init config for kookaburra

r3441 | jgn | 2012-03-05 15:14:55 +1100 (Mon, 05 Mar 2012) | 1 line
This commit is contained in:
Jing Chen
2012-03-05 15:14:55 +11:00
committed by Douglas Clowes
parent 0c98267e84
commit 49bcdfb9e8
28 changed files with 1956 additions and 0 deletions

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config/source/source_common.tcl
config/anticollider/anticollider_common.tcl
config/plc/plc_common_1.tcl
config/counter/counter_common_1.tcl
config/hipadaba/hipadaba_configuration_common.tcl
config/hipadaba/common_instrument_dictionary.tcl
config/hipadaba/instdict_specification.tcl
config/hmm/hmm_configuration_common_1.tcl
config/hmm/hmm_cylindrical_detector_configuration.tcl
config/hmm/hmm_object.tcl
config/hmm/anstohm_linked.xml
config/hmm/sct_orhvps_common.tcl
config/scan/scan_common_1.hdd
config/scan/scan_common_1.tcl
config/nexus/nxscripts_common_1.tcl
config/commands/commands_common.tcl
config/motors/sct_positmotor_common.tcl
config/motors/sct_jogmotor_common.tcl

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all:
clean:

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# Forbid detector motion when the detector voltage is on
# comment out -- Jing
#forbid {-inf inf} for det when dhv1 in {800 inf}
#forbid {-inf inf} for detoff when dhv1 in {800 inf}

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# Author: Ferdi Franceschini (ffr@ansto.gov.au)
source $cfPath(anticollider)/anticollider_common.tcl
# NOTE: This is called with a list of motorname target pairs
proc ::anticollider::enable {args} {
if {[SplitReply [::anticollider::protect_detector]] == "false"} {
return "false"
} else {
return "true"
}
}
::anticollider::loadscript acscript.txt

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fileeval $cfPath(beamline)/sct_hv.tcl
::scobj::hv::mkHV {
name "hv"
IP localhost
PORT 55010
tuning 1
interval 3
}

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###########################################################################################################################
# @file Proptocols between SICS and High Voltage Controller
#
# This is a driver for SICS to make following communication with the High Voltage Controller
#
#
# 1. SICS uses TCP/IP protocol to interact with the HV component who shall provide an IP address
# together with an port number.
#
# 2. Commands From SICS to HV component,
# 1. HV_START hv1=xxx, i1=xxx, hv2=xxx, i2=xxx
# :: Responses from HV component back to SICS are either
# OK (if the system start correctly), or
# Error Message (if the system does not start normally, the error message shall indicate
# type of the errors)
#
# 2. HV_STOP (This will stop/shutdown the HV component totally)
#
# 3. HV_RESET (This will reset the HV component using the hv/i values specified in the Gumtree client GUI)
# :: Responses from HV component back to SICS are either
# OK (if the system start correctly), or
# Error Message (if the system does not start normally, the error message will indicate type of the errors)
#
# 4. HV_STATUS (This command will send to HV component automatically and regularly, i.e. every 1 sec)
# :: Responses from HV component back to SICS is "hv1=xxx, i1=xxx, hv2=xxx, i2=xxx, system=rampingup;\n",
# SICS uses this information to update their values in the SICS system and on the Gumtree client as well.
#
# 3. HV parameters to be dsiaplyed on the Gumtree GUI are, hv1, i1, hv2, i2, system
#
# Author: Jing Chen (jgn@ansto.gov.au) July 2011
#
# The HV Controller can be installed with the following command,
# ::scobj::hv::mkHV {
# name "hv"
# IP localhost
# PORT 55010
# tuning 1
# interval 1
#
##############################################################################################################################
namespace eval ::scobj::hv {
}
proc ::scobj::hv:setting {par} {
set newPara [sct target]
if{[sct oldStatus] != $newPara} {
set oldStatus $newPara
switch $par {
"hv1" {set comm "hv_set hv1 $newPara"}
"hv2" {set comm "hv_set hv2 $newPara"}
"i1" {set comm "hv_set i1 $newPara"}
"i2" {set comm "hv_set i2 $newPara"}
default {error "ERROR: illegal parameters, try "hv1","hv2","i1" or "i2""
return idle}
}
sct send $comm
return checkReply
} else {
return idle
}
}
proc ::scobj::hv::checkReplyFunc {basePath} {
set replyStr [sct result]
#analysis the reply from the HV Device
if {[string first "Error" $replyStr] != -1} {
broadcast "ERROR command, check again!!"
}
hset $basePath/msg $replyStr
return idle
}
##
# @brief send "hv_get" command to the HV device and obtain the latest values of those parameters
proc ::scobj::hv::getParaFunc {} {
set comm "hv_get"
sct send $comm
return rdParaState
}
##
# @brief Read and record the parameters' values from the HV device
proc ::scobj::hv::rdParaStateFunc {basePath} {
set replyStr [sct result]
#broadcast "Reply from hv_get: $replyStr"
if {[string first "Error" $replyStr] != -1} {
broadcast "ERROR: cannot get the current parameters setting from the HV device, check again!"
} elseif {$replyStr != [sct oldval]} {
sct oldval $replyStr
broadcast "oldval = [sct oldval]"
set s1 [string trimright $replyStr "\n"]
set s2 [split $s1 "=;"]
array set paraArr $s2
hset $basePath/hv1 $paraArr(hv1)
hset $basePath/i1 $paraArr(i1)
hset $basePath/hv2 $paraArr(hv2)
hset $basePath/i2 $paraArr(i2)
#broadcast "HV1:$paraArr(hv1); I1:$paraArr(i1); HV2:$paraArr(hv2); I2:$paraArr(i2)\n"
sct utime readtime
}
return idle
}
##
# @brief Make a HV Controller
#
# @param argList, {name "hv" IP localhost PORT 65123 tuning 1 interval 1}
#
# name: name of hv controller object
# IP: IP address of RF generator moxa box
# PORT: Port number assigned to the generator on the moxa-box
# tuning: boolean, set tuning=1 to allow instrument scientists to set the axe positions
# interval: polling and ramping interval in seconds.
proc ::scobj::hv::mkHV {argList} {
# Generate parameter array from the argument list
foreach {k v} $argList {
set KEY [string toupper $k]
set pa($KEY) $v
}
MakeSICSObj $pa(NAME) SCT_OBJECT
sicslist setatt $pa(NAME) klass instrument
sicslist setatt $pa(NAME) long_name $pa(NAME)
hsetprop /sics/$pa(NAME) status "IDLE"
hfactory /sics/$pa(NAME)/hv1 plain user int
hfactory /sics/$pa(NAME)/hv2 plain user int
hfactory /sics/$pa(NAME)/i1 plain user int
hfactory /sics/$pa(NAME)/i2 plain user int
hfactory /sics/$pa(NAME)/msg plain user text
#makesctcontroller sct_hv rfamp $pa(IP):$pa(PORT)
makesctcontroller sct_hv std $pa(IP):$pa(PORT)
hfactory /sics/$pa(NAME)/status plain user text
hsetprop /sics/$pa(NAME)/status read ::scobj::hv::getParaFunc
hsetprop /sics/$pa(NAME)/status rdParaState ::scobj::hv::rdParaStateFunc /sics/$pa(NAME)
hsetprop /sics/$pa(NAME)/status oldval UNKNOWN
hset /sics/$pa(NAME)/status idle
hsetprop /sics/$pa(NAME)/status tuning $pa(TUNING)
# Initialise properties required for generating the API for GumTree and to save data
::scobj::hinitprops $pa(NAME) hv1 i1 hv2 i2 msg
sct_hv poll /sics/$pa(NAME)/status $pa(INTERVAL)
if {$pa(TUNING)} {
hfactory /sics/$pa(NAME)/set_hv1 plain user int
hfactory /sics/$pa(NAME)/set_hv2 plain user int
hfactory /sics/$pa(NAME)/set_i1 plain user int
hfactory /sics/$pa(NAME)/set_i2 plain user int
::scobj::hinitprops $pa(NAME) status set_hv1 set_hv2 set_i1 set_i2
hsetprop /sics/$pa(NAME)/set_hv1 write ::scobj::hv:setting "hv1"
hsetprop /sics/$pa(NAME)/set_hv1 checkReply ::scobj::hv::checkReplyFunc /sics/$pa(NAME)
hsetprop /sics/$pa(NAME)/set_hv1 oldStatus UNKNOWN
hsetprop /sics/$pa(NAME)/set_hv2 write ::scobj::hv:setting "hv2"
hsetprop /sics/$pa(NAME)/set_hv2 checkReply ::scobj::hv::checkReplyFunc /sics/$pa(NAME)
hsetprop /sics/$pa(NAME)/set_hv2 oldStatus UNKNOWN
hsetprop /sics/$pa(NAME)/set_i1 write ::scobj::hv:setting "i1"
hsetprop /sics/$pa(NAME)/set_i1 checkReply ::scobj::hv::checkReplyFunc /sics/$pa(NAME)
hsetprop /sics/$pa(NAME)/set_i1 oldStatus UNKNOWN
hsetprop /sics/$pa(NAME)/set_i2 write ::scobj::hv:setting "i2"
hsetprop /sics/$pa(NAME)/set_i2 checkReply ::scobj::hv::checkReplyFunc /sics/$pa(NAME)
hsetprop /sics/$pa(NAME)/set_i2 oldStatus UNKNOWN
sct_hv write /sics/$pa(NAME)/set_hv1 $pa(INTERVAL)
sct_hv write /sics/$pa(NAME)/set_hv2 $pa(INTERVAL)
sct_hv write /sics/$pa(NAME)/set_i1 $pa(INTERVAL)
sct_hv write /sics/$pa(NAME)/set_i2 $pa(INTERVAL)
}
}

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namespace eval ::scobj::chopper {
# MakeSICSObj disk_chopper SCT_OBJECT user int
# sicslist setatt disk_chopper klass NXdisk_chopper
# sicslist setatt disk_chopper long_name disk_chopper
proc sndMBquery {rdScript cmd nextReq} {
set chN [sct chopper]
sct nextSndReq $nextReq
sct send "$chN:$cmd"
return $rdScript
}
proc sndMBset {root cmd} {
set val [sct target]
#TODO convert val to appropriate units, if [convfact] then val = val * [sct convfact]
sct send "$cmd:$val"
sct target 0
return RDSETREPLY
}
proc rdStatus {root statnode fields} {
set currCh [sct chopper]
set chPath $root/ch$currCh/$statnode
set oldval [hgetpropval $chPath oldval]
set val [sct result]
if {[string match "ASCERR:*" $val]} {
sct geterror $val
return idle
}
if {$val != $oldval} {
hsetprop $chPath oldval $val
binary scan [binary format c $val] B* binNum
set bitfield [split $binNum ""]
foreach n $fields b $bitfield {
hset $chPath/$n $b
}
}
return [sct nextSndReq]
}
proc rdSysStatus {root nodes} {
# Read status byte and set nodes for each bit
set currCh [sct chopper]
set chPath $root/ch$currCh/system_status
set oldval [hgetpropval $chPath oldval]
set val [sct result]
if {[string match "ASCERR:*" $val]} {
sct geterror $val
return idle
}
if {$val != $oldval} {
hsetprop $chPath oldval $val
binary scan [binary format c $val] B* binNum
set bitfield [split $binNum ""]
binary scan [binary format c $oldval] B* oldbinNum
set oldbitfield [split $oldbinNum ""]
foreach n $nodes b $bitfield ob $oldbitfield {
if {$b != $ob} {
hset $chPath/$n $b
}
}
}
return [sct nextSndReq]
}
proc rdIntLkStatus {root nodes} {
# Read status byte and set nodes for each bit
set currCh [sct chopper]
set chPath $root/ch$currCh/intlck_status
set oldval [hgetpropval $chPath oldval]
set val [sct result]
if {[string match "ASCERR:*" $val]} {
sct geterror $val
return idle
}
if {$val != $oldval} {
hsetprop $chPath oldval $val
binary scan [binary format c $val] B* binNum
set bitfield [split $binNum ""]
binary scan [binary format c $oldval] B* oldbinNum
set oldbitfield [split $oldbinNum ""]
foreach n $nodes b $bitfield ob $oldbitfield {
if {$b != $ob} {
hset $chPath/$n $b
}
}
}
return [sct nextSndReq]
}
##
# Reads a list of values in the result and assigns them to the nodes in the args list
proc rdVal {root nodes} {
set currCh [sct chopper]
set values [sct result]
set chPath $root/ch$currCh
if {[string match "ASCERR:*" $values]} {
sct geterror $values
hset $chPath/device_error $values
return idle
}
if {[hval $chPath/device_error] != ""} {
hset $chPath/device_error ""
}
foreach n $nodes v $values {
set oldval [hval $chPath/$n]
# if {$n == "speed_setpt"} {
# broadcast rdVal,$n $chPath/$n: oldval=$oldval, v=$v
# }
if {$v != $oldval} {
# if {$n == "speed_setpt"} {
# broadcast rdVal,$n: hset $chPath/$n $v
# }
hset $chPath/$n $v
}
}
set nextReq [sct nextSndReq]
if {$nextReq == "NXTCHOPPER"} {
if {$currCh < [sct chMax] } {
incr currCh
sct chopper $currCh
} else {
sct chopper 1
return idle
}
}
return $nextReq
}
proc rdSetCmdReply {root chPath} {
set reply [sct result]
if {[string match "ASCERR:*" $reply]} {
sct geterror $reply
hset $chPath/device_error $reply
return idle
}
if {[hval $chPath/device_error] != ""} {
hset $chPath/device_error ""
}
sct_fermi queue $root progress read
return idle
}
# Create chopper control
set scobjNS ::scobj::chopper
set sim_mode false
set pollrate 5
MakeSICSObj fermi_chopper SCT_OBJECT user int
sicslist setatt fermi_chopper klass NXfermi_chopper
set fermiPath /sics/fermi_chopper
::scobj::hinitprops fermi_chopper
if {$sim_mode == "false"} {
makesctcontroller sct_fermi tcpmodbus 137.157.202.213:502
}
hsetprop $fermiPath chopper 1
set intlck_fields {test_mode cc_shutdown_req dsp_summ_shtdwn cooling_loss spd_sensor_loss ref_sig_loss over_temp vac_fail overspeed_or_breakfail cc_wd_fail ext_fault ups_fail emerg_stop pos_alarm osc_fail dsp_wd_fail}
set chMax 1
hsetprop $fermiPath chMax $chMax
for {set chN 1} {$chN <= $chMax} {incr chN} {
set chname ch$chN
sicslist setatt fermi_chopper klass NXfermi_chopper
sicslist setatt fermi_chopper long_name fermi_chopper
hfactory $fermiPath/$chname plain user float
set chPath $fermiPath/$chname
hfactory $chPath/device_error plain user text
foreach field {
system_status intlck_status rotation_speed
phase_veto_count phase_nonveto_count phase_acc
phase_rep phase_ok vetowin100ns
vetowin50ns mode speed_setpt
prop_gain int_gain phase_gain
ref_delay ref_period sync_srce motdir idle_toggle
} {
hfactory $fermiPath/$chname/$field plain user float
}
hsetprop $chPath/system_status oldval "UNKNOWN"
hsetprop $chPath/intlck_status oldval "UNKNOWN"
foreach field {
avc_on motdir phase_locked lev_complete alarm run up_to_speed ok
} {
hfactory $fermiPath/$chname/system_status/$field plain user int
}
foreach field $intlck_fields {
hfactory $fermiPath/$chname/intlck_status/$field plain user int
}
hfactory $chPath/control plain user none
hfactory $chPath/control/device_error plain user text
foreach {n cmd} [subst -nocommands {
set_rotspeed "$chN:16:1000:1:U32"
set_prop_gain "$chN:16:1004:1:F32"
set_int_gain "$chN:16:1006:1:F32"
set_phase_gain "$chN:16:1008:1:F32"
set_ref_delay "$chN:16:1010:1:U32"
set_ref_period "$chN:16:1012:1:U32"
set_sync_source "$chN:16:1014:1:U32"
set_motor_dir "$chN:16:1016:1:U32"
start "$chN:5:1"
stop "$chN:5:2"
idle_toggle "$chN:5:3"
reset "$chN:5:4"
}] {
hfactory $chPath/control/$n plain user float
hsetprop $chPath/control/$n write ${scobjNS}::sndMBset $chPath $cmd
hsetprop $chPath/control/$n RDSETREPLY ${scobjNS}::rdSetCmdReply $fermiPath $chPath/control
if {$sim_mode == "false"} {
sct_fermi write $chPath/control/$n
}
}
}
# Each Req chains to a rdVal proc which chains to the next req
# Add a next state property
#TODO Read idle_toggle status
hsetprop $fermiPath nextSndReq "UNKNOWN"
hsetprop $fermiPath read ${scobjNS}::sndMBquery "RDSYSSTAT" "3:10:1:U16" "INTLKREQ"
hsetprop $fermiPath "NXTCHOPPER" ${scobjNS}::sndMBquery "RDSYSSTAT" "3:10:1:U16" "INTLKREQ"
hsetprop $fermiPath "INTLKREQ" ${scobjNS}::sndMBquery "RDINTLKSTAT" "3:12:1:U16" "ROTSPDREQ"
hsetprop $fermiPath "ROTSPDREQ" ${scobjNS}::sndMBquery "RDROTSPD" "3:14:1:U16" "VETOINF"
hsetprop $fermiPath "VETOINF" ${scobjNS}::sndMBquery "RDVETOINF" "3:18:2:U32" "PHASEINF"
hsetprop $fermiPath "PHASEINF" ${scobjNS}::sndMBquery "RDPHASEINF" "3:24:3:F32" "VETO"
hsetprop $fermiPath "VETO" ${scobjNS}::sndMBquery "RDVETO" "3:30:3:U32" "ROTSPSET"
hsetprop $fermiPath "ROTSPSET" ${scobjNS}::sndMBquery "RDROTSPSET" "3:1000:1:U32" "GAINPHASE"
hsetprop $fermiPath "GAINPHASE" ${scobjNS}::sndMBquery "RDGAINPHASE" "3:1004:3:F32" "SYNMOTDIR"
hsetprop $fermiPath "SYNMOTDIR" ${scobjNS}::sndMBquery "RDSYNMOTDIR" "3:1010:4:U32" "IDLETOGGLE"
hsetprop $fermiPath "IDLETOGGLE" ${scobjNS}::sndMBquery "RDIDLE" "1:3:1" "NXTCHOPPER"
hsetprop $fermiPath "RDSYSSTAT" ${scobjNS}::rdStatus $fermiPath system_status {avc_on motdir phase_locked lev_complete alarm run up_to_speed ok}
hsetprop $fermiPath "RDINTLKSTAT" ${scobjNS}::rdStatus $fermiPath intlck_status $intlck_fields
hsetprop $fermiPath "RDROTSPD" ${scobjNS}::rdVal $fermiPath rotation_speed
hsetprop $fermiPath "RDVETOINF" ${scobjNS}::rdVal $fermiPath {phase_veto_count phase_nonveto_count}
hsetprop $fermiPath "RDPHASEINF" ${scobjNS}::rdVal $fermiPath {phase_acc phase_rep phase_ok}
hsetprop $fermiPath "RDVETO" ${scobjNS}::rdVal $fermiPath {vetowin100ns vetowin50ns mode}
hsetprop $fermiPath "RDROTSPSET" ${scobjNS}::rdVal $fermiPath speed_setpt
hsetprop $fermiPath "RDGAINPHASE" ${scobjNS}::rdVal $fermiPath {prop_gain int_gain phase_gain}
hsetprop $fermiPath "RDSYNMOTDIR" ${scobjNS}::rdVal $fermiPath {ref_delay ref_period sync_srce motdir}
hsetprop $fermiPath "RDIDLE" ${scobjNS}::rdVal $fermiPath idle_toggle
if {$sim_mode == "false"} {
sct_fermi poll $fermiPath $pollrate
sct_fermi queue $fermiPath progress read
}
}

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# Author : Jing Chen (jgn@ansto.gov.au)
source $cfPath(commands)/commands_common.tcl
namespace eval motor {
# is_homing_list = comma separated list of motors which are safe to send "home"
variable is_homing_list ""
}
proc ::commands::isc_initialize {} {
::commands::ic_initialize
}

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# Drive the 3 Monochromator blades as a "bunch"
#
# Author: Jing Chen, jgn@ansto.gov.au
#
# Date: 11/11/2011
# get a specified parameter value of a motor
proc getSetting {mot field} {
switch $field {
"position" {
set tmpStr1 [$mot]
set tmpStr2 [split $tmpStr1 "="]
array set tmpstr3 $tmpStr2
set ind "$mot "
return $tmpstr3($ind)
}
"softlowerlim" {
set tmpStr1 [$mot softlowerlim]
set tmpStr2 [split $tmpStr1 "="]
array set tmpstr3 $tmpStr2
set ind "$mot.softlowerlim "
return $tmpstr3($ind)
}
"softupperlim" {
set tmpStr1 [$mot softupperlim]
set tmpStr2 [split $tmpStr1 "="]
array set tmpstr3 $tmpStr2
set ind "$mot.softupperlim "
return $tmpstr3($ind)
}
}
}
# DriveMono: drive the 3 Monochromators to translate as a "bunch"
proc DriveMono {mot focus} {
variable currAngleMoma
variable currAngleMomb
variable currAngleMomc
variable mraPosition
variable mraSoftlowerlim
variable mraSoftupperlim
variable mrbPosition
variable mrbSoftlowerlim
variable mrbSoftupperlim
variable mrcPosition
variable mrcSoftlowerlim
variable mrcSoftupperlim
variable translateDis
variable moveFlag
# set moveFlag to 1 to move the three motors
set moveFlag 1
# Record current angle positions of the three motors
set currAngleMoma [getSetting moma position]
set currAngleMomb [getSetting momb position]
set currAngleMomc [getSetting momc position]
# Get current focus positions of the three motors mra, mrb and mrc
set mraPosition [getSetting mra position]
set mrbPosition [getSetting mrb position]
set mrcPosition [getSetting mrc position]
# Get soft lower/upper limits of mra, mrb and mrc
set mraSoftlowerlim [getSetting mra softlowerlim]
set mraSoftupperlim [getSetting mra softupperlim]
set mrbSoftlowerlim [getSetting mrb softlowerlim]
set mrbSoftupperlim [getSetting mrb softupperlim]
set mrcSoftlowerlim [getSetting mrc softlowerlim]
set mrcSoftupperlim [getSetting mrc softupperlim]
# Calculate moving distance
set translateDis [expr $focus - [getSetting $mot position]]
# Determine if the movement is within the ranges of the three motors
if {[expr $mraPosition + $translateDis] > $mraSoftupperlim ||
[expr $mraPosition + $translateDis] < $mraSoftlowerlim} {
broadcast "Error: the movement is out of the range limit of motor mra"
set moveFlag 0
}
if {[expr $mrbPosition + $translateDis] > $mrbSoftupperlim ||
[expr $mrbPosition + $translateDis] < $mrbSoftlowerlim} {
broadcast "Error: the movement is out of the range limit of motor mrb"
set moveFlag 0
}
if {[expr $mrcPosition + $translateDis] > $mrcSoftupperlim ||
[expr $mrcPosition + $translateDis] < $mrcSoftlowerlim} {
broadcast "Error: the movement is out of the range limit of motor mrc"
set moveFlag 0
}
# move the three motors
if {$moveFlag == 1} {
# Unlock the three motors
mra fixed -1
mrb fixed -1
mrc fixed -1
drive moma $currAngleMomb momc $currAngleMomb
drive mra [expr $mraPosition + $translateDis] mrb [expr $mrbPosition + $translateDis] mrc [expr $mrcPosition + $translateDis]
drive moma $currAngleMoma momc $currAngleMomc
# Lock the three motors again
mra fixed 1
mrb fixed 1
mrc fixed 1
}
}
publish DriveMono user

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source $cfPath(counter)/counter_common_1.tcl
## TODO Put all the counter macros in the counter namespace
namespace eval counter {
variable isc_numchannels
variable isc_monitor_address
variable isc_portlist
variable isc_beam_monitor_list
proc set_sobj_attributes {} {
}
}
proc ::counter::isc_initialize {} {
if [catch {
variable isc_numchannels
variable isc_monitor_address
variable isc_portlist
variable isc_beam_monitor_list {MONITOR_1 MONITOR_2 MONITOR_3}
set isc_monitor_address "das1-[SplitReply [instrument]]"
set isc_portlist [list 33000 33001 33002 33003 33004 33005 33006 33007]
set isc_numchannels [llength $isc_beam_monitor_list]
::counter::ic_initialize
} message ] {
if {$::errorCode=="NONE"} {return $message}
return -code error "$message"
}
}

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source $cfPath(hipadaba)/hipadaba_configuration_common.tcl

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# Author Jing Chen (jgn@ansto.gove.au)
source $cfPath(hmm)/hmm_configuration_common_1.tcl
source $cfPath(hmm)/hmm_cylindrical_detector_configuration.tcl
set sim_mode [SplitReply [hmm_simulation]]
proc ::histogram_memory::init_OAT_TABLE {} {
if [ catch {
OAT_TABLE X -setdata MAX_CHAN 8
OAT_TABLE Y -setdata MAX_CHAN 1024
OAT_TABLE X -setdata BMIN -0.5
OAT_TABLE X -setdata BMAX 7.5
OAT_TABLE Y -setdata BMIN -0.5
OAT_TABLE Y -setdata BMAX 1023.5
OAT_TABLE -set X { 7.5 6.5 } NXC 8 Y { -0.5 0.5 } NYC 1024 T { 0 200000 } NTC 1
} message ] {
if {$::errorCode=="NONE"} {return $message}
return -code error $message
}
}
proc CAT_TABLE {args} {
return {
<CAT>
<WIX APPLY="ENABLE" MIN_RAW="0" MAX_RAW="7" TABLE_SIZE="8">
<link_numeric_file filename="../../kookaburra_wix.dat" default_filename="../HMconfig/Default/kookaburra_wix.dat" />
</WIX>
<OFFSET_Y_PER_X APPLY="ENABLE" MIN_RAW="0" MAX_RAW="7" TABLE_SIZE="8" BASE_VAL="0">
<link_numeric_file filename="../../kookaburra_offset_y_per_x.dat" default_filename="../HMconfig/Default/kookaburra_offset_y_per_x.dat" />
</OFFSET_Y_PER_X>
<MAGNIFY APPLY="ENABLE" MIN_RAW="0" MAX_RAW="7" TABLE_SIZE="8" DIRECTION="X" MAX_IN="1023" MAX_OUT="1023" RANGE="UNSIGNED">
<link_numeric_file filename="../../kookaburra_magnify.dat" default_filename="../HMconfig/Default/kookaburra_magnify.dat" />
</MAGNIFY>
</CAT>
}
}
proc ::histogram_memory::init_CAT_TABLE {} {
CAT_TABLE -set MESYTEC_MPSD8_CHANNEL_GAINS {
1.00 1.00 1.00 1.00 1.00 1.00 1.00 1.00
}
CAT_TABLE -set MESYTEC_MPSD8_THRESHOLDS { 10 }
CAT_TABLE -set MESYTEC_TUBE_PAIR_RESISTANCE_RATIOS {
1. 1. 1. 1. 1. 1. 1. 1.
}
CAT_TABLE -set MESYTEC_TUBE_MAGNIFICATIONS {
1. 1. 1. 1. 1. 1. 1. 1.
}
CAT_TABLE -set MESYTEC_TUBE_OFFSETS {
0. 0. 0. 0. 0. 0. 0. 0.
}
CAT_TABLE -set MESYTEC_TUBE_HISTOGRAM_WEIGHTS {
1 1 1 1 1 1 1 1
}
}
##
# @brief Return the detector position
proc ::histogram_memory::detector_posn_degrees {} {
return [SplitReply [stth]]
}
proc ::histogram_memory::pre_count {} {}
proc ::histogram_memory::post_count {} {}
proc ::histogram_memory::isc_initialize {} {
# Instrument specific X and Y dimension names
variable INST_NXC "oat_nxc_eff"
variable INST_NYC "oat_nyc_eff"
if [ catch {
::histogram_memory::init_hmm_objs
if {$::sim_mode == "true"} {
hmm configure oat_ntc_eff 1
hmm configure $INST_NYC 1024
hmm configure $INST_NXC 8
}
BAT_TABLE -init
# CAT_TABLE -init
SAT_TABLE -init
OAT_TABLE -init
FAT_TABLE -init
::histogram_memory::ic_initialize
::histogram_memory::set_graphtype "two_theta" "boundaries"
# MJL TODO detector geometry for Kookaburra TBD. Figures need revision during commissioning
# Width = 25mm spacing * 8 tubes = 5000mm (??? degree coverage)
# Height = 1015mm (tube length)
# Radius = 2400mm
detector_active_height_mm 1015
detector_active_height_mm lock
detector_active_width_mm 5000
detector_active_width_mm lock
detector_radius_mm 2400.0
detector_radius_mm lock
# hmm configure FAT_SIMULATED_EVENT_Y0 $y_bb0
# hmm configure FAT_SIMULATED_EVENT_Y1 $ybbmax
# hmm configure FAT_SIMULATED_EVENT_X0 $x_bb0
# hmm configure FAT_SIMULATED_EVENT_X1 $xbbmax
::histogram_memory::init_OAT_TABLE
::histogram_memory::init_SAT_TABLE
# ::histogram_memory::init_CAT_TABLE
::histogram_memory::upload_config Filler_defaults
set ::histogram_memory::histmem_axes(HOR) /instrument/detector/x_pixel_angular_offset
set ::histogram_memory::histmem_axes(VER) /instrument/detector/y_pixel_offset
} message ] {
if {$::errorCode=="NONE"} {return $message}
return -code error $message
}
}
proc histmem {cmd args} {
eval "_histmem $cmd $args"
}
publish histmem user

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@@ -0,0 +1,14 @@
###
# Oscillating collimator control
# oscmd start n -- will run the oscillator motor rco for n cycles and send a stop to the histmem
MakeOscillator oscmd rco
proc rco_cb {} {
hmm pause
}
publish rco_cb user
scriptcallback connect rco MOTEND rco_cb

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@@ -0,0 +1,860 @@
# Author: Jing Chen (jgn@ansto.gov.au)
# All Motors are 25000 steps per motor revolution
# SET TO 1 TO USE THE TILT STAGE ie sample phi and chi
set use_tiltstage 0
set animal kookaburra
set sim_mode [SplitReply [motor_simulation]]
# Setup addresses of Galil DMC2280 controllers.
set dmc2280_controller1(host) mc1-$animal
set dmc2280_controller1(port) pmc1-$animal
set dmc2280_controller2(host) mc2-$animal
set dmc2280_controller2(port) pmc2-$animal
set dmc2280_controller3(host) mc3-$animal
set dmc2280_controller3(port) pmc3-$animal
set dmc2280_controller4(host) mc4-$animal
set dmc2280_controller4(port) pmc4-$animal
set dmc2280_controller5(host) mc5-$animal
set dmc2280_controller5(port) pmc5-$animal
set dmc2280_controller6(host) mc6-$animal
set dmc2280_controller6(port) pmc6-$animal
if {$sim_mode == "true"} {
set motor_driver_type asim
} else {
set motor_driver_type DMC2280
# MakeAsyncQueue mc1 DMC2280 $dmc2280_controller1(host) $dmc2280_controller1(port)
# MakeAsyncQueue mc2 DMC2280 $dmc2280_controller2(host) $dmc2280_controller2(port)
MakeAsyncQueue mc3 DMC2280 $dmc2280_controller3(host) $dmc2280_controller3(port)
MakeAsyncQueue mc4 DMC2280 $dmc2280_controller4(host) $dmc2280_controller4(port)
# MakeAsyncQueue mc6 DMC2280 $dmc2280_controller6(host) $dmc2280_controller6(port)
}
#Measured absolute encoder reading at home position
set dummy_Home 0
set ftz_Home 0
set ptz_Home 0
set pom_Home 0
set stth_Home 0
set mtth_Home 0
set sv1_Home 0
set sh1_Home 0
set sv2_Home 0
set sh2_Home 0
set gom_Home 0
set scor_Home 0
# AND abs Encoder Reading with FFF to get the lowest 12 bits only
#set mra_Home 4286
set mra_Home 191
#set moma_Home 8386659
set moma_Home 2147
#set mrb_Home 294
set mrb_Home 294
#set momb_Home 8386694
set momb_Home 2182
#set mrc_Home 4558982
set mrc_Home 86
#set momc_Home 12499198
set momc_Home 2302
set mphi_Home 0
set mchi_Home 8383096
set mx_Home 8390604
set my_Home 8391084
set mom_Home 8389414
set rco_Home 0
set rcz_Home 0
set bsr_Home 0
set gv1_Home 0
set gv2_Home 0
# set movecount high to reduce the frequency of
# hnotify messages to a reasonable level
set move_count 100
############################
# Motor Controller 1
# Motor Controller 1
# Motor Controller 1
############################
#
# Dummy translation motor, useful for testing scans
#Motor dummy_motor asim [params \
asyncqueue mc1\
host mc1-kookaburra\
port pmc1-kookaburra\
axis A\
units mm\
hardlowerlim -500\
hardupperlim 500\
maxSpeed 1\
maxAccel 5\
maxDecel 5\
stepsPerX [expr 25000.0/5.0]\
absEnc 1\
absEncHome $dummy_Home\
cntsPerX [expr 8192.0/5.0]]
#dummy_motor part instrument
#dummy_motor long_name dummy_motor
#dummy_motor softlowerlim -500
#dummy_motor softupperlim 500
#dummy_motor home 0
# mc1: Polariser & Spin Flipper - Z translation slide
# Moto: 100:1 gear, 2mm pitch
set ptzStepRate [expr (300000.0/100.0)/2.0]
Motor ptz $motor_driver_type [params \
asyncqueue mc1\
host mc1-kookaburra\
port pmc1-kookaburra\
axis B\
units mm\
hardlowerlim 0\
hardupperlim 500\
maxSpeed [expr 400000.0/300000.0]\
maxAccel [expr 150000.0/300000.0]\
maxDecel [expr 150000.0/300000.0]\
stepsPerX $ptzStepRate\
absEnc 1\
absEncHome $ptz_Home\
cntsPerX 4096]
ptz part crystal
ptz long_name ptz
ptz softlowerlim 0
ptz softupperlim 500
ptz home 0
#if $use_tiltstage {
# mc1: Beryllium / Graphite filter shared - Z translation slide
# Moto: 100:1 gear, 2mm pitch
set ftzStepRate [expr (300000.0/100.0)/2.0]
Motor ftz $motor_driver_type [params \
asyncqueue mc1\
host mc1-kookaburra\
port pmc1-kookaburra\
axis C\
units mm\
hardlowerlim 0\
hardupperlim 500\
maxSpeed [expr 400000.0/300000.0]\
maxAccel [expr 150000.0/300000.0]\
maxDecel [expr 150000.0/300000.0]\
stepsPerX $ftzStepRate\
absEnc 1\
absEncHome $ftz_Home\
cntsPerX 4096]
ftz part crystal
ftz long_name ftz
ftz softlowerlim 0
ftz softupperlim 500
ftz home 0
}
# mc1: Polariser (& Spin Flipper) - Rotation + - 2 deg about polariser (i.e, The Elbow)
set pomSetRate 25000
Motor pom $motor_driver_type [params \
asyncqueue mc1\
host mc1-kookaburra\
port pmc1-kookaburra\
axis E\
units degrees\
hardlowerlim 0\
hardupperlim 2\
maxSpeed [expr 250000.0/$pomSetRate]\
maxAccel [expr 25000.0/$pomSetRate]\
maxDecel [expr 25000.0/$pomSetRate]\
stepsPerX $pomSetRate\
absEnc 1\
absEncHome $pom_Home\
cntsPerX 4096]
pom part crystal
pom long_name pom
pom softlowerlim 0
pom softupperlim 2
pom home 0
# mc1: Sample/Detector Chamber Rotation (Detector)
set stthSetRate 25000
Motor stth $motor_driver_type [params \
asyncqueue mc1\
host mc1-kookaburra\
port pmc1-kookaburra\
axis F\
units degrees\
hardlowerlim -125\
hardupperlim 8\
maxSpeed [expr 150000.0/$stthSetRate]\
maxAccel [expr 5000.0/$stthSetRate]\
maxDecel [expr 5000.0/$stthSetRate]\
stepsPerX $stthSetRate\
absEnc 1\
absEncHome $stth_Home\
cntsPerX 4096]
stth part detector
stth long_name stth
stth softlowerlim -125
stth softupperlim 8
stth home 0
# mc1: Instrument Drive System (Main Drive)
set mtthSetRate 25000
Motor mtth $motor_driver_type [params \
asyncqueue mc1\
host mc1-kookaburra\
port pmc1-kookaburra\
axis G\
units mm\
hardlowerlim 40\
hardupperlim 140\
maxSpeed [expr 150000.0/$mtthSetRate]\
maxAccel [expr 25000.0/$mtthSetRate]\
maxDecel [expr 25000.0/$mtthSetRate]\
stepsPerX $mtthSetRate\
absEnc 1\
absEncHome $mtth_Home\
cntsPerX 4096]
mtth part detector
mtth long_name mtth
mtth softlowerlim 40
mtth softupperlim 140
mtth home 0
############################
# Motor Controller 2
# Motor Controller 2
# Motor Controller 2
############################
#
# mc2: Slits Set AB1- (After Beryllium Filter) (2 blades and 1 Motor & Encoder set)
set sv1SetRate 25000
Motor sv1 $motor_driver_type [params \
asyncqueue mc2\
host mc2-kookaburra\
port pmc2-kookaburra\
axis A\
units mm\
hardlowerlim -2\
hardupperlim 60\
maxSpeed [expr 25000.0/$sv1SetRate]\
maxAccel [expr 25000.0/$sv1SetRate]\
maxDecel [expr 25000.0/$sv1SetRate]\
stepsPerX $sv1SetRate\
absEnc 1\
absEncHome $sv1_Home\
cntsPerX 4096]
sv1 part aperture
sv1 long_name sv1
sv1 softlowerlim -2
sv1 softupperlim 60
sv1 home 0
# mc2: Slits Set AB2- (After Beryllium Filter) (2 blades and 1 Motor & Encoder set)
set sh1SetRate 25000
Motor sh1 $motor_driver_type [params \
asyncqueue mc2\
host mc2-kookaburra\
port pmc2-kookaburra\
axis B\
units mm\
hardlowerlim -2\
hardupperlim 50\
maxSpeed [expr 25000.0/$sh1SetRate]\
maxAccel [expr 25000.0/$sh1SetRate]\
maxDecel [expr 25000.0/$sh1SetRate]\
stepsPerX $sh1SetRate\
absEnc 1\
absEncHome $sh1_Home\
cntsPerX 4096]
sh1 part aperture
sh1 long_name sh1
sh1 softlowerlim -2
sh1 softupperlim 50
sh1 home 0
# mc2: Slits Set AF1- (After Fermi Chopper) (2 blades and 1 Motor & Encoder set)
set sv2SetRate 25000
Motor sv2 $motor_driver_type [params \
asyncqueue mc2\
host mc2-kookaburra\
port pmc2-kookaburra\
axis C\
units mm\
hardlowerlim -2\
hardupperlim 40\
maxSpeed [expr 25000.0/$sv2SetRate]\
maxAccel [expr 25000.0/$sv2SetRate]\
maxDecel [expr 25000.0/$sv2SetRate]\
stepsPerX $sv2SetRate\
absEnc 1\
absEncHome $sv2_Home\
cntsPerX 4096]
sv2 part aperture
sv2 long_name sv2
sv2 softlowerlim -2
sv2 softupperlim 40
sv2 home 0
# mc2: Slits Set AF2- (After Fermi Chopper) (2 blades and 1 Motor & Encoder set)
set sh2SetRate 25000
Motor sh2 $motor_driver_type [params \
asyncqueue mc2\
host mc2-kookaburra\
port pmc2-kookaburra\
axis D\
units mm\
hardlowerlim -2\
hardupperlim 30\
maxSpeed [expr 25000.0/$sh2SetRate]\
maxAccel [expr 25000.0/$sh2SetRate]\
maxDecel [expr 25000.0/$sh2SetRate]\
stepsPerX $sh2SetRate\
absEnc 1\
absEncHome $sh2_Home\
cntsPerX 4096]
sh2 part aperture
sh2 long_name sh2
sh2 softlowerlim -2
sh2 softupperlim 30
sh2 home 0
# mc2: Graphite filter rotation stage (post 1st slit and post 1st Fermi chopper)
set gomSetRate 25000
Motor gom $motor_driver_type [params \
asyncqueue mc2\
host mc2-kookaburra\
port pmc2-kookaburra\
axis E\
units degrees\
hardlowerlim 0\
hardupperlim 15\
maxSpeed [expr 50000.0/$gomSetRate]\
maxAccel [expr 25000.0/$gomSetRate]\
maxDecel [expr 25000.0/$gomSetRate]\
stepsPerX $gomSetRate\
absEnc 1\
absEncHome $gom_Home\
cntsPerX 4096]
gom part sample
gom long_name gom
gom softlowerlim 0
gom softupperlim 15
gom home 0
# mc2: Sample rotation correction - 10 deg rotation
set scorSetRate 25000
Motor scor $motor_driver_type [params \
asyncqueue mc2\
host mc2-kookaburra\
port pmc2-kookaburra\
axis F\
units degrees\
hardlowerlim 0\
hardupperlim 360\
maxSpeed [expr 50000.0/$scorSetRate]\
maxAccel [expr 25000.0/$scorSetRate]\
maxDecel [expr 25000.0/$scorSetRate]\
stepsPerX $scorSetRate\
absEnc 1\
absEncHome $scor_Home\
cntsPerX 4096]
scor part sample
scor long_name scor
scor softlowerlim 0
scor softupperlim 360
scor home 0
############################
# Motor Controller 3
# Motor Controller 3
# Motor Controller 3
############################
#
# ROTATION STAGES 120:1 PLUS GEARBOX 8:1
# ROTATION STAGE RESOLVER 360:55
# FOCUS STAGE GEARBOX 6:1
# FOCUS STAGE RESOLVER DIRECT 310 DEG, 3527 COUNTS USABLE RANGE
# Computes Monochromator step rates (steps per degree) of focusing and Rotation
# 1 unit here is 1 degree
set monoRotateStepsPerUnit [expr 25000.0*8.0*120.0/360.0]
# Encode reading at the roation, 1 unit here is 1 degree
set MonoRotateCntsPerUnit [expr 4096.0*360.0/55.0/360.0]
# Setup Focus range as min = 0 and max = 1, working range = 0 to 1 (310 degrees)
# or, 0 for full focus and 1 for non focus
# Focusing rate 25000 steps * 6:1 gears = 150000, 1 unit here is 310 degrees
set monoFocusStepsPerUnit [expr -25000.0*6.0*310.0/360.0]
# Encode reading at Focusing stage, 1 unit here is 310 degrees
set monoFocusCntsPerUnit [expr 4096.0*310.0/360.0]
# Max speed for Focusing , -- currently set as 0.083
# speed unit here is 310 degrees
set monoFocusSpeed 0.05
set monoFocusMaxSpeed 0.083
# Precision setting turn/move, or 310*turn/move (degrees)
set monoFocusprecision 0.001
# mc3: Monochromator Focusing 1 - Focus
Motor mra $motor_driver_type [params \
asyncqueue mc3\
host mc3-kookaburra\
port pmc3-kookaburra\
axis A\
units degrees\
hardlowerlim 0\
hardupperlim 1\
precision $monoFocusprecision\
maxSpeed $monoFocusMaxSpeed\
maxAccel [expr 25000.0/25000.0]\
maxDecel [expr 25000.0/25000.0]\
stepsPerX $monoFocusStepsPerUnit\
absEnc 1\
absEncHome $mra_Home\
bias_bits 12\
cntsPerX $monoFocusCntsPerUnit]
mra speed $monoFocusSpeed
mra accel $monoFocusSpeed
mra decel $monoFocusSpeed
mra part crystal
mra long_name mra
mra softlowerlim 0
mra softupperlim 1
mra home 0
# fix the motor
mra fixed -1
# mc3: Monochromator Focusing 1 - Rotation
Motor moma $motor_driver_type [params \
asyncqueue mc3\
host mc3-kookaburra\
port pmc3-kookaburra\
axis B\
units degrees\
hardlowerlim -72.003174\
hardupperlim -20.0379\
maxSpeed 0.5\
maxAccel 0.5\
maxDecel 0.5\
stepsPerX $monoRotateStepsPerUnit\
absEnc 1\
absEncHome $moma_Home\
bias_bits 12\
cntsPerX $MonoRotateCntsPerUnit]
moma part crystal
moma long_name moma
moma softlowerlim -70
moma softupperlim -20.537842
moma home -45
# mc3: Monochromator Focusing 2 - Focus
Motor mrb $motor_driver_type [params \
asyncqueue mc3\
host mc3-kookaburra\
port pmc3-kookaburra\
axis C\
units degrees\
hardlowerlim 0\
hardupperlim 1\
precision $monoFocusprecision\
maxSpeed $monoFocusMaxSpeed\
maxAccel [expr 25000.0/25000.0]\
maxDecel [expr 25000.0/25000.0]\
stepsPerX $monoFocusStepsPerUnit\
absEnc 1\
absEncHome $mrb_Home\
bias_bits 12\
cntsPerX $monoFocusCntsPerUnit]
mrb speed $monoFocusSpeed
mrb accel $monoFocusSpeed
mrb decel $monoFocusSpeed
mrb part crystal
mrb long_name mrb
mrb softlowerlim 0
mrb softupperlim 1
mrb home 0
# fix the motor
mrb fixed -1
# mc3: Monochromator Focusing 2 - Rotation
Motor momb $motor_driver_type [params \
asyncqueue mc3\
host mc3-kookaburra\
port pmc3-kookaburra\
axis D\
units degree\
hardlowerlim -72.003174\
hardupperlim -20.198975\
maxSpeed 0.5\
maxAccel 0.5\
maxDecel 0.5\
stepsPerX $monoRotateStepsPerUnit\
absEnc 1\
absEncHome $momb_Home\
bias_bits 12\
cntsPerX $MonoRotateCntsPerUnit]
momb part crystal
momb long_name momb
momb softlowerlim -70
momb softupperlim -20.698975
momb home -45
# mc3: Monochromator Focusing 3 - Focus
Motor mrc $motor_driver_type [params \
asyncqueue mc3\
host mc3-kookaburra\
port pmc3-kookaburra\
axis E\
units degrees\
hardlowerlim 0\
hardupperlim 1\
precision $monoFocusprecision\
maxSpeed $monoFocusMaxSpeed\
maxAccel [expr 25000.0/25000.0]\
maxDecel [expr 25000.0/25000.0]\
stepsPerX $monoFocusStepsPerUnit\
absEnc 1\
absEncHome $mrc_Home\
bias_bits 12\
cntsPerX $monoFocusCntsPerUnit]
mrc speed $monoFocusSpeed
mrc accel $monoFocusSpeed
mrc decel $monoFocusSpeed
mrc part crystal
mrc long_name mrc
mrc softlowerlim 0
mrc softupperlim 1
mrc home 0
# fix the motor
mrc fixed -1
# mc3: Monochromator Focusing 3 - Rotation
Motor momc $motor_driver_type [params \
asyncqueue mc3\
host mc3-kookaburra\
port pmc3-kookaburra\
axis F\
units degree\
hardlowerlim -72.003174\
hardupperlim -21.246338\
maxSpeed 0.5\
maxAccel 0.5\
maxDecel 0.5\
stepsPerX $monoRotateStepsPerUnit\
absEnc 1\
absEncHome $momc_Home\
bias_bits 12\
cntsPerX $MonoRotateCntsPerUnit]
momc part crystal
momc long_name momc
momc softlowerlim -70
momc softupperlim -21.746338
momc home -45
############################
# Motor Controller 4
# Motor Controller 4
# Motor Controller 4
############################
#
# mc4: Monochromator crystal stages tilt stage - G270
set mphiSetRate 25000
Motor mphi $motor_driver_type [params \
asyncqueue mc4\
host mc4-kookaburra\
port pmc4-kookaburra\
axis A\
units degrees\
hardlowerlim -5\
hardupperlim 5\
maxSpeed [expr 50000.0/25000.0]\
maxAccel [expr 12500.0/25000.0]\
maxDecel [expr 12500.0/25000.0]\
stepsPerX $mphiSetRate\
absEnc 1\
absEncHome $mphi_Home\
cntsPerX 4096]
mphi part crystal
mphi long_name mphi
mphi softlowerlim -5
mphi softupperlim 5
mphi home 0
# mc4: Monochromator crystal stages tilt stage - G350
set mchiSetRate 25000
Motor mchi $motor_driver_type [params \
asyncqueue mc4\
host mc4-kookaburra\
port pmc4-kookaburra\
axis B\
units degrees\
hardlowerlim -5\
hardupperlim 5\
maxSpeed [expr 50000.0/25000.0]\
maxAccel [expr 12500.0/25000.0]\
maxDecel [expr 12500.0/25000.0]\
stepsPerX $mchiSetRate\
absEnc 1\
absEncHome $mchi_Home\
cntsPerX 4096]
mchi part crystal
mchi long_name mchi
mchi softlowerlim -5
mchi softupperlim 5
mchi home 0
mchi speed 0.2
mchi accel 0.1
mchi decel 0.1
# mc4: Monochromator crystal stages Linear stage X - T250
set mxSetRate 25000
Motor mx $motor_driver_type [params \
asyncqueue mc4\
host mc4-kookaburra\
port pmc4-kookaburra\
axis C\
units mm\
hardlowerlim -20\
hardupperlim 20\
maxSpeed [expr 50000.0/25000.0]\
maxAccel [expr 12500.0/25000.0]\
maxDecel [expr 12500.0/25000.0]\
stepsPerX $mxSetRate\
absEnc 1\
absEncHome $mx_Home\
cntsPerX 4096]
mx part crystal
mx long_name mx
mx softlowerlim -20
mx softupperlim 20
mx home 0
mx speed 1.0
# mc4: Monochromator crystal stages Linear stage Y - T250
set mySetRate 25000
Motor my $motor_driver_type [params \
asyncqueue mc4\
host mc4-kookaburra\
port pmc4-kookaburra\
axis D\
units mm\
hardlowerlim -20\
hardupperlim 20\
maxSpeed [expr 50000.0/25000.0]\
maxAccel [expr 12500.0/25000.0]\
maxDecel [expr 12500.0/25000.0]\
stepsPerX $mySetRate\
absEnc 1\
absEncHome $my_Home\
cntsPerX 4096]
my part crystal
my long_name my
my softlowerlim -10
my softupperlim 10
my home 0
my speed 1.0
# mc4: Monochromator crystal stages Rotation stage - R275
set momSetRate 25000
Motor mom $motor_driver_type [params \
asyncqueue mc4\
host mc4-kookaburra\
port pmc4-kookaburra\
axis E\
units degrees\
hardlowerlim -15\
hardupperlim 15\
maxSpeed [expr 50000.0/25000.0]\
maxAccel [expr 12500.0/25000.0]\
maxDecel [expr 12500.0/25000.0]\
stepsPerX $momSetRate\
absEnc 1\
absEncHome $mom_Home\
cntsPerX 4096]
mom speed 0.5
mom part crystal
mom long_name mom
mom softlowerlim -15
mom softupperlim 15
mom home 0
############################
# Motor Controller 6
# Motor Controller 6
# Motor Controller 6
############################
#
# mc6: Radial Collimator -- Oscillator
Motor rco $motor_driver_type [params \
asyncqueue mc6\
host mc6-kookaburra\
port pmc6-kookaburra\
axis A\
units mm\
hardlowerlim 0\
hardupperlim 180\
maxSpeed 50000\
maxAccel 60000\
maxDecel 60000\
stepsPerX 4096\
absEnc 1\
absEncHome $rco_Home\
cntsPerX 4096]
rco part collimator
rco long_name rco
rco softlowerlim 0
rco softupperlim 180
rco home 0
# mc6: Radial Collimator -- Z Translation
Motor rcz $motor_driver_type [params \
asyncqueue mc6\
host mc6-kookaburra\
port pmc6-kookaburra\
axis B\
units mm\
hardlowerlim 0\
hardupperlim 180\
maxSpeed 50000\
maxAccel 60000\
maxDecel 60000\
stepsPerX 4096\
absEnc 1\
absEncHome $rcz_Home\
cntsPerX 4096]
rcz part collimator
rcz long_name rcz
rcz softlowerlim 0
rcz softupperlim 180
rcz home 0
# mc6: Beam Stop Stage - Rotation
Motor bsr $motor_driver_type [params \
asyncqueue mc6\
host mc6-kookaburra\
port pmc6-kookaburra\
axis C\
units degrees\
hardlowerlim 0\
hardupperlim 180\
maxSpeed 50000\
maxAccel 60000\
maxDecel 60000\
stepsPerX 4096\
absEnc 1\
absEncHome $bsr_Home\
cntsPerX 4096]
bsr part sample
bsr long_name bsr
bsr softlowerlim 0
bsr softupperlim 180
bsr home 0
# mc6: Isolation Vaue -- Axis 1, currently this Axis is set to read ONLY to read the encoder
Motor gv1 $motor_driver_type [params \
asyncqueue mc6\
host mc6-kookaburra\
port pmc6-kookaburra\
axis E\
units degrees\
hardlowerlim 0\
hardupperlim 180\
maxSpeed 50000\
maxAccel 60000\
maxDecel 60000\
stepsPerX 4096\
absEnc 1\
absEncHome $gv1_Home\
cntsPerX 4096]
gv1 part sample
gv1 long_name gv1
gv1 softlowerlim 0
gv1 softupperlim 180
gv1 home 0
# fix the motor
gv1 fixed -1
# mc6: Isolation Vaue -- Axis 2, currently this Axis is set to read ONLY to read the encoder
Motor gv2 $motor_driver_type [params \
asyncqueue mc6\
host mc6-kookaburra\
port pmc6-kookaburra\
axis F\
units degrees\
hardlowerlim 0\
hardupperlim 180\
maxSpeed 30000\
maxAccel 60000\
maxDecel 60000\
stepsPerX 4096\
absEnc 1\
absEncHome $gv2_Home\
cntsPerX 4096]
gv2 part sample
gv2 long_name gv2
gv2 softlowerlim 0
gv2 softupperlim 180
gv2 home 0
# fix the motor
gv2 fixed -1
proc motor_set_sobj_attributes {} {
}
# END MOTOR CONFIGURATION
# According to http://www.nexusformat.org/Design units must conform to
# http://www.unidata.ucar.edu/software/udunits/udunits-1/udunits.txt
# So we use "count" for dimensionless decimal numbers
#set vc_units count
#make_coll_motor_2 c1 section_1 pc1 pc2 $vc_units
#make_coll_motor_1 c2 section_2 pc3 $vc_units
#make_coll_motor_1 c3 section_3 pc4 $vc_units
#make_coll_motor_1 c4 section_4 pc5 $vc_units
#make_coll_motor_1 c5 section_5 pc6 $vc_units
#make_coll_motor_1 c6 section_6 pc7 $vc_units
#make_coll_motor_1 c7 section_7 pc8 $vc_units
#make_coll_motor_1 c8 section_8 pc9 $vc_units
#make_coll_motor_1 c9 section_9 pc10 $vc_units
#unset vc_units

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# Author: Jing Chen (jgn@ansto.gov.au)
source $cfPath(motors)/sct_positmotor_common.tcl
set port1 [portnum pmc1-kookaburra]
set port2 [portnum pmc2-kookaburra]
set port3 [portnum pmc3-kookaburra]
set port4 [portnum pmc4-kookaburra]
set port5 [portnum pmc5-kookaburra]
set port6 [portnum pmc6-kookaburra]
makesctcontroller sct_mc1 std mc1-kookaburra:$port1
makesctcontroller sct_mc2 std mc2-kookaburra:$port2
makesctcontroller sct_mc3 std mc3-kookaburra:$port3
makesctcontroller sct_mc4 std mc4-kookaburra:$port4
makesctcontroller sct_mc5 std mc5-kookaburra:$port5
makesctcontroller sct_mc6 std mc6-kookaburra:$port6
# label pos
#index position
set 20sample_table {
1 453.7
2 411.7
3 369.7
4 327.7
5 285.7
6 203.7
7 161.7
8 119.7
9 77.7
10 35.7
11 -46.3
12 -88.3
13 -130.3
14 -172.3
15 -214.3
16 -296.3
17 -338.3
18 -380.3
19 -422.3
20 -464.3
}
#mkPosit sct_mc1 sampleNum float samx sample $20sample_table
#diameter position
set auto_ap_table {
2.5 0
5.0 -23
7.5 -47
10.0 -72
12.5 -98
15.0 -125
17.5 -153
20.0 -183
25.0 -215
30.0 -250
}
#mkPosit sct_mc3 diameter float apx sample $auto_ap_table

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all:
clean:

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source $cfPath(nexus)/nxscripts_common_1.tcl
proc ::nexus::isc_initialize {} {
::nexus::ic_initialize
}

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set sim_mode [SplitReply [plc_simulation]]
if {$sim_mode == "false"} {
# MakeAsyncQueue plc_chan SafetyPLC 137.157.204.79 31001
# MakeSafetyPLC plc plc_chan 0
}
source $cfPath(plc)/plc_common_1.tcl

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source $cfPath(scan)/scan_common_1.tcl
proc ::scan::pre_hmm_scan_prepare {} {}
proc ::scan::isc_initialize {} {
::scan::ic_initialize
}

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# Author Jing Chen (jgn@ansto.gov.au)
source $cfPath(source)/source_common.tcl
proc ::source::isc_initialize {} {
::source::ic_initialize "thermal"
}