Add initial instrument command functions

master
Timothy Pearson 13 years ago
parent b0fcdb64bd
commit cb05310c2f

@ -274,6 +274,27 @@ namespace KParts
} }
} }
TQDataStream &operator<<( TQDataStream &s, const TQFloatArray &data ) {
TQ_UINT32 i;
TQ_UINT32 count = data.count();
s << count;
for (i=0; i<count; i++) {
s << data[i];
}
return s;
}
TQDataStream &operator>>( TQDataStream &s, TQFloatArray &data ) {
TQ_UINT32 i;
TQ_UINT32 count;
s >> count;
data.resize(count);
for (i=0; i<count; i++) {
s >> data[i];
}
return s;
}
bool operator==( const ServiceType &s1, const ServiceType &s2 ) { bool operator==( const ServiceType &s1, const ServiceType &s2 ) {
bool identical = true; bool identical = true;

@ -93,6 +93,15 @@ namespace KParts
// ============================================================================= // =============================================================================
typedef TQMemArray<float> TQFloatArray;
#ifndef QT_NO_DATASTREAM
Q_EXPORT TQDataStream &operator<<(TQDataStream &, const TQFloatArray &);
Q_EXPORT TQDataStream &operator>>(TQDataStream &, TQFloatArray &);
#endif
// =============================================================================
class ServiceType class ServiceType
{ {
public: public:

@ -29,6 +29,7 @@ int commanalyzer_switch_to_spectrum_analyzer_mode (const char * commanalyzerType
int commanalyzer_lock_screen (const char * commanalyzerType, int gpibDevice); int commanalyzer_lock_screen (const char * commanalyzerType, int gpibDevice);
int commanalyzer_get_spectrum_analyzer_trace (const char * commanalyzerType, int gpibDevice); int commanalyzer_get_spectrum_analyzer_trace (const char * commanalyzerType, int gpibDevice);
int commanalyzer_set_display_brightness(float percent, const char * commanalyzerType, int gpibDevice);
int commanalyzer_set_spectrum_analyzer_center_frequency(float desired_frequency, const char * commanalyzerType, int gpibDevice); int commanalyzer_set_spectrum_analyzer_center_frequency(float desired_frequency, const char * commanalyzerType, int gpibDevice);
int commanalyzer_set_spectrum_analyzer_frequency_span(float desired_frequency, const char * commanalyzerType, int gpibDevice); int commanalyzer_set_spectrum_analyzer_frequency_span(float desired_frequency, const char * commanalyzerType, int gpibDevice);
int commanalyzer_spectrum_analyzer_set_generator_mode_tracking (const char * commanalyzerType, int gpibDevice); int commanalyzer_spectrum_analyzer_set_generator_mode_tracking (const char * commanalyzerType, int gpibDevice);

@ -251,13 +251,537 @@ void GPIBSocket::commandLoop() {
TQDataStream ds(this); TQDataStream ds(this);
ds.setPrintableData(true); ds.setPrintableData(true);
ds >> m_instrumentCommand; ds >> m_instrumentCommand;
clearFrameTail();
if (m_instrumentCommand != "") { if (m_instrumentCommand != "") {
if (m_activeDeviceType == 2) {
// Oscilloscope
if (m_instrumentCommand == "SETHORIZTIMEBASE") { // Want to change horizontal timebase
float value;
ds >> value;
if (scope_set_timebase(value, m_serverParent->m_scopeType.ascii(), m_serverParent->m_scopeDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETVOLTSDIV") { // Want to change volts per division
TQ_INT32 value1;
ds >> value1;
float value2;
ds >> value2;
if (scope_set_volts_div(value1, value2, m_serverParent->m_scopeType.ascii(), m_serverParent->m_scopeDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETRUNNING") { // Want to change run status
TQ_INT32 value;
ds >> value;
if (scope_set_acquisition(value, m_serverParent->m_scopeType.ascii(), m_serverParent->m_scopeDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETCHANNELACTIVE") { // Want to change channel enable
TQ_INT32 value1;
ds >> value1;
TQ_INT32 value2;
ds >> value2;
if (scope_set_channel_state(value1, value2, m_serverParent->m_scopeType.ascii(), m_serverParent->m_scopeDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETTRIGGERCHANNEL") { // Want to change trigger channel
TQ_INT32 value;
ds >> value;
if (scope_set_trigger_channel(value, m_serverParent->m_scopeType.ascii(), m_serverParent->m_scopeDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETTRIGGERLEVEL") { // Want to change trigger level
float value;
ds >> value;
if (scope_set_trigger_level(value, m_serverParent->m_scopeType.ascii(), m_serverParent->m_scopeDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETCHANVERTPOS") { // Want to change channel vertical position
TQ_INT32 value1;
ds >> value1;
float value2;
ds >> value2;
if (scope_set_channel_position(value1, value2, m_serverParent->m_scopeType.ascii(), m_serverParent->m_scopeDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
}
else if (m_activeDeviceType == 3) {
// Function generator
char errorbuf[1000];
if (m_instrumentCommand == "RESET") { // Want to reset function generator
if (signal_reset(m_serverParent->m_funcgenType.ascii(), m_serverParent->m_funcgenDeviceSocket, errorbuf) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString(errorbuf);
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETFREQUENCY") { // Want to change frequency
float value;
ds >> value;
if (signal_set_frequency(value, m_serverParent->m_funcgenType.ascii(), m_serverParent->m_funcgenDeviceSocket, errorbuf) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString(errorbuf);
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETDUTYCYCLE") { // Want to change duty cycle
float value;
ds >> value;
if (signal_set_duty_cycle(value, m_serverParent->m_funcgenType.ascii(), m_serverParent->m_funcgenDeviceSocket, errorbuf) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString(errorbuf);
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETSHAPESQUARE") { // Want to set square wave
if (signal_set_waveform("SQUARE", m_serverParent->m_funcgenType.ascii(), m_serverParent->m_funcgenDeviceSocket, errorbuf) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString(errorbuf);
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETSHAPESINE") { // Want to set sine wave
if (signal_set_waveform("SINUSOID", m_serverParent->m_funcgenType.ascii(), m_serverParent->m_funcgenDeviceSocket, errorbuf) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString(errorbuf);
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETSHAPETRIANGLE") { // Want to set triangle wave
if (signal_set_waveform("RAMP", m_serverParent->m_funcgenType.ascii(), m_serverParent->m_funcgenDeviceSocket, errorbuf) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString(errorbuf);
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETSHAPENOISE") { // Want to set noise wave
if (signal_set_waveform("NOISE", m_serverParent->m_funcgenType.ascii(), m_serverParent->m_funcgenDeviceSocket, errorbuf) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString(errorbuf);
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETPEAKPEAKVOLTAGE") { // Want to change P-P voltage
float value;
ds >> value;
if (signal_set_peak_peak_voltage(value, m_serverParent->m_funcgenType.ascii(), m_serverParent->m_funcgenDeviceSocket, errorbuf) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString(errorbuf);
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETOFFSETVOLTAGE") { // Want to change offset voltage
float value;
ds >> value;
if (signal_set_offset_voltage(value, m_serverParent->m_funcgenType.ascii(), m_serverParent->m_funcgenDeviceSocket, errorbuf) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString(errorbuf);
writeEndOfFrame();
}
}
}
else if (m_activeDeviceType == 4) {
// Communications analyzer
if (m_instrumentCommand == "SETMODESPECTRUMANALYZER") { // Want to set SA mode
if (commanalyzer_switch_to_spectrum_analyzer_mode(m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if ((m_instrumentCommand == "GETSPECTRUMTRACE")) { // Want SA trace
ds << TQString("ACK");
if (commanalyzer_get_spectrum_analyzer_trace(m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
int i;
int tracelen = commanalyzerTraceLength(m_serverParent->m_commanalyzerType.ascii());
TQFloatArray traceData;
traceData.resize(tracelen);
for (i=0; i<tracelen; i++) {
traceData[i] = commanalyzer_raw_trace_data[i];
}
ds << traceData;
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "LOCKSCREEN") { // Want to lock screen
if (commanalyzer_lock_screen(m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
commanalyzer_set_display_brightness(0, m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket); // Don't burn in the screen
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETGENMODETRACKING") { // Want to set generator to tracking mode
if (commanalyzer_spectrum_analyzer_set_generator_mode_tracking(m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETGENMODEFIXED") { // Want to set generator to fixed mode
if (commanalyzer_spectrum_analyzer_set_generator_mode_fixed(m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETCENTERFREQUENCY") { // Want to change center frequency
float value;
ds >> value;
if (commanalyzer_set_spectrum_analyzer_center_frequency(value, m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETFREQUENCYSPAN") { // Want to change frequency span
float value;
ds >> value;
if (commanalyzer_set_spectrum_analyzer_frequency_span(value, m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETRFINPUTDEDICATED") { // Want to set RF input to dedicated connector
if (commanalyzer_spectrum_analyzer_set_rf_input_dedicated(m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETRFINPUTMULTIPLEXED") { // Want to set RF input to multiplexed connector
if (commanalyzer_spectrum_analyzer_set_rf_input_muxed(m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETGENOUTPUTDEDICATED") { // Want to set generator output to dedicated connector
if (commanalyzer_spectrum_analyzer_set_generator_output_dedicated(m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETGENOUTPUTMULTIPLEXED") { // Want to set generator output to multiplexed connector
if (commanalyzer_spectrum_analyzer_set_generator_output_muxed(m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETINPUTATTENUATION") { // Want to change input attenuation
float value;
ds >> value;
if (commanalyzer_set_spectrum_analyzer_input_attenuation(value, m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETVERTICALSCALE") { // Want to change scale
float value;
ds >> value;
if (commanalyzer_set_spectrum_analyzer_scale(value, m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETINPUTATTENMODEAUTO") { // Want to set RF input attenuator mode to automatic
if (commanalyzer_set_spectrum_analyzer_input_attenuator_mode_auto(m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETINPUTATTENMODEFIXED") { // Want to set RF input attenuator mode to fixed
if (commanalyzer_set_spectrum_analyzer_input_attenuator_mode_fixed(m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETGENOUTPUTPOWER") { // Want to change generator output power
float value;
ds >> value;
if (commanalyzer_set_spectrum_analyzer_generator_power(value, m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETGENOUTPUTFREQUENCY") { // Want to change generator output frequency
float value;
ds >> value;
if (commanalyzer_set_spectrum_analyzer_generator_frequency(value, m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETGENSWEEPASCENDING") { // Want to set generator sweep to ascending
if (commanalyzer_spectrum_analyzer_set_generator_sweep_ascending(m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETGENSWEEPDESCENDING") { // Want to set generator sweep to descending
if (commanalyzer_spectrum_analyzer_set_generator_sweep_descending(m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETTRACEAVERAGING") { // Want to set trace averaging
float value;
ds >> value;
if (commanalyzer_set_spectrum_analyzer_trace_averaging(value, m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETREFERENCEPOWERLEVEL") { // Want to set reference power level
float value;
ds >> value;
if (commanalyzer_set_spectrum_analyzer_reference_power_level(value, m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "GETVERTICALDIVCOUNT") { // Want the number of vertical divisions available
TQ_INT16 divisions = commanalyzer_get_spectrum_analyzer_number_of_vertical_divisions(m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket);
if (divisions >= 0) {
ds << TQString("ACK");
ds << divisions;
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "GETTRACESAMPLECOUNT") { // Want the number of samples in a trace
TQ_INT16 divisions = commanalyzerTraceLength(m_serverParent->m_commanalyzerType.ascii());
if (divisions >= 0) {
ds << TQString("ACK");
ds << divisions;
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "GETHORIZONTALDIVCOUNT") { // Want the number of horizontal divisions available
TQ_INT16 divisions = commanalyzer_get_spectrum_analyzer_number_of_horizontal_divisions(m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket);
if (divisions >= 0) {
ds << TQString("ACK");
ds << divisions;
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "GETREFERENCEPOWERLEVEL") { // Want the reference power level
double rpower;
if (commanalyzer_get_spectrum_analyzer_reference_power_level(&rpower, m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
ds << rpower;
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "GETVERTDIVSCALE") { // Want the vertical division scale
double scale;
if (commanalyzer_get_spectrum_analyzer_scale(&scale, m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
ds << scale;
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "SETCENTERFREQUENCY") { // Want to get the center frequency
double freq;
if (commanalyzer_get_spectrum_analyzer_center_frequency(&freq, m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
ds << freq;
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
else if (m_instrumentCommand == "GETFREQUENCYSPAN") { // Want to get the frequency span
double freq;
if (commanalyzer_get_spectrum_analyzer_span(&freq, m_serverParent->m_commanalyzerType.ascii(), m_serverParent->m_commanalyzerDeviceSocket) == 0) {
ds << TQString("ACK");
ds << freq;
writeEndOfFrame();
}
else {
ds << TQString("NCK");
writeEndOfFrame();
}
}
}
else {
// Unknown
transferred_data = true;
m_commandLoopState = 0;
}
m_servClientTimeout->start(NETWORK_COMM_TIMEOUT_MS, TRUE); m_servClientTimeout->start(NETWORK_COMM_TIMEOUT_MS, TRUE);
transferred_data = true; transferred_data = true;
m_commandLoopState = 2; m_commandLoopState = 2;
} }
clearFrameTail();
} }
} }
} }
@ -266,20 +790,7 @@ void GPIBSocket::commandLoop() {
processPendingData(); processPendingData();
} }
if (canReadFrame()) { if (canReadFrame()) {
if (m_activeDeviceType == 2) { //
// Oscilloscope
}
else if (m_activeDeviceType == 3) {
// Function generator
}
else if (m_activeDeviceType == 4) {
// Communications analyzer
}
else {
// Unknown
transferred_data = true;
m_commandLoopState = 0;
}
} }
} }
} }

@ -37,7 +37,7 @@
extern char falpha[1024]; extern char falpha[1024];
unsigned char scope_raw_screenshot_data[4194304]; unsigned char scope_raw_screenshot_data[4194304];
unsigned long scopeScreenWidth (char * scopeType) { unsigned long scopeScreenWidth (const char * scopeType) {
if (strcmp("HP54600OS", scopeType) == 0) { if (strcmp("HP54600OS", scopeType) == 0) {
return 512; return 512;
} }
@ -49,7 +49,7 @@ unsigned long scopeScreenWidth (char * scopeType) {
} }
} }
unsigned long scopeScreenHeight (char * scopeType) { unsigned long scopeScreenHeight (const char * scopeType) {
if (strcmp("HP54600OS", scopeType) == 0) { if (strcmp("HP54600OS", scopeType) == 0) {
return 280; return 280;
} }
@ -61,7 +61,7 @@ unsigned long scopeScreenHeight (char * scopeType) {
} }
} }
unsigned long scopeScreenSize (char * scopeType) { unsigned long scopeScreenSize (const char * scopeType) {
if (strcmp("HP54600OS", scopeType) == 0) { if (strcmp("HP54600OS", scopeType) == 0) {
return scopeScreenWidth(scopeType)*scopeScreenHeight(scopeType)*3; return scopeScreenWidth(scopeType)*scopeScreenHeight(scopeType)*3;
} }
@ -73,7 +73,7 @@ unsigned long scopeScreenSize (char * scopeType) {
} }
} }
int gpib_read_binblock(int ud, int max_num_bytes, char * scopeType) int gpib_read_binblock(int ud, int max_num_bytes, const char * scopeType)
{ {
char segarray[4194304]; char segarray[4194304];
long array_pointer; long array_pointer;
@ -127,7 +127,7 @@ int gpib_read_binblock(int ud, int max_num_bytes, char * scopeType)
return 0; return 0;
} }
int scope_get_screenshot_stage2(char * scopeType, int gpibDevice) { int scope_get_screenshot_stage2(const char * scopeType, int gpibDevice) {
long bytestosend; long bytestosend;
int k; int k;
int m; int m;
@ -175,7 +175,7 @@ int scope_get_screenshot_stage2(char * scopeType, int gpibDevice) {
} }
int scope_get_screenshot(char * scopeType, int gpibDevice) { int scope_get_screenshot(const char * scopeType, int gpibDevice) {
if ((strcmp("HP54600OS", scopeType) == 0) || (strcmp("TDS744AOS", scopeType) == 0)) { if ((strcmp("HP54600OS", scopeType) == 0) || (strcmp("TDS744AOS", scopeType) == 0)) {
printf("[INFO] Getting scope screenshot [Stage 1]\n\r"); printf("[INFO] Getting scope screenshot [Stage 1]\n\r");
if (strcmp("HP54600OS", scopeType) == 0) { if (strcmp("HP54600OS", scopeType) == 0) {
@ -227,7 +227,7 @@ int scope_get_screenshot(char * scopeType, int gpibDevice) {
return 1; return 1;
} }
int scope_set_timebase(float desired_timebase, char * scopeType, int gpibDevice) { int scope_set_timebase(float desired_timebase,const char * scopeType, int gpibDevice) {
if ((strcmp("HP54600OS", scopeType) == 0) || (strcmp("TDS744AOS", scopeType) == 0)) { if ((strcmp("HP54600OS", scopeType) == 0) || (strcmp("TDS744AOS", scopeType) == 0)) {
printf("[INFO] Setting scope timebase to %E\n\r", desired_timebase); printf("[INFO] Setting scope timebase to %E\n\r", desired_timebase);
if (strcmp("HP54600OS", scopeType) == 0) { if (strcmp("HP54600OS", scopeType) == 0) {
@ -260,7 +260,7 @@ int scope_set_timebase(float desired_timebase, char * scopeType, int gpibDevice)
} }
} }
int scope_set_volts_div(int desired_channel, float desired_volts, char * scopeType, int gpibDevice) { int scope_set_volts_div(int desired_channel, float desired_volts,const char * scopeType, int gpibDevice) {
if ((strcmp("HP54600OS", scopeType) == 0) || (strcmp("TDS744AOS", scopeType) == 0)) { if ((strcmp("HP54600OS", scopeType) == 0) || (strcmp("TDS744AOS", scopeType) == 0)) {
printf("[INFO] Setting scope volts/div on channel %d to %f\n\r", desired_channel, desired_volts/8); printf("[INFO] Setting scope volts/div on channel %d to %f\n\r", desired_channel, desired_volts/8);
if (strcmp("HP54600OS", scopeType) == 0) { if (strcmp("HP54600OS", scopeType) == 0) {
@ -293,7 +293,7 @@ int scope_set_volts_div(int desired_channel, float desired_volts, char * scopeTy
} }
} }
int scope_set_acquisition(int status, char * scopeType, int gpibDevice) { int scope_set_acquisition(int status,const char * scopeType, int gpibDevice) {
if ((strcmp("HP54600OS", scopeType) == 0) || (strcmp("TDS744AOS", scopeType) == 0)) { if ((strcmp("HP54600OS", scopeType) == 0) || (strcmp("TDS744AOS", scopeType) == 0)) {
printf("[INFO] Setting scope run status to %d\n\r", status); printf("[INFO] Setting scope run status to %d\n\r", status);
if (strcmp("HP54600OS", scopeType) == 0) { if (strcmp("HP54600OS", scopeType) == 0) {
@ -331,7 +331,7 @@ int scope_set_acquisition(int status, char * scopeType, int gpibDevice) {
} }
} }
int scope_set_channel_state(int desired_channel, int status, char * scopeType, int gpibDevice) { int scope_set_channel_state(int desired_channel, int status,const char * scopeType, int gpibDevice) {
if ((strcmp("HP54600OS", scopeType) == 0) || (strcmp("TDS744AOS", scopeType) == 0)) { if ((strcmp("HP54600OS", scopeType) == 0) || (strcmp("TDS744AOS", scopeType) == 0)) {
printf("[INFO] Setting channel %d state to %i\n\r", desired_channel, status); printf("[INFO] Setting channel %d state to %i\n\r", desired_channel, status);
if (strcmp("HP54600OS", scopeType) == 0) { if (strcmp("HP54600OS", scopeType) == 0) {
@ -380,7 +380,7 @@ int scope_set_channel_state(int desired_channel, int status, char * scopeType, i
} }
} }
int scope_set_trigger_channel(int desired_channel, char * scopeType, int gpibDevice) { int scope_set_trigger_channel(int desired_channel,const char * scopeType, int gpibDevice) {
if ((strcmp("HP54600OS", scopeType) == 0) || (strcmp("TDS744AOS", scopeType) == 0)) { if ((strcmp("HP54600OS", scopeType) == 0) || (strcmp("TDS744AOS", scopeType) == 0)) {
printf("[INFO] Setting scope trigger channel to %d\n\r", desired_channel); printf("[INFO] Setting scope trigger channel to %d\n\r", desired_channel);
if (strcmp("HP54600OS", scopeType) == 0) { if (strcmp("HP54600OS", scopeType) == 0) {
@ -413,7 +413,7 @@ int scope_set_trigger_channel(int desired_channel, char * scopeType, int gpibDev
} }
} }
int scope_set_trigger_level(float desired_level, char * scopeType, int gpibDevice) { int scope_set_trigger_level(float desired_level,const char * scopeType, int gpibDevice) {
if ((strcmp("HP54600OS", scopeType) == 0) || (strcmp("TDS744AOS", scopeType) == 0)) { if ((strcmp("HP54600OS", scopeType) == 0) || (strcmp("TDS744AOS", scopeType) == 0)) {
printf("[INFO] Setting scope trigger level to %f\n\r", desired_level); printf("[INFO] Setting scope trigger level to %f\n\r", desired_level);
if (strcmp("HP54600OS", scopeType) == 0) { if (strcmp("HP54600OS", scopeType) == 0) {
@ -446,7 +446,7 @@ int scope_set_trigger_level(float desired_level, char * scopeType, int gpibDevic
} }
} }
int scope_set_channel_position(int desired_channel, float desired_level, char * scopeType, int gpibDevice) { int scope_set_channel_position(int desired_channel, float desired_level,const char * scopeType, int gpibDevice) {
if ((strcmp("HP54600OS", scopeType) == 0) || (strcmp("TDS744AOS", scopeType) == 0)) { if ((strcmp("HP54600OS", scopeType) == 0) || (strcmp("TDS744AOS", scopeType) == 0)) {
printf("[INFO] Setting scope channel %d level to %f\n\r", desired_channel, desired_level); printf("[INFO] Setting scope channel %d level to %f\n\r", desired_channel, desired_level);
if (strcmp("HP54600OS", scopeType) == 0) { if (strcmp("HP54600OS", scopeType) == 0) {

@ -22,16 +22,16 @@
extern unsigned char scope_raw_screenshot_data[4194304]; extern unsigned char scope_raw_screenshot_data[4194304];
unsigned long scopeScreenSize (char * scopeType); unsigned long scopeScreenSize (const char * scopeType);
unsigned long scopeScreenWidth (char * scopeType); unsigned long scopeScreenWidth (const char * scopeType);
unsigned long scopeScreenHeight (char * scopeType); unsigned long scopeScreenHeight (const char * scopeType);
int gpib_read_binary(int ud, int max_num_bytes); int gpib_read_binary(int ud, int max_num_bytes);
int scope_get_screenshot(char * scopeType, int gpibDevice); int scope_get_screenshot(const char * scopeType, int gpibDevice);
int scope_get_screenshot_stage2(char * scopeType, int gpibDevice); int scope_get_screenshot_stage2(const char * scopeType, int gpibDevice);
int scope_set_timebase(float desired_timebase, char * scopeType, int gpibDevice); int scope_set_timebase(float desired_timebase,const char * scopeType, int gpibDevice);
int scope_set_volts_div(int desired_channel, float desired_volts, char * scopeType, int gpibDevice); int scope_set_volts_div(int desired_channel, float desired_volts,const char * scopeType, int gpibDevice);
int scope_set_acquisition(int status, char * scopeType, int gpibDevice); int scope_set_acquisition(int status,const char * scopeType, int gpibDevice);
int scope_set_channel_state(int desired_channel, int status, char * scopeType, int gpibDevice); int scope_set_channel_state(int desired_channel, int status,const char * scopeType, int gpibDevice);
int scope_set_trigger_channel(int desired_channel, char * scopeType, int gpibDevice); int scope_set_trigger_channel(int desired_channel,const char * scopeType, int gpibDevice);
int scope_set_trigger_level(float desired_level, char * scopeType, int gpibDevice); int scope_set_trigger_level(float desired_level,const char * scopeType, int gpibDevice);
int scope_set_channel_position(int desired_channel, float desired_level, char * scopeType, int gpibDevice); int scope_set_channel_position(int desired_channel, float desired_level,const char * scopeType, int gpibDevice);

@ -34,7 +34,7 @@
extern char falpha[1024]; extern char falpha[1024];
int signal_get_last_error(char * funcgenType, int gpibDevice, char * extendedError) { int signal_get_last_error(const char * funcgenType, int gpibDevice, char * extendedError) {
char error_array[1024]; char error_array[1024];
int ei; int ei;
char * ep; char * ep;
@ -81,7 +81,7 @@ int signal_get_last_error(char * funcgenType, int gpibDevice, char * extendedErr
return 1; return 1;
} }
int signal_reset(char * funcgenType, int gpibDevice, char * extendedError) int signal_reset(const char * funcgenType, int gpibDevice, char * extendedError)
{ {
if ((strcmp("AG33250A", funcgenType) == 0)) { if ((strcmp("AG33250A", funcgenType) == 0)) {
printf("[INFO] Resetting function generator\n\r"); printf("[INFO] Resetting function generator\n\r");
@ -163,7 +163,7 @@ int signal_reset(char * funcgenType, int gpibDevice, char * extendedError)
return 1; return 1;
} }
int signal_set_frequency(float desired_frequency, char * funcgenType, int gpibDevice, char * extendedError) { int signal_set_frequency(float desired_frequency, const char * funcgenType, int gpibDevice, char * extendedError) {
if ((strcmp("AG33250A", funcgenType) == 0)) { if ((strcmp("AG33250A", funcgenType) == 0)) {
printf("[INFO] Setting function generator frequency to %f\n\r", desired_frequency); printf("[INFO] Setting function generator frequency to %f\n\r", desired_frequency);
if (strcmp("AG33250A", funcgenType) == 0) { if (strcmp("AG33250A", funcgenType) == 0) {
@ -187,7 +187,7 @@ int signal_set_frequency(float desired_frequency, char * funcgenType, int gpibDe
} }
} }
int signal_set_duty_cycle(float desired_dcycle, char * funcgenType, int gpibDevice, char * extendedError) { int signal_set_duty_cycle(float desired_dcycle, const char * funcgenType, int gpibDevice, char * extendedError) {
if ((strcmp("AG33250A", funcgenType) == 0)) { if ((strcmp("AG33250A", funcgenType) == 0)) {
printf("[INFO] Setting function generator period to %f\n\r", desired_dcycle); printf("[INFO] Setting function generator period to %f\n\r", desired_dcycle);
if (strcmp("AG33250A", funcgenType) == 0) { if (strcmp("AG33250A", funcgenType) == 0) {
@ -211,7 +211,7 @@ int signal_set_duty_cycle(float desired_dcycle, char * funcgenType, int gpibDevi
} }
} }
int signal_set_waveform(char * waveform, char * funcgenType, int gpibDevice, char * extendedError) { int signal_set_waveform(char * waveform, const char * funcgenType, int gpibDevice, char * extendedError) {
if ((strcmp("AG33250A", funcgenType) == 0)) { if ((strcmp("AG33250A", funcgenType) == 0)) {
printf("[INFO] Setting function generator waveform to %s\n\r", waveform); printf("[INFO] Setting function generator waveform to %s\n\r", waveform);
if (strcmp("AG33250A", funcgenType) == 0) { if (strcmp("AG33250A", funcgenType) == 0) {
@ -235,7 +235,7 @@ int signal_set_waveform(char * waveform, char * funcgenType, int gpibDevice, cha
} }
} }
int signal_set_peak_peak_voltage(float desired_voltage, char * funcgenType, int gpibDevice, char * extendedError) { int signal_set_peak_peak_voltage(float desired_voltage, const char * funcgenType, int gpibDevice, char * extendedError) {
if ((strcmp("AG33250A", funcgenType) == 0)) { if ((strcmp("AG33250A", funcgenType) == 0)) {
printf("[INFO] Setting function generator peak-peak voltage to %f\n\r", desired_voltage); printf("[INFO] Setting function generator peak-peak voltage to %f\n\r", desired_voltage);
if (strcmp("AG33250A", funcgenType) == 0) { if (strcmp("AG33250A", funcgenType) == 0) {
@ -259,7 +259,7 @@ int signal_set_peak_peak_voltage(float desired_voltage, char * funcgenType, int
} }
} }
int signal_set_offset_voltage(float desired_voltage, char * funcgenType, int gpibDevice, char * extendedError) { int signal_set_offset_voltage(float desired_voltage, const char * funcgenType, int gpibDevice, char * extendedError) {
if ((strcmp("AG33250A", funcgenType) == 0)) { if ((strcmp("AG33250A", funcgenType) == 0)) {
printf("[INFO] Setting function generator peak-peak voltage to %f\n\r", desired_voltage); printf("[INFO] Setting function generator peak-peak voltage to %f\n\r", desired_voltage);
if (strcmp("AG33250A", funcgenType) == 0) { if (strcmp("AG33250A", funcgenType) == 0) {

@ -20,9 +20,9 @@
* http://www.raptorengineeringinc.com * http://www.raptorengineeringinc.com
*/ */
int signal_reset(char * funcgenType, int gpibDevice, char * extendedError); int signal_reset(const char * funcgenType, int gpibDevice, char * extendedError);
int signal_set_frequency(float desired_frequency, char * funcgenType, int gpibDevice, char * extendedError); int signal_set_frequency(float desired_frequency,const char * funcgenType, int gpibDevice, char * extendedError);
int signal_set_duty_cycle(float desired_dcycle, char * funcgenType, int gpibDevice, char * extendedError); int signal_set_duty_cycle(float desired_dcycle,const char * funcgenType, int gpibDevice, char * extendedError);
int signal_set_waveform(char * waveform, char * funcgenType, int gpibDevice, char * extendedError); int signal_set_waveform(char * waveform,const char * funcgenType, int gpibDevice, char * extendedError);
int signal_set_peak_peak_voltage(float desired_voltage, char * funcgenType, int gpibDevice, char * extendedError); int signal_set_peak_peak_voltage(float desired_voltage,const char * funcgenType, int gpibDevice, char * extendedError);
int signal_set_offset_voltage(float desired_voltage, char * funcgenType, int gpibDevice, char * extendedError); int signal_set_offset_voltage(float desired_voltage,const char * funcgenType, int gpibDevice, char * extendedError);

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