return("HVPS range out of limits")
if (_vlimcheck(no) == -1)
return("HVPS voltage limit out of range")
if (_vcheck(no) == -1)
return("HVPS voltage out of range")
return(0)
}'
#%UI% (no)
#%MDESC% Check the range HVPS parameter for module %B%no%B%.
def _rcheck(no) '{
local val
val = CAN_HVPS[no]["range"]
if ((val != -5000) && (val != -1300) && (val != 1300) && (val != 5000)) {
eprintf("Range %f out of limits\n", CAN_HVPS[no]["range"])
CAN_HVPSF[no] = 0
return(-1)
}
return(0)
}'
#%UI% (no)
#%MDESC% Check the voltage limit HVPS parameter for module %B%no%B%.
def _vlimcheck(no) '{
local val vlim
global hlim llim
val = CAN_HVPS[no]["vlim"]
vlim = CAN_HVPS[no]["range"]
if (vlim < 0)
llim = vlim
else
hlim = vlim
if (vlim == -5000)
hlim = -1300
else if (vlim == -1300)
hlim = 0
else if (vlim == 1300)
llim = 0
else if (vlim == 5000)
llim = 1300
if ((val < llim) || (val > hlim)) {
eprintf("Voltage limit %g out of range %d to %d\n", \
CAN_HVPS[no]["vlim"], llim, hlim)
CAN_HVPSF[no] = 0
return(-1)
}
if (llim >=0)
hlim = val
else
llim = val
return(0)
}'
#%UI% (no)
#%MDESC% Check the voltage HVPS parameter for module %B%no%B%.
def _vcheck(no) '{
local val
val = CAN_HVPS[no]["v"]
if ((val < llim) || (val > hlim)) {
eprintf("Voltage %g out of limits %d to %d\n", \
CAN_HVPS[no]["v"], llim, hlim)
CAN_HVPSF[no] = 0
return(-1)
}
return(0)
}'
#%UI% (no)
#%MDESC% Set the HVPS parameters for module %B%no%B%.
def _canHVPS_set(no) '{
local double array argin[12]
if (CAN_HVPSF[no] == 0)
return(0)
if (_canHVPS_check(no) == -1)
return(-1)
CAN_HVPSF[no] = 0
argin[0] = 1
argin[1] = DSA1000_BASE + 0x105
argin[2] = CAN_HVPS[no]["range"]
argin[3] = 1
argin[4] = DSA1000_BASE + 0xA8
argin[5] = CAN_HVPS[no]["vlim"]
argin[6] = 1
argin[7] = DSA1000_BASE + 0x3A
argin[8] = CAN_HVPS[no]["v"]
argin[9] = 0
argin[10] = DSA1000_BASE + 0xAB
argin[11] = CAN_HVPS[no]["inh"]
return(esrf_io(DSA1000_DEV[no],"DevSetParam",argin))
}'
#%UI% (no)
#%MDESC% Read the HVPS parameters for module %B%no%B%.
def _canHVPS_read(no) '{
local double array argin[12]
local double array argout[6]
argin[0] = 1
argin[1] = DSA1000_BASE + 0x105
argin[2] = 1
argin[3] = DSA1000_BASE + 0xA8
argin[4] = 1
argin[5] = DSA1000_BASE + 0x3A
argin[6] = 0
argin[7] = DSA1000_BASE + 0xAB
argin[8] = 0
argin[9] = DSA1000_BASE + 0xB2
argin[10] = 0
argin[11] = DSA1000_BASE + 0x132
if (esrf_io(DSA1000_DEV[no],"DevReadParam",argin,argout) != -1) {
CAN_HVPS[no]["range"] = argout[0]
CAN_HVPS[no]["vlim"] = argout[1]
CAN_HVPS[no]["v"] = argout[2]
CAN_HVPS[no]["inh"] = argout[3]
CAN_HVPS[no]["state"] = argout[4]
CAN_HVPS[no]["fault"] = argout[5]
} else
return("cannot read HVPS parameters")
return(0)
}'
#%UI% (no)
#%MDESC% Read the HVPS state (on/off) for module %B%no%B%.
def _canHVPS_state(no) '{
local double array argin[2]
local double array argout[2]
argin[0] = 0
argin[1] = 0X200000B2
if (esrf_io(DSA1000_DEV[no],"DevReadParam",argin,argout) != -1)
CAN_HVPS[no]["state"] = argout[0]
else
CAN_HVPS[no]["state"] = -1
return(CAN_HVPS[no]["state"])
}'
#%UI% (no, onoff)
#%MDESC% Set HVPS on (onoff = 1), or off( onoff = 0) for module %B%no%B%.
def _canHVPS_on(no,onoff) '{
return(esrf_io(DSA1000_DEV[no],"DevSetValue", onoff))
}'
#%UI% (no)
#%MDESC% Check the DSP Gain parameters for module %B%no%B%.
def _canGain_check(no) '{
if (_cgaincheck(no) == -1)
return("coarse gain out of limits")
if (_fgaincheck(no) == -1)
return("fine gain out of limits")
if (_sfgaincheck(no) == -1)
return("S-fine gain out of limits")
return(0)
}'
#%UI% (no)
#%MDESC% Check the coarse DSP Gain for module %B%no%B%.
def _cgaincheck(no) '{
local i
for (i=1; i<10; i++) {
if (CAN_GAIN[no]["coarse"] == 2.5*pow(2,i))
return(0)
}
return(-1)
}'
#%UI% (no)
#%MDESC% Check the fine DSP Gain for module %B%no%B%.
def _fgaincheck(no) '{
if ((CAN_GAIN[no]["fine"] < 0.8900) || (CAN_GAIN[no]["fine"] > 1.910))
return(-1)
return(0)
}'
#%UI% (no)
#%MDESC% Check the S-fine DSP Gain for module %B%no%B%.
def _sfgaincheck(no) '{
if ((CAN_GAIN[no]["sfine"] < 0.9975) || (CAN_GAIN[no]["sfine"] > 1.0025))
return(-1)
return(0)
}'
#%UI% (no)
#%MDESC% Set the DSP Gain parameters for module %B%no%B%.
def _canGain_set(no) '{
local double array argin[18]
local sargin[] ret
if (CAN_GAINF[no] == 0)
return(0)
if(_canGain_check(no) != 0)
return(-1)
CAN_GAINF[no] = 0
argin[0] = 1
argin[1] = DSA1000_BASE + 0x87
argin[2] = CAN_GAIN[no]["coarse"]
argin[3] = 1
argin[4] = DSA1000_BASE + 0x88
argin[5] = CAN_GAIN[no]["fine"]
argin[6] = 1
argin[7] = DSA1000_BASE + 0x89
argin[8] = CAN_GAIN[no]["sfine"]
argin[9] = 0
argin[10] = DSA1000_BASE + 0x1e9
argin[11] = CAN_GAIN[no]["lldmode"]
argin[12] = 1
argin[13] = DSA1000_BASE + 0x28
argin[14] = CAN_GAIN[no]["lld"]
argin[15] = 1
argin[16] = DSA1000_BASE + 0x188
argin[17] = CAN_GAIN[no]["fdisc"]
ret = esrf_io(DSA1000_DEV[no],"DevSetParam",argin)
if (ret == -1)
return(-1)
sargin[0] = 9
sargin[1] = DSA1000_BASE + 0x187
sargin[2] = CAN_GAIN[no]["fdiscmode"]
ret = esrf_io(DSA1000_DEV[no],"DevSetMode",sargin)
if (ret == -1)
return(-1)
return(0)
}'
#%UI% (no)
#%MDESC% Set auxilary DSP Gain parameters for module %B%no%B%.
def _canGain_setaux(no) '{
local double array argin[3]
argin[0] = 0
argin[1] = DSA1000_BASE + 0x1EA
argin[2] = CAN_GAIN[no]["att"]
return(esrf_io(DSA1000_DEV[no],"DevSetParam",argin))
}'
#%UI% (no)
#%MDESC% Read the DSP Gain parameters for module %B%no%B%.
def _canGain_read(no) '{
local double array argin[12]
local double array argout[12]
local sargout
sargout[0]=""
argin[0] = 1
argin[1] = DSA1000_BASE + 0x87
argin[2] = 1
argin[3] = DSA1000_BASE + 0x88
argin[4] = 1
argin[5] = DSA1000_BASE + 0x89
argin[6] = 0
argin[7] = DSA1000_BASE + 0x1e9
argin[8] = 1
argin[9] = DSA1000_BASE + 0x28
argin[10] = 1
argin[11] = DSA1000_BASE + 0x188
if (esrf_io(DSA1000_DEV[no],"DevReadParam",argin,argout) != -1) {
CAN_GAIN[no]["coarse"] = argout[0]
CAN_GAIN[no]["fine"] = argout[1]
CAN_GAIN[no]["sfine"] = argout[2]
CAN_GAIN[no]["lldmode"] = argout[3]
CAN_GAIN[no]["lld"] = argout[4]
CAN_GAIN[no]["fdisc"] = argout[5]
} else
return("cannot read the gain parameters")
local long array argin[2]
argin[0] = 9
argin[1] = DSA1000_BASE + 0x187
if (esrf_io(DSA1000_DEV[no],"DevReadMode",argin,sargout) != -1) {
CAN_GAIN[no]["fdiscmode"] = sargout[0]
} else
return("cannot read FDISC mode")
return(0)
}'
#%UI% (no)
#%MDESC% Read auxilary DSP Gain parameters for module %B%no%B%.
def _canGain_readaux(no) '{
local double array argin[2]
local double array argout[1]
argin[0] = 1
argin[1] = DSA1000_BASE + 0x1EA
if (esrf_io(DSA1000_DEV[no],"DevReadParam",argin,argout) != -1) {
CAN_GAIN[no]["att"] = argout[0]
} else
return("cannot read auxilary gain parameters")
return(0)
}'
#%UI% (no)
#%MDESC% Check the DSP Filter parameters for module %B%no%B%.
def _canFilter_check(no) '{
if (_rtcheck(no) == -1)
return("Filter rise time out of limits")
if (_ftcheck(no) == -1)
return("Filter flat top out of limits")
return(0)
}'
#%UI% (no)
#%MDESC% Check the rise time DSP Filter parameter for module %B%no%B%.
def _rtcheck(no) '{
local i
CAN_FILTER[no]["risetime"] = sprintf("%0.1f",CAN_FILTER[no]["risetime"])
for (i=0; i<7; i++) {
if (CAN_FILTER[no]["risetime"] == 0.4+i*0.1)
return(0)
}
for (i=0; i<8; i++) {
if (CAN_FILTER[no]["risetime"] == 1.2+i*0.4)
return(0)
}
for (i=0; i<10; i++) {
if (CAN_FILTER[no]["risetime"] == 4.8+i*0.8)
return(0)
}
for (i=0; i<10; i++) {
if (CAN_FILTER[no]["risetime"] == 13.6+i*1.6)
return(0)
}
for (i=0; i<5; i++) {
if (CAN_FILTER[no]["risetime"] == 30+i*2)
return(0)
}
return(-1)
}'
#%UI% (no)
#%MDESC% Check the flat top DSP Filter parameter for module %B%no%B%.
def _ftcheck(no) '{
local i
CAN_FILTER[no]["flattop"] = sprintf("%0.1f",CAN_FILTER[no]["flattop"])
for (i=0; i<11; i++) {
if (CAN_FILTER[no]["flattop"] == i*0.1)
return(0)
}
for (i=0; i<10; i++) {
if (CAN_FILTER[no]["flattop"] == 1.2+i*0.2)
return(0)
}
return(-1)
}'
#%UI% (no)
#%MDESC% Read the DSP Filter parameters for module %B%no%B%.
def _canFilter_read(no) '{
local double array argin[6]
local double array argout[12]
local sargout
sargout[0]=""
argin[0] = 1
argin[1] = DSA1000_BASE + 0x185
argin[2] = 1
argin[3] = DSA1000_BASE + 0x186
argin[4] = 0
argin[5] = DSA1000_BASE + 0xc5
if (esrf_io(DSA1000_DEV[no],"DevReadParam",argin,argout) != -1) {
CAN_FILTER[no]["risetime"] = argout[0]
CAN_FILTER[no]["flattop"] = argout[1]
CAN_FILTER[no]["ltcmode"] = argout[2]
} else
return("cannot read filter parameters")
local long array argin[2]
argin[0] = 9
argin[1] = DSA1000_BASE + 0x8c
if (esrf_io(DSA1000_DEV[no],"DevReadMode",argin,sargout) != -1) {
CAN_FILTER[no]["blrmode"] = sargout[0]
} else
return("cannot read BLR mode")
return(0)
}'
#%UI% (no)
#%MDESC% Set the DSP Filter parameters for module %B%no%B%.
def _canFilter_set(no) '{
local double array argin[9]
if (CAN_FILTERF[no] == 0)
return(0)
argin[0] = 1
argin[1] = DSA1000_BASE + 0x185
argin[2] = CAN_FILTER[no]["risetime"]
argin[3] = 1
argin[4] = DSA1000_BASE + 0x186
argin[5] = CAN_FILTER[no]["flattop"]
argin[6] = 0
argin[7] = DSA1000_BASE + 0xc5
argin[8] = CAN_FILTER[no]["ltcmode"]
CAN_FILTERF[no] = 0
return(esrf_io(DSA1000_DEV[no],"DevSetParam",argin))
}'
#%UI% (no)
#%MDESC% Read some status parameters for module %B%no%B%.
def _dsa1000stat(no) '{
local double array argin[6]
local double array argout[12]
local sargout
sargout[0]=""
argin[0] = 0
argin[1] = DSA1000_BASE + 0x8b
argin[2] = 1
argin[3] = DSA1000_BASE + 0x18b
argin[4]= 0
argin[5]= DSA1000_BASE + 0x79
if (esrf_io(DSA1000_DEV[no],"DevReadParam",argin,argout) != -1) {
CAN_STAT[no]["pz"] = argout[0]
CAN_STAT[no]["icr"] = argout[1]
CAN_STAT[no]["pamppol"] = argout[2]
} else
return("cannot read status parameters")
local long array argin[4]
argin[0] = 5
argin[1] = DSA1000_BASE + 0x4
argin[2] = 9
argin[3] = DSA1000_BASE + 0xb3
if (esrf_io(DSA1000_DEV[no],"DevReadMode",argin,sargout) != -1) {
CAN_STAT[no]["acqmode"] = sargout[0]
CAN_STAT[no]["pamptype"] = sargout[1]
} else
return("cannot read status mode")
return(0)
}'
#%UI% (no,msg)
#%MDESC% Print the message %B%msg%B% for module %B%no%B%.
def _msg(no, msg) '{
tty_cntl("md")
if (no=="all")
printf("DSA 1000: ")
else
printf("DSA 1000 MCA device %d: ", no)
tty_cntl("me")
printf("%s\n", msg)
}'
#%MACROS%
#%IMACROS%
#%DEPENDENCIES%
#%B%multimca.mac%B% - mca%BR%
#%TOC%
#%AUTHOR% A.Beteva/BLISS
#$Revision: 1.5 $$Date: 2013/08/19 11:28:00 $
#%END%
#%LOG%
#$Log: candsa1000.mac,v $
#Revision 1.5 2013/08/19 11:28:00 beteva
#return human readable error messages instead of -1.
#
#Revision 1.4 2008/02/27 12:52:43 rey
#doc changes
#
#Revision 1.3 2008/02/27 12:50:15 rey
#documentation changes
#
#Revision 1.2 2007/03/29 11:52:19 beteva
#added "save parameters", "preamp output polarity"
#
#Revision 1.1 2007/03/21 17:25:01 beteva
#Initial revision
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