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/*
* Remote Laboratory Component Analyzer Part
*
* This program is free software; you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation; either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License along
* with this program; if not, write to the Free Software Foundation, Inc.,
* 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301 USA.
*
* (c) 2014 - 2019 Timothy Pearson
* Raptor Engineering
* http://www.raptorengineeringinc.com
*/
#include "define.h"
#include "part.h"
#include <tdeaboutdata.h> //::createAboutData()
#include <tdeaction.h>
#include <tdelocale.h>
#include <tdemessagebox.h> //::start()
#include <tdeparts/genericfactory.h>
#include <kurlrequester.h>
#include <tdefiledialog.h>
#include <kstatusbar.h>
#include <kstdaction.h>
#include <tqfile.h> //encodeName()
#include <tqtimer.h>
#include <tqvbox.h>
#include <tqsocket.h>
#include <tqmutex.h>
#include <tqeventloop.h>
#include <tqapplication.h>
#include <tqpushbutton.h>
#include <tqcombobox.h>
#include <tqcheckbox.h>
#include <klineedit.h>
#include <ktextedit.h>
#include <unistd.h> //access()
#include <stdint.h>
#include <cmath>
#include "layout.h"
#include "tracewidget.h"
#include "floatspinbox.h"
#define NETWORK_COMM_TIMEOUT_MS 15000
/* exception handling */
struct exit_exception {
int c;
exit_exception(int c):c(c) { }
};
namespace RemoteLab {
typedef KParts::GenericFactory<RemoteLab::CompAnalyzerPart> Factory;
#define CLIENT_LIBRARY "libremotelab_companalyzer"
K_EXPORT_COMPONENT_FACTORY( libremotelab_companalyzer, RemoteLab::Factory )
#ifndef QT_NO_DATASTREAM
TQDataStream &operator<<( TQDataStream &s, const CompAnalyzerMeasurement &data ) {
s << data.status;
s << data.parameter;
s << data.type;
s << data.value;
s << data.frequency;
return s;
}
TQDataStream &operator>>( TQDataStream &s, CompAnalyzerMeasurement &data ) {
s >> data.status;
s >> data.parameter;
s >> data.type;
s >> data.value;
s >> data.frequency;
return s;
}
#endif
CompAnalyzerWorker::CompAnalyzerWorker() : TQObject() {
m_sweepStepMutex = new TQMutex(false);
m_currentStateMutex = new TQMutex(false);
m_networkDataMutex = new TQMutex(false);
m_outboundQueueMutex = new TQMutex(false);
m_inboundQueueMutex = new TQMutex(false);
m_newData = false;
m_currentState = Initializing;
m_startupState = StartSelectInstrument;
m_lastNetworkTransmissionEvent = NoEvent;
}
CompAnalyzerWorker::~CompAnalyzerWorker() {
delete m_sweepStepMutex;
m_sweepStepMutex = NULL;
delete m_currentStateMutex;
m_currentStateMutex = NULL;
delete m_networkDataMutex;
m_networkDataMutex = NULL;
delete m_inboundQueueMutex;
m_inboundQueueMutex = NULL;
delete m_outboundQueueMutex;
m_outboundQueueMutex = NULL;
}
void CompAnalyzerWorker::run() {
TQEventLoop* eventLoop = TQApplication::eventLoop();
if (!eventLoop) {
return;
}
while (1) {
m_instrumentMutex->lock();
CompAnalyzerPartState state = currentState();
CompAnalyzerEventType lastTxEvent = m_lastNetworkTransmissionEvent;
// Handle inbound queue
m_inboundQueueMutex->lock();
if (m_inboundQueue.count() > 0) {
TQDataStream ds(m_socket);
ds.setPrintableData(true);
CompAnalyzerEventQueue::iterator it;
for (it = m_inboundQueue.begin(); it != m_inboundQueue.end(); ++it) {
if ((*it).first == TxRxSyncPoint) {
break;
}
else if ((*it).first == Initialize) {
setCurrentState(Initializing);
m_lastNetworkTransmissionEvent = OtherEvent;
ds << TQString("COMPONENT ANALYZER");
m_socket->writeEndOfFrame();
it = m_inboundQueue.erase(it);
}
else if ((*it).first == GetMeasurement) {
m_lastNetworkTransmissionEvent = GetMeasurement;
ds << TQString("GETMEASUREMENT");
m_socket->writeEndOfFrame();
it = m_inboundQueue.erase(it);
}
else if ((*it).first == GetMaximumFrequency) {
m_lastNetworkTransmissionEvent = GetMaximumFrequency;
ds << TQString("GETMAXMEASUREMENTFREQUENCY");
m_socket->writeEndOfFrame();
it = m_inboundQueue.erase(it);
}
else if ((*it).first == GetMinimumFrequency) {
m_lastNetworkTransmissionEvent = GetMinimumFrequency;
ds << TQString("GETMINMEASUREMENTFREQUENCY");
m_socket->writeEndOfFrame();
it = m_inboundQueue.erase(it);
}
else if ((*it).first == SetFrequency) {
m_lastNetworkTransmissionEvent = SetFrequency;
ds << TQString("SETMEASUREMENTFREQUENCY");
ds << (*it).second.toDouble();
m_socket->writeEndOfFrame();
it = m_inboundQueue.erase(it);
}
else if ((*it).first == ChangeMeasurementSource) {
m_lastNetworkTransmissionEvent = ChangeMeasurementSource;
TQ_UINT8 number_of_parameters = 2;
ds << TQString("SETMEASUREDPARAMETERS");
ds << number_of_parameters;
ds << m_sourceList[0];
ds << m_sourceList[1];
m_socket->writeEndOfFrame();
it = m_inboundQueue.erase(it);
}
// If the next command is a sync point stop command list execution
if ((*it).first == TxRxSyncPoint) {
break;
}
}
m_socket->flush();
}
m_inboundQueueMutex->unlock();
// Handle outbound queue
if (m_newData) {
bool queue_modified = false;
m_networkDataMutex->lock();
m_newData = false;
// Receive data
if (m_socket->canReadFrame()) {
TQDataStream ds(m_socket);
ds.setPrintableData(true);
while (!ds.atEnd() && m_socket->canReadFrame(false)) {
// Get command status
TQString input;
ds >> input;
if (input == "") {
continue;
}
// Response received
clearInboundQueueSyncPoint();
if (state == Initializing) {
if (input == "ACK") {
if (m_startupState == StartSelectInstrument) {
m_startupState = StartGetMaximumFrequency;
appendItemToInboundQueue(CompAnalyzerEvent(GetMaximumFrequency, TQVariant()), true);
}
else if (m_startupState == StartGetMaximumFrequency) {
ds >> m_instrumentLimits.maxFrequency;
m_startupState = StartGetMinimumFrequency;
appendItemToInboundQueue(CompAnalyzerEvent(GetMinimumFrequency, TQVariant()), true);
}
else if (m_startupState == StartGetMinimumFrequency) {
ds >> m_instrumentLimits.minFrequency;
// TODO
// This should be loaded from the instrument
// Add requisite functionality to the GPIB server and then
// update this routine to use it....
m_instrumentLimits.allowedMeasurements.clear();
AllowedMeasurementInfoList parameterASourceValues;
parameterASourceValues.append(AllowedMeasurementInfo(0, i18n("Resistance")));
parameterASourceValues.append(AllowedMeasurementInfo(2, i18n("Conductance")));
parameterASourceValues.append(AllowedMeasurementInfo(4, i18n("Inductance")));
parameterASourceValues.append(AllowedMeasurementInfo(5, i18n("Capacitance")));
parameterASourceValues.append(AllowedMeasurementInfo(8, i18n("Impedance")));
parameterASourceValues.append(AllowedMeasurementInfo(9, i18n("Admittance")));
parameterASourceValues.append(AllowedMeasurementInfo(10, i18n("Reflection Coefficient (Absolute)")));
parameterASourceValues.append(AllowedMeasurementInfo(11, i18n("Reflection Coefficient (X)")));
AllowedMeasurementInfoList parameterBSourceValues;
parameterBSourceValues.append(AllowedMeasurementInfo(0, i18n("Resistance")));
parameterBSourceValues.append(AllowedMeasurementInfo(2, i18n("Conductance")));
parameterBSourceValues.append(AllowedMeasurementInfo(6, i18n("Dissipation Factor")));
parameterBSourceValues.append(AllowedMeasurementInfo(7, i18n("Quality Factor")));
parameterBSourceValues.append(AllowedMeasurementInfo(13, i18n("Phase Angle (°)")));
parameterBSourceValues.append(AllowedMeasurementInfo(14, i18n("Phase Angle (radians)")));
m_instrumentLimits.allowedMeasurements.append(parameterASourceValues);
m_instrumentLimits.allowedMeasurements.append(parameterBSourceValues);
m_startupState = StartDone;
setCurrentState(FreeRunning);
// Request first measurement
appendItemToInboundQueue(CompAnalyzerEvent(GetMeasurement, TQVariant()), true);
// Notify GUI that new configuration data is available
m_outboundQueueMutex->lock();
m_outboundQueue.push_back(CompAnalyzerEvent(ConfigurationDataReceived, TQVariant()));
m_outboundQueueMutex->unlock();
}
}
else {
setCurrentState(CommunicationFailure);
}
queue_modified = true;
}
else if ((state == FreeRunning) || (state == FrequencySweepRead)) {
if (input == "ACK") {
if (lastTxEvent == GetMeasurement) {
int i;
CompAnalyzerMeasurement measurement;
CompAnalyzerMeasurementList measurements;
TQ_UINT8 number_of_parameters;
ds >> number_of_parameters;
for (i=0; i < number_of_parameters; i++) {
ds >> measurement.status;
ds >> measurement.parameter;
ds >> measurement.type;
ds >> measurement.value;
ds >> measurement.frequency;
measurements.append(measurement);
}
if (nextInboundQueueEvent() == StartSweep) {
eraseNextInboundQueueEvent(true);
// Set initial sweep frequency
m_sweepCurrentFrequency = m_sweepStart;
m_sweepStepMutex->lock();
m_sweepStepNumber = 0;
m_sweepStepMutex->unlock();
appendItemToInboundQueue(CompAnalyzerEvent(SetFrequency, TQVariant(m_sweepCurrentFrequency)), true);
setCurrentState(FrequencySweepWrite);
}
else if (nextInboundQueueEvent() == AbortSweep) {
eraseNextInboundQueueEvent(true);
// Exit sweep mode
setCurrentState(FreeRunning);
// Request measurement
appendItemToInboundQueue(CompAnalyzerEvent(GetMeasurement, TQVariant()), true);
}
else {
if (state == FrequencySweepRead) {
// Set up next measurement frequency
m_sweepCurrentFrequency += m_sweepStep;
m_sweepStepMutex->lock();
m_sweepStepNumber++;
m_sweepStepMutex->unlock();
if (m_sweepCurrentFrequency <= m_sweepEnd) {
// Set next sweep frequency step
appendItemToInboundQueue(CompAnalyzerEvent(SetFrequency, TQVariant(m_sweepCurrentFrequency)), true);
setCurrentState(FrequencySweepWrite);
}
else {
// Exit sweep mode
setCurrentState(FreeRunning);
// Request measurement
appendItemToInboundQueue(CompAnalyzerEvent(GetMeasurement, TQVariant()), true);
}
}
else {
// Request another measurement
appendItemToInboundQueue(CompAnalyzerEvent(GetMeasurement, TQVariant()), true);
}
}
// Send data to GUI
TQByteArray measurementStreamData;
{
TQDataStream measurementStream(measurementStreamData, IO_WriteOnly);
measurementStream << measurements;
measurementStream << m_sweepStepNumber - 1;
}
m_outboundQueueMutex->lock();
if (state == FrequencySweepRead) {
m_outboundQueue.push_back(CompAnalyzerEvent(SweepMeasurementsReceived, TQVariant(measurementStreamData)));
}
else {
m_outboundQueue.push_back(CompAnalyzerEvent(MeasurementsReceived, TQVariant(measurementStreamData)));
}
m_outboundQueueMutex->unlock();
}
}
else if (input.startsWith("EXT")) {
// Extended error
TQString extendedError = input.remove(0, 3);
m_outboundQueue.push_back(CompAnalyzerEvent(ExtendedErrorReceived, TQVariant(extendedError)));
setCurrentState(CommunicationFailure);
}
else {
setCurrentState(CommunicationFailure);
}
queue_modified = true;
}
else if ((state == FreeRunning) || (state == FrequencySweepWrite)) {
// Request another measurement
appendItemToInboundQueue(CompAnalyzerEvent(GetMeasurement, TQVariant()), true);
setCurrentState(FrequencySweepRead);
}
m_socket->clearFrameTail();
}
}
m_networkDataMutex->unlock();
if (queue_modified) {
emit(outboundQueueUpdated());
}
}
m_instrumentMutex->unlock();
// Wait for queue status change or new network activity
if (!eventLoop->processEvents(TQEventLoop::ExcludeUserInput)) {
eventLoop->processEvents(TQEventLoop::ExcludeUserInput | TQEventLoop::WaitForMore);
}
}
eventLoop->exit(0);
}
void CompAnalyzerWorker::resetInboundQueue() {
m_inboundQueueMutex->lock();
m_inboundQueue.clear();
m_inboundQueueMutex->unlock();
}
void CompAnalyzerWorker::appendItemToInboundQueue(CompAnalyzerEvent item, bool syncPoint) {
m_inboundQueueMutex->lock();
m_inboundQueue.push_back(item);
if (syncPoint) {
m_inboundQueue.push_back(CompAnalyzerEvent(TxRxSyncPoint, TQVariant()));
}
m_inboundQueueMutex->unlock();
}
bool CompAnalyzerWorker::itemTypeInInboundQueue(CompAnalyzerEventType type) {
bool ret = false;
m_inboundQueueMutex->lock();
CompAnalyzerEventQueue::iterator it;
for (it = m_inboundQueue.begin(); it != m_inboundQueue.end(); ++it) {
if ((*it).first == type) {
ret = true;
}
}
m_inboundQueueMutex->unlock();
return ret;
}
bool CompAnalyzerWorker::syncPointActive() {
bool active = false;
m_inboundQueueMutex->lock();
CompAnalyzerEventQueue::iterator it = m_inboundQueue.begin();
if ((it) && (it != m_inboundQueue.end())) {
if ((*it).first == TxRxSyncPoint) {
active = true;
}
}
m_inboundQueueMutex->unlock();
return active;
}
void CompAnalyzerWorker::wake() {
// Do nothing -- the main event loop will wake when this is called
}
void CompAnalyzerWorker::dataReceived() {
if (!m_networkDataMutex->tryLock()) {
TQTimer::singleShot(0, this, TQT_SLOT(dataReceived()));
}
else {
m_newData = true;
m_networkDataMutex->unlock();
}
}
void CompAnalyzerWorker::lockOutboundQueue() {
m_outboundQueueMutex->lock();
}
void CompAnalyzerWorker::unlockOutboundQueue() {
m_outboundQueueMutex->unlock();
}
CompAnalyzerEventQueue* CompAnalyzerWorker::outboundQueue() {
return &m_outboundQueue;
}
CompAnalyzerEventType CompAnalyzerWorker::nextInboundQueueEvent() {
CompAnalyzerEventType ret = NoEvent;
m_inboundQueueMutex->lock();
CompAnalyzerEventQueue::iterator it = m_inboundQueue.begin();
if ((it) && (it != m_inboundQueue.end())) {
ret = (*it).first;
}
m_inboundQueueMutex->unlock();
return ret;
}
void CompAnalyzerWorker::clearInboundQueueSyncPoint() {
m_inboundQueueMutex->lock();
CompAnalyzerEventQueue::iterator it = m_inboundQueue.begin();
if ((it) && (it != m_inboundQueue.end())) {
if ((*it).first == TxRxSyncPoint) {
m_inboundQueue.erase(it);
}
}
m_inboundQueueMutex->unlock();
}
void CompAnalyzerWorker::eraseNextInboundQueueEvent(bool clearSyncPoint) {
m_inboundQueueMutex->lock();
CompAnalyzerEventQueue::iterator it = m_inboundQueue.begin();
if ((it) && (it != m_inboundQueue.end())) {
m_inboundQueue.erase(it);
}
if (clearSyncPoint) {
it = m_inboundQueue.begin();
if ((it) && (it != m_inboundQueue.end())) {
if ((*it).first == TxRxSyncPoint) {
m_inboundQueue.erase(it);
}
}
}
m_inboundQueueMutex->unlock();
}
CompAnalyzerInstrumentLimits CompAnalyzerWorker::getInstrumentLimits() {
return m_instrumentLimits;
}
void CompAnalyzerWorker::setNewParameterSourceList(TQValueList<TQ_UINT32> list) {
m_sourceList = list;
}
CompAnalyzerPartState CompAnalyzerWorker::currentState() {
CompAnalyzerPartState ret;
m_currentStateMutex->lock();
ret = m_currentState;
m_currentStateMutex->unlock();
return ret;
}
void CompAnalyzerWorker::setCurrentState(CompAnalyzerPartState state) {
CompAnalyzerPartState prevState = m_currentState;
m_currentStateMutex->lock();
m_currentState = state;
m_currentStateMutex->unlock();
if (m_currentState != prevState) {
m_outboundQueueMutex->lock();
m_outboundQueue.push_back(CompAnalyzerEvent(StateChanged, TQVariant()));
m_outboundQueueMutex->unlock();
}
}
void CompAnalyzerWorker::setSweepStartFrequency(double hz) {
m_sweepStart = hz;
}
void CompAnalyzerWorker::setSweepEndFrequency(double hz) {
m_sweepEnd = hz;
}
double CompAnalyzerWorker::sweepStartFrequency() {
return m_sweepStart;
}
double CompAnalyzerWorker::sweepEndFrequency() {
return m_sweepEnd;
}
double CompAnalyzerWorker::sweepStepFrequency() {
return m_sweepStep;
}
void CompAnalyzerWorker::setSweepStepFrequency(double hz) {
m_sweepStep = hz;
}
unsigned int CompAnalyzerWorker::sweepStepNumber() {
unsigned int ret;
m_sweepStepMutex->lock();
ret = m_sweepStepNumber;
m_sweepStepMutex->unlock();
return ret;
}
CompAnalyzerPart::CompAnalyzerPart( TQWidget *parentWidget, const char *widgetName, TQObject *parent, const char *name, const TQStringList& )
: RemoteInstrumentPart( parent, name ), m_commHandlerState(-1), m_commHandlerMode(0), m_commHandlerCommandState(0), m_connectionActiveAndValid(false), m_instrumentSettingsValid(false), m_base(0)
{
// Initialize important base class variables
m_clientLibraryName = CLIENT_LIBRARY;
// Initialize mutex
m_instrumentMutex = new TQMutex(false);
// Initialize kpart
setInstance(Factory::instance());
setWidget(new TQVBox(parentWidget, widgetName));
// Set up worker
m_worker = new CompAnalyzerWorker();
m_workerThread = new TQEventLoopThread();
m_worker->moveToThread(m_workerThread);
TQObject::connect(this, TQT_SIGNAL(wakeWorkerThread()), m_worker, TQT_SLOT(wake()));
TQObject::connect(m_worker, TQT_SIGNAL(outboundQueueUpdated()), this, TQT_SLOT(processOutboundQueue()));
// Create timers
m_updateTimeoutTimer = new TQTimer(this);
connect(m_updateTimeoutTimer, SIGNAL(timeout()), this, SLOT(networkTimeout()));
// Create widgets
m_base = new CompAnalyzerBase(widget());
// Initialize widgets
m_base->setMinimumSize(500, 350);
m_base->parameterADisplay->setNumberOfDigits(12);
m_base->parameterBDisplay->setNumberOfDigits(12);
m_base->frequencyDisplay->setNumberOfDigits(12);
m_traceWidget = m_base->traceWidget;
m_traceWidget->setSizePolicy(TQSizePolicy(TQSizePolicy::MinimumExpanding, TQSizePolicy::MinimumExpanding));
m_traceWidget->setNumberOfCursors(4);
m_traceWidget->setZoomCursorStartIndex(0);
m_traceWidget->setCursorOrientation(0, TQt::Horizontal);
m_traceWidget->setCursorOrientation(1, TQt::Horizontal);
m_traceWidget->setCursorOrientation(2, TQt::Vertical);
m_traceWidget->setCursorOrientation(3, TQt::Vertical);
m_traceWidget->setCursorEnabled(0, true);
m_traceWidget->setCursorEnabled(1, true);
m_traceWidget->setCursorEnabled(2, true);
m_traceWidget->setCursorEnabled(3, true);
m_traceWidget->setCursorName(0, "Cursor H1");
m_traceWidget->setCursorName(1, "Cursor H2");
m_traceWidget->setCursorName(2, "Cursor V1");
m_traceWidget->setCursorName(3, "Cursor V2");
m_traceWidget->setCursorPosition(0, 25);
m_traceWidget->setCursorPosition(1, 75);
m_traceWidget->setCursorPosition(2, 25);
m_traceWidget->setCursorPosition(3, 75);
TraceNumberList activeTraces;
for (uint trace=0; trace<MAXTRACES; trace++) {
activeTraces.append(trace);
}
m_traceWidget->setCursorActiveTraceList(0, activeTraces);
m_traceWidget->setCursorActiveTraceList(1, activeTraces);
m_traceWidget->setCursorActiveTraceList(2, activeTraces);
m_traceWidget->setCursorActiveTraceList(3, activeTraces);
m_traceWidget->setZoomBoxEnabled(true);
connect(m_base->parameterASourceCombo, SIGNAL(activated(int)), this, SLOT(parameterASourceChanged(int)));
connect(m_base->parameterBSourceCombo, SIGNAL(activated(int)), this, SLOT(parameterBSourceChanged(int)));
connect(m_base->measurementFrequencyBox, SIGNAL(floatValueChanged(double)), this, SLOT(frequencyInputChanged(double)));
connect(m_base->sweepStartFrequencyBox, SIGNAL(floatValueChanged(double)), this, SLOT(processLockouts()));
connect(m_base->sweepEndFrequencyBox, SIGNAL(floatValueChanged(double)), this, SLOT(processLockouts()));
connect(m_base->sweepStepFrequencyBox, SIGNAL(floatValueChanged(double)), this, SLOT(processLockouts()));
m_base->traceZoomWidget->setSizePolicy(TQSizePolicy(TQSizePolicy::MinimumExpanding, TQSizePolicy::MinimumExpanding));
connect(m_traceWidget, SIGNAL(zoomBoxChanged(const TQRectF&)), this, SLOT(updateZoomWidgetLimits(const TQRectF&)));
connect(m_base->sweepStartButton, SIGNAL(clicked()), this, SLOT(startSweepClicked()));
connect(m_base->sweepStopButton, SIGNAL(clicked()), this, SLOT(stopSweepClicked()));
connect(m_base->waveformSave, SIGNAL(clicked()), this, SLOT(saveWaveforms()));
connect(m_base->waveformRecall, SIGNAL(clicked()), this, SLOT(recallWaveforms()));
connect(m_base->autoSave, SIGNAL(clicked()), this, SLOT(processLockouts()));
// Initialize data
m_hdivs = 10;
m_vdivs = 8;
m_maxNumberOfTraces = 2;
for (int traceno=0; traceno<=MAXTRACES; traceno++) {
m_samplesInTrace[traceno] = 0;
m_channelActive[traceno] = false;
m_traceUnits[traceno] = "";
}
updateGraticule();
TQTimer::singleShot(0, this, TQT_SLOT(postInit()));
}
CompAnalyzerPart::~CompAnalyzerPart() {
if (m_instrumentMutex->locked()) {
printf("[WARNING] Exiting when data transfer still in progress!\n\r"); fflush(stdout);
}
disconnectFromServer();
delete m_instrumentMutex;
if (m_workerThread) {
m_workerThread->terminate();
m_workerThread->wait();
delete m_workerThread;
m_workerThread = NULL;
delete m_worker;
m_worker = NULL;
}
}
void CompAnalyzerPart::postInit() {
setUsingFixedSize(false);
}
bool CompAnalyzerPart::openURL(const KURL &url) {
int ret;
m_connectionActiveAndValid = false;
ret = connectToServer(url.url());
processLockouts();
return (ret != 0);
}
bool CompAnalyzerPart::closeURL() {
disconnectFromServer();
m_url = KURL();
return true;
}
void CompAnalyzerPart::processLockouts() {
CompAnalyzerPartState state = m_worker->currentState();
if (m_connectionActiveAndValid) {
m_base->setEnabled(true);
}
else {
m_base->setEnabled(false);
}
if ((state == FrequencySweepWrite) || (state == FrequencySweepRead)) {
m_base->sweepStartButton->setEnabled(false);
if (!m_worker->itemTypeInInboundQueue(AbortSweep)) {
m_base->sweepStopButton->setEnabled(true);
}
else {
m_base->sweepStopButton->setEnabled(false);
}
m_base->parameterASourceCombo->setEnabled(false);
m_base->parameterBSourceCombo->setEnabled(false);
m_base->measurementFrequencyBox->setEnabled(false);
m_base->sweepStartFrequencyBox->setEnabled(false);
m_base->sweepEndFrequencyBox->setEnabled(false);
m_base->sweepStepFrequencyBox->setEnabled(false);
m_base->waveformRecall->setEnabled(false);
}
else {
if (m_base->sweepEndFrequencyBox->floatValue() > m_base->sweepStartFrequencyBox->floatValue()) {
if (!m_worker->itemTypeInInboundQueue(StartSweep)) {
m_base->sweepStartButton->setEnabled(true);
}
else {
m_base->sweepStartButton->setEnabled(true);
}
}
else {
m_base->sweepStartButton->setEnabled(false);
}
m_base->sweepStopButton->setEnabled(false);
if (m_instrumentSettingsValid) {
m_base->parameterASourceCombo->setEnabled(true);
m_base->parameterBSourceCombo->setEnabled(true);
m_base->measurementFrequencyBox->setEnabled(true);
}
else {
m_base->parameterASourceCombo->setEnabled(false);
m_base->parameterBSourceCombo->setEnabled(false);
m_base->measurementFrequencyBox->setEnabled(false);
}
m_base->sweepStartFrequencyBox->setEnabled(true);
m_base->sweepEndFrequencyBox->setEnabled(true);
m_base->sweepStepFrequencyBox->setEnabled(true);
m_base->waveformRecall->setEnabled(true);
}
if (m_base->autoSave->isOn()) {
m_base->autoSaveFile->setEnabled(true);
}
else {
m_base->autoSaveFile->setEnabled(false);
}
}
void CompAnalyzerPart::disconnectFromServerCallback() {
m_updateTimeoutTimer->stop();
m_connectionActiveAndValid = false;
}
void CompAnalyzerPart::connectionFinishedCallback() {
// Finish worker setup
m_worker->m_socket = m_socket;
m_worker->m_instrumentMutex = m_instrumentMutex;
m_socket->moveToThread(m_workerThread);
m_worker->appendItemToInboundQueue(CompAnalyzerEvent(Initialize, TQVariant()), true);
connect(m_socket, SIGNAL(readyRead()), m_socket, SLOT(processPendingData()));
m_socket->processPendingData();
connect(m_socket, SIGNAL(newDataReceived()), m_worker, SLOT(dataReceived()));
m_tickerState = 0;
m_commHandlerState = 0;
m_commHandlerMode = 0;
m_socket->setDataTimeout(NETWORK_COMM_TIMEOUT_MS);
m_updateTimeoutTimer->start(NETWORK_COMM_TIMEOUT_MS, TRUE);
// Start worker
m_workerThread->start();
TQTimer::singleShot(0, m_worker, SLOT(run()));
processLockouts();
networkTick();
return;
}
void CompAnalyzerPart::connectionStatusChangedCallback() {
processLockouts();
}
void CompAnalyzerPart::setTickerMessage(TQString message) {
m_connectionActiveAndValid = true;
TQString tickerChar;
switch (m_tickerState) {
case 0:
tickerChar = "-";
break;
case 1:
tickerChar = "\\";
break;
case 2:
tickerChar = "|";
break;
case 3:
tickerChar = "/";
break;
}
setStatusMessage(message + TQString("... %1").arg(tickerChar));
m_tickerState++;
if (m_tickerState > 3) {
m_tickerState = 0;
}
}
void CompAnalyzerPart::patWatchDog() {
m_updateTimeoutTimer->stop();
}
void CompAnalyzerPart::requestNetworkOperation(CompAnalyzerEvent item, bool syncPoint) {
m_updateTimeoutTimer->stop();
m_worker->appendItemToInboundQueue(item, syncPoint);
m_updateTimeoutTimer->start(NETWORK_COMM_TIMEOUT_MS, TRUE);
emit(wakeWorkerThread());
}
void CompAnalyzerPart::processOutboundQueue() {
bool had_events = false;
m_worker->lockOutboundQueue();
CompAnalyzerEventQueue* eventQueue = m_worker->outboundQueue();
CompAnalyzerEventQueue::iterator it;
for (it = eventQueue->begin(); it != eventQueue->end(); ++it) {
patWatchDog();
if ((*it).first == StateChanged) {
CompAnalyzerPartState state = m_worker->currentState();
if (m_connectionActiveAndValid) {
if (state == CommunicationFailure) {
networkTimeout();
}
}
}
else if ((*it).first == ExtendedErrorReceived) {
m_updateTimeoutTimer->stop();
m_socket->clearIncomingData();
setStatusMessage((*it).second.toString());
m_connectionActiveAndValid = false;
processLockouts();
// Try to recover
m_worker->resetInboundQueue();
requestNetworkOperation(CompAnalyzerEvent(Initialize, TQVariant()), true);
}
else if ((*it).first == ConfigurationDataReceived) {
// Get configuration data
CompAnalyzerInstrumentLimits instrumentLimits = m_worker->getInstrumentLimits();
m_parameterSourceValues = instrumentLimits.allowedMeasurements;
m_base->measurementFrequencyBox->setLineStep(1);
m_base->measurementFrequencyBox->setFloatMax(instrumentLimits.maxFrequency / 1000000.0);
m_base->measurementFrequencyBox->setFloatMin(instrumentLimits.minFrequency / 1000000.0);
m_base->measurementFrequencyBox->setFloatValue(instrumentLimits.minFrequency / 1000000.0);
m_base->sweepStartFrequencyBox->setLineStep(1);
m_base->sweepStartFrequencyBox->setFloatMax(instrumentLimits.maxFrequency / 1000000.0);
m_base->sweepStartFrequencyBox->setFloatMin(instrumentLimits.minFrequency / 1000000.0);
m_base->sweepStartFrequencyBox->setFloatValue(instrumentLimits.minFrequency / 1000000.0);
m_base->sweepEndFrequencyBox->setLineStep(1);
m_base->sweepEndFrequencyBox->setFloatMax(instrumentLimits.maxFrequency / 1000000.0);
m_base->sweepEndFrequencyBox->setFloatMin(instrumentLimits.minFrequency / 1000000.0);
m_base->sweepEndFrequencyBox->setFloatValue(instrumentLimits.minFrequency / 1000000.0);
m_base->sweepStepFrequencyBox->setLineStep(1);
m_base->sweepStepFrequencyBox->setFloatMax((instrumentLimits.maxFrequency - instrumentLimits.minFrequency) / 1000000.0);
m_base->sweepStepFrequencyBox->setFloatMin(0.000001); // 1Hz
if (instrumentLimits.maxFrequency >= 1.0) {
m_base->sweepStepFrequencyBox->setFloatValue(1.0); // 1MHz
}
else {
// Fallback...
m_base->sweepStepFrequencyBox->setFloatValue(instrumentLimits.minFrequency);
}
m_instrumentSettingsValid = false;
// Update GUI
unsigned int parameter_number = 0;
TQValueList<AllowedMeasurementInfoList>::iterator it;
AllowedMeasurementInfoList::iterator it2;
for (it = m_parameterSourceValues.begin(); it != m_parameterSourceValues.end(); ++it) {
AllowedMeasurementInfoList allowedValuePairs = *it;
if (parameter_number == 0) {
m_base->parameterASourceCombo->clear();
for (it2 = allowedValuePairs.begin(); it2 != allowedValuePairs.end(); ++it2) {
m_base->parameterASourceCombo->insertItem((*it2).second, -1);
}
}
else if (parameter_number == 1) {
m_base->parameterBSourceCombo->clear();
for (it2 = allowedValuePairs.begin(); it2 != allowedValuePairs.end(); ++it2) {
m_base->parameterBSourceCombo->insertItem((*it2).second, -1);
}
}
parameter_number++;
}
m_connectionActiveAndValid = true;
}
else if (((*it).first == MeasurementsReceived) || ((*it).first == SweepMeasurementsReceived)) {
TQ_UINT32 sample_number;
unsigned int parameter_number;
CompAnalyzerMeasurementList measurements;
TQByteArray measurementStreamData = (*it).second.toByteArray();
TQDataStream measurementStream(measurementStreamData, IO_ReadOnly);
measurementStream >> measurements;
measurementStream >> sample_number;
// If frequency sweep is in progress, then add sample points to graph
if ((*it).first == SweepMeasurementsReceived) {
unsigned int traceno = 0;
CompAnalyzerMeasurementList::iterator it;
for (it = measurements.begin(); it != measurements.end(); ++it) {
TQDoubleArray sampleArray = m_traceWidget->samples(traceno);
TQDoubleArray positionArray = m_traceWidget->positions(traceno);
if (sampleArray.count() < (sample_number + 1)) {
sampleArray.resize(sample_number + 1);
}
if (positionArray.count() < (sample_number + 1)) {
positionArray.resize(sample_number + 1);
}
sampleArray[sample_number] = (*it).value;
positionArray[sample_number] = (*it).frequency;
if (sample_number == 0) {
m_sensorList[traceno].max = (*it).value;
m_sensorList[traceno].min = (*it).value;
}
else {
if ((*it).value > m_sensorList[traceno].max) {
m_sensorList[traceno].max = (*it).value;
}
if ((*it).value < m_sensorList[traceno].min) {
m_sensorList[traceno].min = (*it).value;
}
}
m_traceWidget->setSamples(traceno, sampleArray);
m_traceWidget->setPositions(traceno, positionArray);
m_base->traceZoomWidget->setSamples(traceno, sampleArray);
m_base->traceZoomWidget->setPositions(traceno, positionArray);
traceno++;
}
updateGraticule();
m_traceWidget->repaint(false);
m_base->traceZoomWidget->repaint(false);
processAutosave();
}
// Update displays
parameter_number = 0;
CompAnalyzerMeasurementList::iterator it;
for (it = measurements.begin(); it != measurements.end(); ++it) {
if (parameter_number == 0) {
m_base->parameterADisplay->setValue((*it).value, 5, true);
}
else if (parameter_number == 1) {
m_base->parameterBDisplay->setValue((*it).value, 5, true);
}
m_base->frequencyDisplay->setValue((*it).frequency / 1000000.0, 2, true);
// Update instrument control selectors
if (m_parameterSourceValues.count() < (parameter_number + 1)) {
continue;
}
AllowedMeasurementInfoList::iterator it2;
for (it2 = m_parameterSourceValues[parameter_number].begin(); it2 != m_parameterSourceValues[parameter_number].end(); ++it2) {
if ((*it2).first == (*it).parameter) {
if (parameter_number == 0) {
m_base->parameterASourceCombo->setCurrentText((*it2).second);
}
if (parameter_number == 1) {
m_base->parameterBSourceCombo->setCurrentText((*it2).second);
}
}
}
parameter_number++;
}
m_instrumentSettingsValid = true;
m_connectionActiveAndValid = true;
}
had_events = true;
}
if (had_events) {
if (m_connectionActiveAndValid) {
networkTick();
}
eventQueue->clear();
}
m_worker->unlockOutboundQueue();
processLockouts();
}
void CompAnalyzerPart::networkTick() {
setTickerMessage(i18n("Connected"));
m_connectionActiveAndValid = true;
processLockouts();
}
void CompAnalyzerPart::networkTimeout() {
m_updateTimeoutTimer->stop();
m_socket->clearIncomingData();
setStatusMessage(i18n("Server ping timeout. Please verify the status of your network connection."));
m_connectionActiveAndValid = false;
processLockouts();
// Try to recover
m_worker->resetInboundQueue();
requestNetworkOperation(CompAnalyzerEvent(Initialize, TQVariant()), true);
}
void CompAnalyzerPart::updateZoomWidgetLimits(const TQRectF& zoomRect) {
for (int traceno=0; traceno<m_maxNumberOfTraces; traceno++) {
TQRectF fullZoomRect = m_traceWidget->displayLimits(traceno);
double widthSpan = fullZoomRect.width()-fullZoomRect.x();
double heightSpan = fullZoomRect.height()-fullZoomRect.y();
TQRectF zoomLimitsRect((fullZoomRect.x()+(widthSpan*(zoomRect.x()/100.0))), (fullZoomRect.y()+(heightSpan*(zoomRect.y()/100.0))), (fullZoomRect.x()+(widthSpan*((zoomRect.x()/100.0)+(zoomRect.width()/100.0)))), (fullZoomRect.y()+(heightSpan*((zoomRect.y()/100.0)+(zoomRect.height()/100.0)))));
m_base->traceZoomWidget->setDisplayLimits(traceno, zoomLimitsRect);
}
}
void CompAnalyzerPart::updateGraticule() {
m_traceWidget->setNumberOfHorizontalDivisions(m_hdivs);
m_traceWidget->setNumberOfVerticalDivisions(m_vdivs);
m_base->traceZoomWidget->setNumberOfHorizontalDivisions(m_hdivs);
m_base->traceZoomWidget->setNumberOfVerticalDivisions(m_vdivs);
if (m_maxNumberOfTraces > 0) m_traceWidget->setTraceColor(0, TQColor(255, 255, 255));
if (m_maxNumberOfTraces > 1) m_traceWidget->setTraceColor(1, TQColor(128, 255, 128));
if (m_maxNumberOfTraces > 2) m_traceWidget->setTraceColor(2, TQColor(255, 255, 128));
if (m_maxNumberOfTraces > 3) m_traceWidget->setTraceColor(3, TQColor(128, 128, 255));
if (m_maxNumberOfTraces > 0) m_base->traceZoomWidget->setTraceColor(0, TQColor(255, 255, 255));
if (m_maxNumberOfTraces > 1) m_base->traceZoomWidget->setTraceColor(1, TQColor(128, 255, 128));
if (m_maxNumberOfTraces > 2) m_base->traceZoomWidget->setTraceColor(2, TQColor(255, 255, 128));
if (m_maxNumberOfTraces > 3) m_base->traceZoomWidget->setTraceColor(3, TQColor(128, 128, 255));
for (int traceno=0; traceno<m_maxNumberOfTraces; traceno++) {
if (m_sensorList.count() < (traceno + 1)) {
continue;
}
if (traceno == 0) {
m_sensorList[traceno].name = m_base->parameterASourceCombo->currentText();
}
else if (traceno == 1) {
m_sensorList[traceno].name = m_base->parameterBSourceCombo->currentText();
}
m_sensorList[traceno].units = parameterNameToMeasurementUnits(m_sensorList[traceno].name, traceno);
m_traceWidget->setTraceEnabled(traceno, m_channelActive[traceno]);
m_traceWidget->setTraceName(traceno, m_sensorList[traceno].name);
m_traceWidget->setTraceHorizontalUnits(traceno, "Hz");
m_traceWidget->setTraceVerticalUnits(traceno, m_sensorList[traceno].units);
m_base->traceZoomWidget->setTraceEnabled(traceno, m_channelActive[traceno], TraceWidget::SummaryText);
m_base->traceZoomWidget->setTraceName(traceno, m_sensorList[traceno].name);
m_base->traceZoomWidget->setTraceHorizontalUnits(traceno, "Hz");
m_base->traceZoomWidget->setTraceVerticalUnits(traceno, m_sensorList[traceno].units);
double startfreq = 0.0;
double endfreq = 0.0;
if (m_samplesInTrace[traceno] > 0) {
startfreq = m_worker->sweepStartFrequency();
endfreq = m_worker->sweepEndFrequency();
}
m_traceWidget->setDisplayLimits(traceno, TQRectF(startfreq, m_sensorList[traceno].max, endfreq, m_sensorList[traceno].min));
}
updateZoomWidgetLimits(m_traceWidget->zoomBox());
}
void CompAnalyzerPart::frequencyInputChanged(double value) {
double frequency = value * 1000000.0;
requestNetworkOperation(CompAnalyzerEvent(SetFrequency, TQVariant(frequency)), true);
processLockouts();
}
void CompAnalyzerPart::parameterSourceChanged() {
TQValueList<TQ_UINT32> sourceIndexList;
AllowedMeasurementInfoList::iterator it2;
TQString source;
source = m_base->parameterASourceCombo->currentText();
for (it2 = m_parameterSourceValues[0].begin(); it2 != m_parameterSourceValues[0].end(); ++it2) {
if ((*it2).second == source) {
sourceIndexList.append((*it2).first);
break;
}
}
source = m_base->parameterBSourceCombo->currentText();
for (it2 = m_parameterSourceValues[1].begin(); it2 != m_parameterSourceValues[1].end(); ++it2) {
if ((*it2).second == source) {
sourceIndexList.append((*it2).first);
break;
}
}
if (sourceIndexList.count() >= 2) {
m_worker->setNewParameterSourceList(sourceIndexList);
requestNetworkOperation(CompAnalyzerEvent(ChangeMeasurementSource, TQVariant()), true);
}
}
void CompAnalyzerPart::parameterASourceChanged(int) {
parameterSourceChanged();
processLockouts();
}
void CompAnalyzerPart::parameterBSourceChanged(int) {
parameterSourceChanged();
processLockouts();
}
void CompAnalyzerPart::startSweepClicked() {
int traceno;
double start = m_base->sweepStartFrequencyBox->floatValue() * 1000000.0;
double end = m_base->sweepEndFrequencyBox->floatValue() * 1000000.0;
double step = m_base->sweepStepFrequencyBox->floatValue() * 1000000.0;
if (end <= start) {
return;
}
m_worker->setSweepStartFrequency(start);
m_worker->setSweepEndFrequency(end);
m_worker->setSweepStepFrequency(step);
m_sensorList.clear();
for ( traceno=0; traceno<m_maxNumberOfTraces; traceno++) {
m_sensorList.append(SensorType());
}
for (traceno=0; traceno<m_maxNumberOfTraces; traceno++) {
m_samplesInTrace[traceno] = ((end - start) / step) + 1;
m_channelActive[traceno] = true;
m_sensorList[traceno].name = "";
m_sensorList[traceno].units = "";
m_sensorList[traceno].max = 0;
m_sensorList[traceno].min = 0;
m_traceUnits[traceno] = m_sensorList[traceno].units;
}
m_traceWidget->setNumberOfSamples(traceno, m_samplesInTrace[traceno]);
m_base->traceZoomWidget->setNumberOfSamples(traceno, m_samplesInTrace[traceno]);
// Clear graph
for (int traceno=0; traceno<m_maxNumberOfTraces; traceno++) {
TQDoubleArray sampleArray = m_traceWidget->samples(traceno);
TQDoubleArray positionArray = m_traceWidget->positions(traceno);
if (sampleArray.count() != (unsigned int)m_samplesInTrace[traceno]) {
sampleArray.resize(m_samplesInTrace[traceno]);
}
if (positionArray.count() != (unsigned int)m_samplesInTrace[traceno]) {
positionArray.resize(m_samplesInTrace[traceno]);
}
sampleArray.fill(NAN);
positionArray.fill(NAN);
m_traceWidget->setSamples(traceno, sampleArray);
m_traceWidget->setPositions(traceno, positionArray);
m_base->traceZoomWidget->setSamples(traceno, sampleArray);
m_base->traceZoomWidget->setPositions(traceno, positionArray);
}
updateGraticule();
requestNetworkOperation(CompAnalyzerEvent(StartSweep, TQVariant()), true);
processLockouts();
}
void CompAnalyzerPart::stopSweepClicked() {
requestNetworkOperation(CompAnalyzerEvent(AbortSweep, TQVariant()), true);
processLockouts();
}
void CompAnalyzerPart::processAutosave() {
if (m_base->autoSave->isOn()) {
if (m_base->autoSaveFile->url() != "") {
saveWaveforms(m_base->autoSaveFile->url());
}
}
}
#define WAVEFORM_MAGIC_NUMBER 3
#define WAVEFORM_FILE_VERSION 1
void CompAnalyzerPart::saveWaveforms() {
saveWaveforms(TQString::null);
}
void CompAnalyzerPart::saveWaveforms(TQString fileName) {
TQString saveFileName;
if (fileName != "") {
saveFileName = fileName;
}
else {
saveFileName = KFileDialog::getSaveFileName(TQString::null, "*.wfm|Waveform Files (*.wfm)", 0, i18n("Save waveforms..."));
}
if (saveFileName != "") {
TQFile file(saveFileName);
file.open(IO_WriteOnly);
TQDataStream ds(&file);
TQ_INT32 magicNumber = WAVEFORM_MAGIC_NUMBER;
TQ_INT32 version = WAVEFORM_FILE_VERSION;
ds << magicNumber;
ds << version;
ds << m_sensorList;
ds << m_hdivs;
ds << m_vdivs;
ds << m_maxNumberOfTraces;
ds << m_worker->sweepStartFrequency();
ds << m_worker->sweepEndFrequency();
ds << m_worker->sweepStepFrequency();
for (int traceno=0; traceno<m_maxNumberOfTraces; traceno++) {
TQ_UINT8 boolValue;
boolValue = m_channelActive[traceno];
ds << boolValue;
ds << m_samplesInTrace[traceno];
ds << m_traceUnits[traceno];
ds << m_traceWidget->samples(traceno);
ds << m_traceWidget->positions(traceno);
}
for (int cursorno=0; cursorno<4; cursorno++) {
ds << m_traceWidget->cursorPosition(cursorno);
}
ds << m_base->userNotes->text();
}
processLockouts();
}
void CompAnalyzerPart::recallWaveforms() {
TQString openFileName = KFileDialog::getOpenFileName(TQString::null, "*.wfm|Waveform Files (*.wfm)", 0, i18n("Open waveforms..."));
if (openFileName != "") {
TQFile file(openFileName);
file.open(IO_ReadOnly);
TQDataStream ds(&file);
TQ_INT32 magicNumber;
TQ_INT32 version;
ds >> magicNumber;
if (magicNumber == WAVEFORM_MAGIC_NUMBER) {
ds >> version;
if (version == WAVEFORM_FILE_VERSION) {
double sweepStartFrequency;
double sweepEndFrequency;
double sweepStepFrequency;
ds >> m_sensorList;
ds >> m_hdivs;
ds >> m_vdivs;
ds >> m_maxNumberOfTraces;
ds >> sweepStartFrequency;
ds >> sweepEndFrequency;
ds >> sweepStepFrequency;
for (int traceno=0; traceno<m_maxNumberOfTraces; traceno++) {
TQ_UINT8 boolValue;
ds >> boolValue;
m_channelActive[traceno] = (boolValue!=0)?true:false;
ds >> m_samplesInTrace[traceno];
ds >> m_traceUnits[traceno];
TQDoubleArray values;
TQDoubleArray positions;
ds >> values;
ds >> positions;
m_traceWidget->setNumberOfSamples(traceno, m_samplesInTrace[traceno], true);
m_traceWidget->setSamples(traceno, values);
m_traceWidget->setPositions(traceno, positions);
m_base->traceZoomWidget->setSamples(traceno, values);
m_base->traceZoomWidget->setPositions(traceno, positions);
m_traceWidget->setDisplayLimits(traceno, TQRectF(positions[0], m_sensorList[traceno].max, positions[positions.count() - 1], m_sensorList[traceno].min));
if (traceno == 0) {
m_worker->setSweepStartFrequency(positions[0]);
m_worker->setSweepEndFrequency(positions[positions.count() - 1]);
m_base->parameterASourceCombo->setCurrentText(m_sensorList[traceno].name);
}
else if (traceno == 1) {
m_base->parameterBSourceCombo->setCurrentText(m_sensorList[traceno].name);
}
}
for (int cursorno=0; cursorno<4; cursorno++) {
double cursorPos;
ds >> cursorPos;
m_traceWidget->setCursorPosition(cursorno, cursorPos);
}
updateGraticule();
m_traceWidget->repaint(false);
m_base->traceZoomWidget->repaint(false);
TQString notes;
ds >> notes;
m_base->userNotes->setText(notes);
m_base->sweepStartFrequencyBox->setFloatValue(sweepStartFrequency / 1000000.0);
m_base->sweepEndFrequencyBox->setFloatValue(sweepEndFrequency / 1000000.0);
m_base->sweepStepFrequencyBox->setFloatValue(sweepStepFrequency / 1000000.0);
parameterSourceChanged();
}
else {
KMessageBox::error(0, i18n("<qt>The selected waveform file version does not match this client</qt>"), i18n("Invalid File"));
}
}
else {
KMessageBox::error(0, i18n("<qt>Invalid waveform file selected</qt>"), i18n("Invalid File"));
}
}
processLockouts();
}
TQString CompAnalyzerPart::parameterMeasurementUnits(TQ_UINT32 parameter) {
TQString ret;
switch (parameter) {
case 0:
// Resistance
ret = i18n("Ω");
break;
case 1:
// Reactance
ret = i18n("Ω");
break;
case 2:
// Conductance
ret = i18n("S");
break;
case 3:
// Susceptance
ret = i18n("S");
break;
case 4:
// Inductance
ret = i18n("H");
break;
case 5:
// Capacitance
ret = i18n("F");
break;
case 6:
// Dissipation Factor
ret = TQString::null;
break;
case 7:
// Quality Factor
ret = TQString::null;
break;
case 8:
// Impedance
ret = i18n("Ω");
break;
case 9:
// Admittance
ret = i18n("S");
break;
case 10:
// Reflection (absolute)
ret = TQString::null;
break;
case 11:
// Reflection (X)
ret = TQString::null;
break;
case 12:
// Reflection (Y)
ret = TQString::null;
break;
case 13:
// Phase angle (degrees)
ret = i18n("°");
break;
case 14:
// Phase angle (radians)
ret = i18n("rad");
break;
}
return ret;
}
TQString CompAnalyzerPart::parameterNameToMeasurementUnits(TQString name, unsigned int parameter_index) {
TQString ret;
AllowedMeasurementInfoList::iterator it2;
for (it2 = m_parameterSourceValues[parameter_index].begin(); it2 != m_parameterSourceValues[parameter_index].end(); ++it2) {
if ((*it2).second == name) {
ret = parameterMeasurementUnits((*it2).first);
}
}
return ret;
}
TDEAboutData* CompAnalyzerPart::createAboutData() {
return new TDEAboutData( APP_NAME, I18N_NOOP( APP_PRETTYNAME ), APP_VERSION );
}
} //namespace RemoteLab
#include "part.moc"