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sinqMotor/src/sinqAxis.cpp
smathis 6dc2b131f7
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Exempt EPICS libraries from -Weffc++
2025-09-17 12:33:58 +02:00

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// SPDX-License-Identifier: GPL-3.0-only
// The EPICS libaries do not follow -Weffc++
#pragma GCC diagnostic push
#pragma GCC diagnostic ignored "-Weffc++"
#include "epicsExport.h"
#include "iocsh.h"
#include <epicsTime.h>
#include <errlog.h>
#pragma GCC diagnostic pop
#include "msgPrintControl.h"
#include "sinqAxis.h"
#include "sinqController.h"
#include <math.h>
#include <unistd.h>
#define getControllerMethod pController
struct sinqAxisImpl {
// Internal variables used in the movement timeout watchdog
time_t expectedArrivalTime;
time_t offsetMovTimeout;
double scaleMovTimeout;
bool watchdogMovActive;
// Store the motor target position for the movement time calculation
double targetPosition;
bool wasMoving;
/*
Store the time since the last poll
*/
epicsTimeStamp lastPollTime;
};
sinqAxis::sinqAxis(class sinqController *pC, int axisNo)
: asynMotorAxis((asynMotorController *)pC, axisNo), pC_(pC), pSinqA_([] {
epicsTimeStamp lastPollTime;
epicsTimeGetCurrent(&lastPollTime);
return std::make_unique<sinqAxisImpl>(sinqAxisImpl{
.expectedArrivalTime = 0,
.offsetMovTimeout = 30,
.scaleMovTimeout = 2.0,
.watchdogMovActive = false,
.targetPosition = 0.0,
.wasMoving = false,
.lastPollTime = lastPollTime,
});
}()) {
asynStatus status = asynSuccess;
/*
This check is also done in asynMotorAxis, but there the IOC continues
running even though the configuration is incorrect. When failing this check,
the IOC is stopped, since this is definitely a configuration problem.
*/
if ((axisNo < 0) || (axisNo >= pC->numAxes())) {
asynPrint(pC_->pasynUser(), ASYN_TRACE_ERROR,
"Controller \"%s\", axis %d => %s, line %d:\nFATAL ERROR "
"(axis index %d is not in range 0 to %d)\n. Terminating IOC",
pC->portName, axisNo_, __PRETTY_FUNCTION__, __LINE__, axisNo,
pC->numAxes() - 1);
exit(-1);
}
/*
Initialize the parameter library entry for the motor message text, because
it is read during the first poll before it has been written to.
*/
status = setStringParam(pC_->motorMessageText(), "");
if (status != asynSuccess) {
asynPrint(pC_->pasynUser(), ASYN_TRACE_ERROR,
"Controller \"%s\", axis %d => %s, line %d:\nFATAL ERROR "
"(setting a parameter value failed "
"with %s)\n. Terminating IOC",
pC->portName, axisNo_, __PRETTY_FUNCTION__, __LINE__,
pC_->stringifyAsynStatus(status));
exit(-1);
}
// Motor is assumed to be enabled
status = setIntegerParam(pC_->motorEnableRBV(), 1);
if (status != asynSuccess) {
asynPrint(pC_->pasynUser(), ASYN_TRACE_ERROR,
"Controller \"%s\", axis %d => %s, line %d:\nFATAL ERROR "
"(setting a parameter value failed "
"with %s)\n. Terminating IOC",
pC->portName, axisNo_, __PRETTY_FUNCTION__, __LINE__,
pC_->stringifyAsynStatus(status));
exit(-1);
}
// By default, motors cannot be disabled
status = setIntegerParam(pC_->motorCanDisable(), 0);
if (status != asynSuccess) {
asynPrint(pC_->pasynUser(), ASYN_TRACE_ERROR,
"Controller \"%s\", axis %d => %s, line %d:\nFATAL ERROR "
"(setting a parameter value failed "
"with %s)\n. Terminating IOC",
pC->portName, axisNo_, __PRETTY_FUNCTION__, __LINE__,
pC_->stringifyAsynStatus(status));
exit(-1);
}
// Provide a default value for the motor position.
status = setDoubleParam(pC_->motorPosition(), 0.0);
if (status != asynSuccess) {
asynPrint(pC_->pasynUser(), ASYN_TRACE_ERROR,
"Controller \"%s\", axis %d => %s, line %d:\nFATAL ERROR "
"(setting a parameter value failed "
"with %s)\n. Terminating IOC",
pC->portName, axisNo_, __PRETTY_FUNCTION__, __LINE__,
pC_->stringifyAsynStatus(status));
exit(-1);
}
// Assume that the motor is connected initially
status = setIntegerParam(pC_->motorConnected(), 1);
if (status != asynSuccess) {
asynPrint(pC_->pasynUser(), ASYN_TRACE_ERROR,
"Controller \"%s\", axis %d => %s, line %d:\nFATAL ERROR "
"(setting a parameter value failed "
"with %s)\n. Terminating IOC",
pC->portName, axisNo_, __PRETTY_FUNCTION__, __LINE__,
pC_->stringifyAsynStatus(status));
exit(-1);
}
// We assume that the motor has no status problems initially
status = setIntegerParam(pC_->motorStatusProblem(), 0);
if (status != asynSuccess) {
asynPrint(pC_->pasynUser(), ASYN_TRACE_ERROR,
"Controller \"%s\", axis %d => %s, line %d:\nFATAL ERROR "
"(setting a parameter value failed "
"with %s)\n. Terminating IOC",
pC->portName, axisNo_, __PRETTY_FUNCTION__, __LINE__,
pC_->stringifyAsynStatus(status));
exit(-1);
}
// Set the homing-related flags
status = setIntegerParam(pC_->motorStatusHome(), 0);
if (status != asynSuccess) {
asynPrint(pC_->pasynUser(), ASYN_TRACE_ERROR,
"Controller \"%s\", axis %d => %s, line %d:\nFATAL ERROR "
"(setting a parameter value failed "
"with %s)\n. Terminating IOC",
pC->portName, axisNo_, __PRETTY_FUNCTION__, __LINE__,
pC_->stringifyAsynStatus(status));
exit(-1);
}
status = setIntegerParam(pC_->motorStatusHomed(), 0);
if (status != asynSuccess) {
asynPrint(pC_->pasynUser(), ASYN_TRACE_ERROR,
"Controller \"%s\", axis %d => %s, line %d:\nFATAL ERROR "
"(setting a parameter value failed "
"with %s)\n. Terminating IOC",
pC->portName, axisNo_, __PRETTY_FUNCTION__, __LINE__,
pC_->stringifyAsynStatus(status));
exit(-1);
}
status = setIntegerParam(pC_->motorStatusAtHome(), 0);
if (status != asynSuccess) {
asynPrint(pC_->pasynUser(), ASYN_TRACE_ERROR,
"Controller \"%s\", axis %d => %s, line %d:\nFATAL ERROR "
"(setting a parameter value failed "
"with %s)\n. Terminating IOC",
pC->portName, axisNo_, __PRETTY_FUNCTION__, __LINE__,
pC_->stringifyAsynStatus(status));
exit(-1);
}
}
sinqAxis::~sinqAxis() = default;
asynStatus sinqAxis::poll(bool *moving) {
int adaptivePolling = 0;
/*
If adaptive polling is enabled:
- Check if the motor was moving during the last poll
- If yes, perform the poll
- If no, check if the last poll was at least an idlePollPeriod ago
- If yes, perform the poll
- If no, skip it
*/
getAxisParamChecked(this, adaptivePolling, &adaptivePolling);
// Using the EPICS timestamp here, see
// https://docs.epics-controls.org/projects/base/en/latest/epicsTime_h.html#_CPPv414epicsTimeStamp
// Get the current time
epicsTimeStamp ts;
epicsTimeGetCurrent(&ts);
/*
Check if both adaptive polling is enabled and no forced fast polls are still
required.
*/
if (adaptivePolling != 0 && pC_->outstandingForcedFastPolls() == 0 &&
!pSinqA_->wasMoving) {
// Add the idle poll period
epicsTimeStamp earliestTimeNextPoll = pSinqA_->lastPollTime;
epicsTimeAddSeconds(&earliestTimeNextPoll, pC_->idlePollPeriod());
if (epicsTimeLessThanEqual(&earliestTimeNextPoll, &ts) == 0) {
*moving = false;
return asynSuccess;
}
}
return forcedPoll(moving);
}
asynStatus sinqAxis::forcedPoll(bool *moving) {
// Local variable declaration
asynStatus pl_status = asynSuccess;
asynStatus poll_status = asynSuccess;
int homing = 0;
char waitingMessage[pC_->MAXBUF_] = {0};
char newMessage[pC_->MAXBUF_] = {0};
// Update the start time of the last poll
epicsTimeStamp ts;
epicsTimeGetCurrent(&ts);
pSinqA_->lastPollTime = ts;
/*
If the "motorMessageText" record currently contains an error message, it
should be shown for at least one poll period. To assure this, it is read out
here from the paramLib into "waitingMessage". If no new error message was
added to the parameter library at the end of the poll cycle, the
"waitingMessage" is briefly put into the paramLib again, then the PVs are
updated and then the message text is cleared again.
*/
getAxisParamChecked(this, motorMessageText,
static_cast<char *>(waitingMessage));
// Clear the communication
setAxisParamChecked(this, motorStatusCommsError, false);
/*
The poll function is just a wrapper around doPoll and handles mainly the
callParamCallbacks() function. This wrapper is used to make sure
callParamCallbacks() is called in case of a premature return.
*/
poll_status = doPoll(moving);
/*
If the poll did not succeed OR if an error message is waiting, something
went wrong and the motor has a status problem. Otherwise, delete the error
message entry which is currently in the paramLib.
*/
if (poll_status != asynSuccess || waitingMessage[0] != '\0') {
/*
If doPoll cleared the error message paramLib entry, but an old message
is still waiting, set the old message.
*/
getAxisParamChecked(this, motorMessageText,
static_cast<char *>(newMessage));
if (newMessage[0] == '\0') {
setAxisParamChecked(this, motorMessageText,
static_cast<char *>(waitingMessage));
}
setAxisParamChecked(this, motorStatusProblem, true);
} else {
// No errors are waiting -> Clear everything.
setAxisParamChecked(this, motorMessageText, "");
setAxisParamChecked(this, motorStatusProblem, false);
}
/*
Motor is in homing mode, was moving, but is not moving anymore -> It can be
assumed that the homing procedure is done.
*/
getAxisParamChecked(this, motorStatusHome, &homing);
if (homing == 1 && !(*moving) && pSinqA_->wasMoving) {
setAxisParamChecked(this, motorStatusHome, false);
setAxisParamChecked(this, motorStatusHomed, true);
setAxisParamChecked(this, motorStatusAtHome, true);
}
// Update the wasMoving status
if (pC_->outstandingForcedFastPolls() == 0) {
pSinqA_->wasMoving = *moving;
}
// Check and update the watchdog as well as the general poll status IF the
// poll did not fail already.
if (poll_status == asynSuccess) {
if (checkMovTimeoutWatchdog(*moving) != asynSuccess) {
poll_status = asynError;
}
}
// According to the function documentation of asynMotorAxis::poll, this
// function should be called at the end of a poll implementation.
pl_status = callParamCallbacks();
bool wantToPrint = pl_status != asynSuccess;
if (pC_->getMsgPrintControl().shouldBePrinted(
pC_->portName, axisNo_, __PRETTY_FUNCTION__, __LINE__, wantToPrint,
pC_->pasynUser())) {
asynPrint(pC_->pasynUser(), ASYN_TRACE_ERROR,
"Controller \"%s\", axis %d => %s, line "
"%d:\ncallParamCallbacks failed with %s.%s\n",
pC_->portName, axisNo_, __PRETTY_FUNCTION__, __LINE__,
pC_->stringifyAsynStatus(poll_status),
pC_->getMsgPrintControl().getSuffix());
}
if (wantToPrint) {
poll_status = pl_status;
}
/*
Delete the error message AFTER updating the PVs so it is not there anymore
during the next poll.
*/
setAxisParamChecked(this, motorMessageText, "");
return poll_status;
}
asynStatus sinqAxis::doPoll(bool *moving) {
// Suppress unused variable warning - this is just a default fallback
// function.
(void)moving;
return asynSuccess;
}
asynStatus sinqAxis::move(double position, int relative, double minVelocity,
double maxVelocity, double acceleration) {
// Status of parameter library operations
asynStatus status = asynSuccess;
double motorRecRes = 0.0;
// =========================================================================
// Store the target position internally
getAxisParamChecked(this, motorRecResolution, &motorRecRes);
pSinqA_->targetPosition = position * motorRecRes;
status = doMove(position, relative, minVelocity, maxVelocity, acceleration);
if (status != asynSuccess) {
return status;
}
status = assertConnected();
if (status != asynSuccess) {
return status;
}
// Since the move command was successfull, we assume that the motor has
// started its movement.
setAxisParamChecked(this, motorStatusHomed, false);
setAxisParamChecked(this, motorStatusAtHome, false);
// Needed for adaptive polling
pSinqA_->wasMoving = true;
return pC_->callParamCallbacks();
}
asynStatus sinqAxis::doMove(double position, int relative, double minVelocity,
double maxVelocity, double acceleration) {
// Suppress unused variable warning - this is just a default fallback
// function.
(void)position;
(void)relative;
(void)minVelocity;
(void)maxVelocity;
(void)acceleration;
return asynSuccess;
}
asynStatus sinqAxis::home(double minVelocity, double maxVelocity,
double acceleration, int forwards) {
asynStatus status = asynSuccess;
status = doHome(minVelocity, maxVelocity, acceleration, forwards);
if (status == asynSuccess) {
setAxisParamChecked(this, motorStatusHome, true);
setAxisParamChecked(this, motorStatusHomed, false);
setAxisParamChecked(this, motorStatusAtHome, false);
pSinqA_->wasMoving = true;
status = assertConnected();
if (status != asynSuccess) {
return status;
}
return pC_->wakeupPoller();
} else if (status == asynError) {
// asynError means that we tried to home an absolute encoder
setAxisParamChecked(this, motorMessageText,
"Can't home a motor with absolute encoder");
status = assertConnected();
if (status != asynSuccess) {
return status;
}
// Update the motor record
return callParamCallbacks();
} else {
// Bubble up all other problems
return status;
}
}
asynStatus sinqAxis::doHome(double minVelocity, double maxVelocity,
double acceleration, int forwards) {
// Suppress unused variable warning - this is just a default fallback
// function.
(void)minVelocity;
(void)maxVelocity;
(void)acceleration;
(void)forwards;
return asynSuccess;
}
asynStatus sinqAxis::reset() {
asynStatus status = doReset();
if (status == asynSuccess) {
// Perform some fast polls
pC_->wakeupPoller();
}
status = assertConnected();
if (status != asynSuccess) {
return status;
}
return status;
}
asynStatus sinqAxis::doReset() { return asynError; }
asynStatus sinqAxis::enable(bool on) {
// Suppress unused variable warning - this is just a default fallback
// function.
(void)on;
return asynSuccess;
}
asynStatus sinqAxis::motorPosition(double *motorPos) {
asynStatus status = asynSuccess;
double motorRecRes = 0.0;
getAxisParamChecked(this, motorRecResolution, &motorRecRes);
/*
We cannot use getAxisParamChecked checked here, since the name of the index
getter function of the controller and this function have the same name.
Therefore we implement this manually
*/
status = pC_->getDoubleParam(axisNo(), pC_->motorPosition(), motorPos);
if (status != asynSuccess) {
return pC_->paramLibAccessFailed(status, "motorPosition", axisNo(),
__PRETTY_FUNCTION__, __LINE__);
}
*motorPos = *motorPos * motorRecRes;
return status;
}
asynStatus sinqAxis::setMotorPosition(double motorPos) {
asynStatus status = asynSuccess;
double motorRecRes = 0.0;
getAxisParamChecked(this, motorRecResolution, &motorRecRes);
setAxisParamChecked(this, motorPosition, motorPos / motorRecRes);
return status;
}
asynStatus sinqAxis::assertConnected() {
int connected = 0;
getAxisParamChecked(this, motorConnected, &connected);
if (connected == 0) {
asynPrint(pC_->pasynUser(), ASYN_TRACE_ERROR,
"Controller \"%s\", axis %d => %s, line "
"%d:\nAxis is not connected, all commands are ignored.\n",
pC_->portName, axisNo(), __PRETTY_FUNCTION__, __LINE__);
}
return asynSuccess;
}
asynStatus sinqAxis::setVeloFields(double velo, double vbas, double vmax) {
asynStatus status = asynSuccess;
int variableSpeed = 0;
// Can the speed of the motor be varied?
getAxisParamChecked(this, motorCanSetSpeed, &variableSpeed);
if (variableSpeed == 1) {
// Check the inputs and create corresponding error messages
if (vbas > vmax) {
asynPrint(pC_->pasynUser(), ASYN_TRACE_ERROR,
"Controller \"%s\", axis %d => %s, line %d:\nLower speed "
"limit vbas=%lf must not be smaller than upper limit "
"vmax=%lf.\n",
pC_->portName, axisNo_, __PRETTY_FUNCTION__, __LINE__,
vbas, vmax);
setAxisParamChecked(this, motorMessageText,
"Lower speed limit must not be smaller than "
"upper speed limit. Please call the support.");
return asynError;
}
if (velo < vbas || velo > vmax) {
asynPrint(pC_->pasynUser(), ASYN_TRACE_ERROR,
"Controller \"%s\", axis %d => %s, line %d:\nActual "
"speed velo=%lf must be between lower limit vbas=%lf and "
"upper limit vmax=%lf.\n",
pC_->portName, axisNo_, __PRETTY_FUNCTION__, __LINE__,
velo, vbas, vmax);
setAxisParamChecked(
this, motorMessageText,
"Speed is not inside limits. Set a new valid speed and try "
"to move the motor. Otherwise, please call the support.");
return asynError;
}
setAxisParamChecked(this, motorVbasFromDriver, vbas);
setAxisParamChecked(this, motorVeloFromDriver, velo);
setAxisParamChecked(this, motorVmaxFromDriver, vmax);
} else {
// Set minimum and maximum speed equal to the set speed
setAxisParamChecked(this, motorVbasFromDriver, velo);
setAxisParamChecked(this, motorVeloFromDriver, velo);
setAxisParamChecked(this, motorVmaxFromDriver, velo);
}
return status;
}
asynStatus sinqAxis::setAcclField(double accl) {
if (accl <= 0.0) {
return asynError;
}
setAxisParamChecked(this, motorAcclFromDriver, accl);
return asynSuccess;
}
asynStatus sinqAxis::setWatchdogEnabled(bool enable) {
setAxisParamChecked(this, motorEnableMovWatchdog, enable);
return asynSuccess;
}
asynStatus sinqAxis::startMovTimeoutWatchdog() {
asynStatus pl_status;
int enableMovWatchdog = 0;
getAxisParamChecked(this, motorEnableMovWatchdog, &enableMovWatchdog);
if (enableMovWatchdog == 1) {
// These parameters are only needed in this branch
double motorPos = 0.0;
double motorVelocity = 0.0;
double motorVelocityRec = 0.0;
double motorAccel = 0.0;
double motorAccelRec = 0.0;
double motorRecRes = 0.0;
time_t timeContSpeed = 0;
time_t timeAccel = 0;
// Activate the watchdog
pSinqA_->watchdogMovActive = true;
/*
NOTE: This function must not be called in the constructor (e.g. in order
to save the read result to the member variable earlier), since the
parameter library is updated at a later stage!
*/
pl_status = motorPosition(&motorPos);
if (pl_status != asynSuccess) {
return pl_status;
}
/*
We use motorVelocity, which corresponds to the record field VELO.
From https://epics.anl.gov/docs/APS2015/14-Motor-Record.pdf:
* VELO = motorVelocity_ = Slew velocity
* VBAS = motorVelBase_ = Only used for stepper motors to minimize
resonance.
As documented in
https://epics.anl.gov/docs/APS2015/17-Motor-Driver.pdf, the
following relations apply: motorVelBase = VBAS / MRES motorVelocity
= VELO / MRES motorAccel = (motorVelocity - motorVelBase) / ACCL
Therefore, we need to correct the values from the parameter library.
*/
getAxisParamChecked(this, motorRecResolution, &motorRecRes);
// Read the velocity
getAxisParamChecked(this, motorVelocity, &motorVelocityRec);
// Only calculate timeContSpeed if the motorVelocity has been populated
// with a sensible value (e.g. > 0)
if (pl_status == asynSuccess && motorVelocityRec > 0.0) {
// Convert back to the value in the VELO field
motorVelocity = motorVelocityRec * motorRecRes;
if (pl_status == asynSuccess) {
timeContSpeed =
std::ceil(std::fabs(pSinqA_->targetPosition - motorPos) /
motorVelocity);
}
}
getAxisParamChecked(this, motorAccel, &motorAccelRec);
if (pl_status == asynSuccess && motorVelocityRec > 0.0 &&
motorAccelRec > 0.0) {
// Convert back to the value in the ACCL field
motorAccel = motorVelocityRec / motorAccelRec;
// Calculate the time
timeAccel = 2 * std::ceil(motorVelocity / motorAccel);
}
// Calculate the expected arrival time
pSinqA_->expectedArrivalTime =
time(NULL) + pSinqA_->offsetMovTimeout +
pSinqA_->scaleMovTimeout * (timeContSpeed + 2 * timeAccel);
} else {
pSinqA_->watchdogMovActive = false;
}
return asynSuccess;
}
asynStatus sinqAxis::checkMovTimeoutWatchdog(bool moving) {
int enableMovWatchdog = 0;
getAxisParamChecked(this, motorEnableMovWatchdog, &enableMovWatchdog);
// Not moving or watchdog not active / enabled
if (enableMovWatchdog == 0 || !moving || !pSinqA_->watchdogMovActive) {
pSinqA_->watchdogMovActive = false;
return asynSuccess;
}
// Create the unique callsite identifier manually so it can be used later in
// the shouldBePrinted calls.
msgPrintControlKey key = msgPrintControlKey(pC_->portName, axisNo_,
__PRETTY_FUNCTION__, __LINE__);
// Check if the expected time of arrival has been exceeded.
if (pSinqA_->expectedArrivalTime < time(NULL)) {
// Check the watchdog
if (pC_->getMsgPrintControl().shouldBePrinted(key, true,
pC_->pasynUser())) {
asynPrint(pC_->pasynUser(), ASYN_TRACE_ERROR,
"Controller \"%s\", axis %d => %s, line %d:\nExceeded "
"expected arrival time %ld (current time is %ld).\n",
pC_->portName, axisNo_, __PRETTY_FUNCTION__, __LINE__,
pSinqA_->expectedArrivalTime, time(NULL));
}
setAxisParamChecked(
this, motorMessageText,
"Exceeded expected arrival time. Check if the axis is blocked.");
setAxisParamChecked(this, motorStatusProblem, true);
} else {
pC_->getMsgPrintControl().resetCount(key, pC_->pasynUser());
}
// Even if the movement timed out, the rest of the poll should continue.
return asynSuccess;
}
asynStatus sinqAxis::setOffsetMovTimeout(time_t offsetMovTimeout) {
pSinqA_->offsetMovTimeout = offsetMovTimeout;
return asynSuccess;
}
asynStatus sinqAxis::setScaleMovTimeout(time_t scaleMovTimeout) {
pSinqA_->scaleMovTimeout = scaleMovTimeout;
return asynSuccess;
}
bool sinqAxis::wasMoving() { return pSinqA_->wasMoving; }
void sinqAxis::setWasMoving(bool wasMoving) { pSinqA_->wasMoving = wasMoving; }
double sinqAxis::targetPosition() { return pSinqA_->targetPosition; }
void sinqAxis::setTargetPosition(double targetPosition) {
pSinqA_->targetPosition = targetPosition;
}
// =============================================================================
// IOC shell functions
extern "C" {
/**
* @brief Enable / disable the watchdog (FFI implementation)
*
* @param portName Name of the controller
* @param axisNo Axis number
* @param enable If 0, disable the watchdog, otherwise enable
* it
* @return asynStatus
*/
asynStatus setWatchdogEnabled(const char *portName, int axisNo, int enable) {
sinqController *pC = (sinqController *)findAsynPortDriver(portName);
if (pC == nullptr) {
errlogPrintf("Controller \"%s\" => %s, line %d:\nPort %s not found.",
portName, __PRETTY_FUNCTION__, __LINE__, portName);
return asynError;
}
asynMotorAxis *asynAxis = pC->getAxis(axisNo);
sinqAxis *axis = dynamic_cast<sinqAxis *>(asynAxis);
if (axis == nullptr) {
errlogPrintf(
"Controller \"%s\", axis %d => %s, line %d:\nAxis does not "
"exist or is not an instance of sinqAxis.",
portName, axisNo, __PRETTY_FUNCTION__, __LINE__);
}
return axis->setWatchdogEnabled(enable != 0);
}
static const iocshArg setWatchdogEnabledArg0 = {"Controller port name",
iocshArgString};
static const iocshArg setWatchdogEnabledArg1 = {"Axis number", iocshArgInt};
static const iocshArg setWatchdogEnabledArg2 = {
"Enabling / disabling the watchdog", iocshArgInt};
static const iocshArg *const setWatchdogEnabledArgs[] = {
&setWatchdogEnabledArg0, &setWatchdogEnabledArg1, &setWatchdogEnabledArg2};
static const iocshFuncDef setWatchdogEnabledDef = {
"setWatchdogEnabled", 3, setWatchdogEnabledArgs,
"Set to 0 to disable the watchdog and to any other value to enable it."};
static void setWatchdogEnabledCallFunc(const iocshArgBuf *args) {
setWatchdogEnabled(args[0].sval, args[1].ival, args[2].ival);
}
// =============================================================================
/**
* @brief Set the offsetMovTimeout (FFI implementation)
*
* @param portName Name of the controller
* @param axisNo Axis number
* @param offsetMovTimeout Offset (in seconds)
* @return asynStatus
*/
asynStatus setOffsetMovTimeout(const char *portName, int axisNo,
double offsetMovTimeout) {
sinqController *pC;
pC = (sinqController *)findAsynPortDriver(portName);
if (pC == nullptr) {
errlogPrintf("Controller \"%s\" => %s, line %d:\nPort %s not found.",
portName, __PRETTY_FUNCTION__, __LINE__, portName);
return asynError;
}
asynMotorAxis *asynAxis = pC->getAxis(axisNo);
sinqAxis *axis = dynamic_cast<sinqAxis *>(asynAxis);
if (axis == nullptr) {
errlogPrintf("Controller \"%s\" => %s, line %d:\nAxis %d does not "
"exist or is not an instance of sinqAxis.",
portName, __PRETTY_FUNCTION__, __LINE__, axisNo);
}
return axis->setOffsetMovTimeout(offsetMovTimeout);
}
static const iocshArg setOffsetMovTimeoutArg0 = {"Controller port name",
iocshArgString};
static const iocshArg setOffsetMovTimeoutArg1 = {"Axis number", iocshArgInt};
static const iocshArg setOffsetMovTimeoutArg2 = {"Offset timeout for movement",
iocshArgDouble};
static const iocshArg *const setOffsetMovTimeoutArgs[] = {
&setOffsetMovTimeoutArg0, &setOffsetMovTimeoutArg1,
&setOffsetMovTimeoutArg2};
static const iocshFuncDef setOffsetMovTimeoutDef = {
"setOffsetMovTimeout", 3, setOffsetMovTimeoutArgs,
"Specify an offset (in seconds) for the movement timeout watchdog"};
static void setOffsetMovTimeoutCallFunc(const iocshArgBuf *args) {
setOffsetMovTimeout(args[0].sval, args[1].ival, args[2].dval);
}
// =============================================================================
/**
* @brief Set the setScaleMovTimeout (FFI implementation)
*
* @param portName Name of the controller
* @param axisNo Axis number
* @param scaleMovTimeout Scaling factor (in seconds)
* @return asynStatus
*/
asynStatus setScaleMovTimeout(const char *portName, int axisNo,
double scaleMovTimeout) {
sinqController *pC;
pC = (sinqController *)findAsynPortDriver(portName);
if (pC == nullptr) {
errlogPrintf("Controller \"%s\" => %s, line %d:\nPort %s not found.",
portName, __PRETTY_FUNCTION__, __LINE__, portName);
return asynError;
}
asynMotorAxis *asynAxis = pC->getAxis(axisNo);
sinqAxis *axis = dynamic_cast<sinqAxis *>(asynAxis);
if (axis == nullptr) {
errlogPrintf("Controller \"%s\" => %s, line %d:\nAxis %d does not "
"exist or is not an instance of sinqAxis.",
portName, __PRETTY_FUNCTION__, __LINE__, axisNo);
return asynError;
}
return axis->setScaleMovTimeout(scaleMovTimeout);
}
static const iocshArg setScaleMovTimeoutArg0 = {"Controller port name",
iocshArgString};
static const iocshArg setScaleMovTimeoutArg1 = {"Axis number", iocshArgInt};
static const iocshArg setScaleMovTimeoutArg2 = {
"Multiplier for calculated move time", iocshArgDouble};
static const iocshArg *const setScaleMovTimeoutArgs[] = {
&setScaleMovTimeoutArg0, &setScaleMovTimeoutArg1, &setScaleMovTimeoutArg2};
static const iocshFuncDef setScaleMovTimeoutDef = {
"setScaleMovTimeout", 3, setScaleMovTimeoutArgs,
"Set a scaling factor for the maximum expected movement time."};
static void setScaleMovTimeoutCallFunc(const iocshArgBuf *args) {
setScaleMovTimeout(args[0].sval, args[1].ival, args[2].dval);
}
// =============================================================================
// This function is made known to EPICS in sinqMotor.dbd and is called by EPICS
// in order to register all functions in the IOC shell
static void sinqAxisRegister(void) {
iocshRegister(&setOffsetMovTimeoutDef, setOffsetMovTimeoutCallFunc);
iocshRegister(&setScaleMovTimeoutDef, setScaleMovTimeoutCallFunc);
iocshRegister(&setWatchdogEnabledDef, setWatchdogEnabledCallFunc);
}
epicsExportRegistrar(sinqAxisRegister);
} // extern C