ctb:separated analog and digital samples in server and send analog and digital data packed separately per frame to reciever

This commit is contained in:
maliakal_d 2019-04-30 18:55:32 +02:00
parent b0cffcd570
commit 2f3b0e0b06
17 changed files with 489 additions and 300 deletions

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@ -429,6 +429,11 @@
/* Samples RW register */ /* Samples RW register */
#define SAMPLES_REG (0x5D << MEM_MAP_SHIFT) #define SAMPLES_REG (0x5D << MEM_MAP_SHIFT)
#define SAMPLES_DIGITAL_OFST (0)
#define SAMPLES_DIGITAL_MSK (0x0000FFFF << SAMPLES_DIGITAL_OFST)
#define SAMPLES_ANALOG_OFST (16)
#define SAMPLES_ANALOG_MSK (0x0000FFFF << SAMPLES_ANALOG_OFST)
/** Power RW register */ /** Power RW register */
#define POWER_REG (0x5E << MEM_MAP_SHIFT) #define POWER_REG (0x5E << MEM_MAP_SHIFT)

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@ -39,7 +39,13 @@ int virtual_stop = 0;
#endif #endif
int dataBytes = 0; int dataBytes = 0;
char* ramValues = 0; int analogDataBytes = 0;
int digitalDataBytes = 0;
char* analogData = 0;
char* digitalData = 0;
char volatile *analogDataPtr = 0;
char volatile *digitalDataPtr = 0;
char udpPacketData[UDP_PACKET_DATA_BYTES + sizeof(sls_detector_header)]; char udpPacketData[UDP_PACKET_DATA_BYTES + sizeof(sls_detector_header)];
int32_t clkPhase[NUM_CLOCKS] = {0, 0, 0, 0}; int32_t clkPhase[NUM_CLOCKS] = {0, 0, 0, 0};
@ -53,8 +59,9 @@ int highvoltage = 0;
uint32_t adcEnableMask = 0; uint32_t adcEnableMask = 0;
int analogEnable = 1; int analogEnable = 1;
int digitalEnable = 0; int digitalEnable = 0;
int nSamples = 1; int naSamples = 1;
char volatile *now_ptr = 0; int ndSamples = 1;
int isFirmwareCheckDone() { int isFirmwareCheckDone() {
return firmware_check_done; return firmware_check_done;
@ -454,10 +461,18 @@ void setupDetector() {
// default variables // default variables
dataBytes = 0; dataBytes = 0;
if (ramValues) { analogDataBytes = 0;
free(ramValues); digitalDataBytes = 0;
ramValues = 0; if (analogData) {
free(analogData);
analogData = 0;
} }
if (digitalData) {
free(digitalData);
digitalData = 0;
}
analogDataPtr = 0;
digitalDataPtr = 0;
{ {
int i = 0; int i = 0;
for (i = 0; i < NUM_CLOCKS; ++i) { for (i = 0; i < NUM_CLOCKS; ++i) {
@ -475,8 +490,8 @@ void setupDetector() {
adcEnableMask = BIT_32_MSK; adcEnableMask = BIT_32_MSK;
analogEnable = 1; analogEnable = 1;
digitalEnable = 0; digitalEnable = 0;
nSamples = 1; naSamples = 1;
now_ptr = 0; ndSamples = 1;
ALTERA_PLL_ResetPLLAndReconfiguration(); ALTERA_PLL_ResetPLLAndReconfiguration();
@ -538,7 +553,8 @@ void setupDetector() {
enableTenGigabitEthernet(0); enableTenGigabitEthernet(0);
//Initialization of acquistion parameters //Initialization of acquistion parameters
setTimer(SAMPLES, DEFAULT_NUM_SAMPLES); // update databytes and allocate ram setTimer(ANALOG_SAMPLES, DEFAULT_NUM_SAMPLES);
setTimer(DIGITAL_SAMPLES, DEFAULT_NUM_SAMPLES); // update databytes and allocate ram
setTimer(FRAME_NUMBER, DEFAULT_NUM_FRAMES); setTimer(FRAME_NUMBER, DEFAULT_NUM_FRAMES);
setTimer(ACQUISITION_TIME, DEFAULT_EXPTIME); setTimer(ACQUISITION_TIME, DEFAULT_EXPTIME);
setTimer(CYCLES_NUMBER, DEFAULT_NUM_CYCLES); setTimer(CYCLES_NUMBER, DEFAULT_NUM_CYCLES);
@ -552,7 +568,8 @@ void setupDetector() {
} }
int allocateRAM() { int allocateRAM() {
int oldDataBytes = dataBytes; int oldAnalogDataBytes = analogDataBytes;
int oldDigitalDataBytes = digitalDataBytes;
updateDataBytes(); updateDataBytes();
// only allcoate RAM for 1 giga udp (if 10G, return) // only allcoate RAM for 1 giga udp (if 10G, return)
@ -561,59 +578,82 @@ int allocateRAM() {
// update only if change in databytes // update only if change in databytes
if (dataBytes == oldDataBytes) { if (analogDataBytes == oldAnalogDataBytes && digitalDataBytes == oldDigitalDataBytes) {
FILE_LOG(logDEBUG1, ("RAM of size %d already allocated. Nothing to be done.\n", dataBytes)); FILE_LOG(logDEBUG1, ("RAM size (Analog:%d, Digital:%d) already allocated. Nothing to be done.\n",
analogDataBytes, digitalDataBytes));
return OK; return OK;
} }
// Zero databytes // Zero databytes
if (dataBytes <= 0) { if (analogDataBytes == 0 && digitalDataBytes == 0) {
FILE_LOG(logERROR, ("Can not allocate RAM for 0 bytes (databytes: 0).\n")); FILE_LOG(logERROR, ("Can not allocate RAM for 0 bytes.\n"));
return FAIL; return FAIL;
} }
// clear RAM // clear RAM
if (ramValues) { if (analogData) {
free(ramValues); free(analogData);
ramValues = 0; analogData = 0;
}
if (digitalData) {
free(digitalData);
digitalData = 0;
} }
// allocate RAM // allocate RAM
ramValues = malloc(dataBytes); if (analogDataBytes) {
analogData = malloc(analogDataBytes);
// cannot malloc // cannot malloc
if (ramValues == NULL) { if (analogData == NULL) {
FILE_LOG(logERROR, ("Can not allocate RAM for even 1 frame. " FILE_LOG(logERROR, ("Can not allocate analog data RAM for even 1 frame. "
"Probably cause: Memory Leak.\n")); "Probable cause: Memory Leak.\n"));
return FAIL; return FAIL;
} }
FILE_LOG(logINFO, ("\tAnalog RAM allocated to %d bytes\n", analogDataBytes));
}
if (digitalDataBytes) {
digitalData = malloc(digitalDataBytes);
// cannot malloc
if (digitalData == NULL) {
FILE_LOG(logERROR, ("Can not allocate digital data RAM for even 1 frame. "
"Probable cause: Memory Leak.\n"));
return FAIL;
}
}
FILE_LOG(logINFO, ("\tRAM allocated to %d bytes\n", dataBytes));
FILE_LOG(logINFO, ("\tDigital RAM allocated to %d bytes\n", digitalDataBytes));
return OK; return OK;
} }
void updateDataBytes() { void updateDataBytes() {
int oldDataBytes = dataBytes; int nachans = 0, ndchans = 0;
dataBytes = NCHIP * getChannels() * NUM_BYTES_PER_PIXEL * nSamples; analogDataBytes = 0;
if (dataBytes != oldDataBytes) { digitalDataBytes = 0;
FILE_LOG(logINFO, ("\tUpdating Databytes: %d\n", dataBytes));
}
}
int getChannels() {
int nchans = 0;
// analog
if (analogEnable) { if (analogEnable) {
if (adcEnableMask == BIT_32_MSK) if (adcEnableMask == BIT_32_MSK)
nchans = 32; nachans = 32;
else { else {
int ichan = 0; int ichan = 0;
for (ichan = 0; ichan < NCHAN_ANALOG; ++ichan) { for (ichan = 0; ichan < NCHAN_ANALOG; ++ichan) {
if (adcEnableMask & (1 << ichan)) if (adcEnableMask & (1 << ichan))
++nchans; ++nachans;
} }
} }
analogDataBytes = nachans * (DYNAMIC_RANGE / 8) * naSamples;
FILE_LOG(logINFO, ("\t#Analog Channels:%d, Databytes:%d\n", nachans, analogDataBytes));
} }
if (digitalEnable) // digital
nchans += NCHAN_DIGITAL; if (digitalEnable) {
FILE_LOG(logINFO, ("\tNumber of Channels calculated: %d\n", nchans)) ndchans = NCHAN_DIGITAL;
return nchans; digitalDataBytes = (sizeof(uint64_t) * ndSamples);
FILE_LOG(logINFO, ("\t#Digital Channels:%d, Databytes:%d\n", ndchans, digitalDataBytes));
}
// total
int nchans = nachans + ndchans;
dataBytes = analogDataBytes + digitalDataBytes;
FILE_LOG(logINFO, ("\t#Total Channels:%d, Total Databytes:%d\n", nchans, dataBytes));
} }
@ -845,17 +885,33 @@ int64_t setTimer(enum timerIndex ind, int64_t val) {
FILE_LOG(logINFO, ("\tGetting #cycles: %lld\n", (long long int)retval)); FILE_LOG(logINFO, ("\tGetting #cycles: %lld\n", (long long int)retval));
break; break;
case SAMPLES: case ANALOG_SAMPLES:
if(val >= 0) { if(val >= 0) {
FILE_LOG(logINFO, ("Setting #samples: %lld\n", (long long int)val)); FILE_LOG(logINFO, ("Setting #analog samples: %lld\n", (long long int)val));
nSamples = val; naSamples = val;
bus_w(SAMPLES_REG, val); bus_w(SAMPLES_REG, bus_r(SAMPLES_REG) &~ SAMPLES_ANALOG_MSK);
bus_w(SAMPLES_REG, bus_r(SAMPLES_REG) | ((val << SAMPLES_ANALOG_OFST) & SAMPLES_ANALOG_MSK));
if (allocateRAM() == FAIL) { if (allocateRAM() == FAIL) {
return -1; return -1;
} }
} }
retval = nSamples; retval = naSamples;
FILE_LOG(logINFO, ("\tGetting #samples: %lld\n", (long long int)retval)); FILE_LOG(logINFO, ("\tGetting #analog samples: %lld\n", (long long int)retval));
break;
case DIGITAL_SAMPLES:
if(val >= 0) {
FILE_LOG(logINFO, ("Setting #digital samples: %lld\n", (long long int)val));
ndSamples = val;
bus_w(SAMPLES_REG, bus_r(SAMPLES_REG) &~ SAMPLES_DIGITAL_MSK);
bus_w(SAMPLES_REG, bus_r(SAMPLES_REG) | ((val << SAMPLES_DIGITAL_OFST) & SAMPLES_DIGITAL_MSK));
if (allocateRAM() == FAIL) {
return -1;
}
}
retval = ndSamples;
FILE_LOG(logINFO, ("\tGetting #digital samples: %lld\n", (long long int)retval));
break; break;
default: default:
@ -2242,7 +2298,7 @@ void readSample(int ns) {
uint32_t addr = DUMMY_REG; uint32_t addr = DUMMY_REG;
// read adcs // read adcs
if (analogEnable) { if (analogEnable && ns < naSamples) {
uint32_t fifoAddr = FIFO_DATA_REG; uint32_t fifoAddr = FIFO_DATA_REG;
@ -2259,7 +2315,7 @@ void readSample(int ns) {
if (!(ns%1000)) { if (!(ns%1000)) {
FILE_LOG(logDEBUG1, ("Reading sample ns:%d of %d AEmtpy:0x%x AFull:0x%x Status:0x%x\n", FILE_LOG(logDEBUG1, ("Reading sample ns:%d of %d AEmtpy:0x%x AFull:0x%x Status:0x%x\n",
ns, nSamples, bus_r(FIFO_EMPTY_REG), bus_r(FIFO_FULL_REG), bus_r(STATUS_REG))); ns, naSamples, bus_r(FIFO_EMPTY_REG), bus_r(FIFO_FULL_REG), bus_r(STATUS_REG)));
} }
// loop through all channels // loop through all channels
@ -2276,22 +2332,22 @@ void readSample(int ns) {
bus_w(addr, bus_r(addr) | ((ich << DUMMY_FIFO_CHNNL_SLCT_OFST) & DUMMY_FIFO_CHNNL_SLCT_MSK)); bus_w(addr, bus_r(addr) | ((ich << DUMMY_FIFO_CHNNL_SLCT_OFST) & DUMMY_FIFO_CHNNL_SLCT_MSK));
// read fifo and write it to current position of data pointer // read fifo and write it to current position of data pointer
*((uint16_t*)now_ptr) = bus_r16(fifoAddr); *((uint16_t*)analogDataPtr) = bus_r16(fifoAddr);
// keep reading till the value is the same // keep reading till the value is the same
/* while (*((uint16_t*)now_ptr) != bus_r16(fifoAddr)) { /* while (*((uint16_t*)analogDataPtr) != bus_r16(fifoAddr)) {
FILE_LOG(logDEBUG1, ("%d ", ich)); FILE_LOG(logDEBUG1, ("%d ", ich));
*((uint16_t*)now_ptr) = bus_r16(fifoAddr); *((uint16_t*)analogDataPtr) = bus_r16(fifoAddr);
}*/ }*/
// increment pointer to data out destination // increment pointer to data out destination
now_ptr += 2; analogDataPtr += 2;
} }
} }
} }
// read digital output // read digital output
if (digitalEnable) { if (digitalEnable && ns < ndSamples) {
// read strobe to digital fifo // read strobe to digital fifo
bus_w(addr, bus_r(addr) | DUMMY_DGTL_FIFO_RD_STRBE_MSK); bus_w(addr, bus_r(addr) | DUMMY_DGTL_FIFO_RD_STRBE_MSK);
bus_w(addr, bus_r(addr) & (~DUMMY_DGTL_FIFO_RD_STRBE_MSK)); bus_w(addr, bus_r(addr) & (~DUMMY_DGTL_FIFO_RD_STRBE_MSK));
@ -2306,15 +2362,15 @@ void readSample(int ns) {
// wait as it is connected directly to fifo running on a different clock // wait as it is connected directly to fifo running on a different clock
if (!(ns%1000)) { if (!(ns%1000)) {
FILE_LOG(logDEBUG1, ("Reading sample ns:%d of %d DEmtpy:%d DFull:%d Status:0x%x\n", FILE_LOG(logDEBUG1, ("Reading sample ns:%d of %d DEmtpy:%d DFull:%d Status:0x%x\n",
ns, nSamples, ns, ndSamples,
((bus_r(FIFO_DIN_STATUS_REG) & FIFO_DIN_STATUS_FIFO_EMPTY_MSK) >> FIFO_DIN_STATUS_FIFO_EMPTY_OFST), ((bus_r(FIFO_DIN_STATUS_REG) & FIFO_DIN_STATUS_FIFO_EMPTY_MSK) >> FIFO_DIN_STATUS_FIFO_EMPTY_OFST),
((bus_r(FIFO_DIN_STATUS_REG) & FIFO_DIN_STATUS_FIFO_FULL_MSK) >> FIFO_DIN_STATUS_FIFO_FULL_OFST), ((bus_r(FIFO_DIN_STATUS_REG) & FIFO_DIN_STATUS_FIFO_FULL_MSK) >> FIFO_DIN_STATUS_FIFO_FULL_OFST),
bus_r(STATUS_REG))); bus_r(STATUS_REG)));
} }
// read fifo and write it to current position of data pointer // read fifo and write it to current position of data pointer
*((uint64_t*)now_ptr) = get64BitReg(FIFO_DIN_LSB_REG, FIFO_DIN_MSB_REG); *((uint64_t*)digitalDataPtr) = get64BitReg(FIFO_DIN_LSB_REG, FIFO_DIN_MSB_REG);
now_ptr += 8; digitalDataPtr += 8;
} }
} }
@ -2334,7 +2390,7 @@ uint32_t checkDataInFifo() {
return dataPresent; return dataPresent;
} }
// only called for first sample // only called for starting of a new frame
int checkFifoForEndOfAcquisition() { int checkFifoForEndOfAcquisition() {
uint32_t dataPresent = checkDataInFifo(); uint32_t dataPresent = checkDataInFifo();
FILE_LOG(logDEBUG2, ("status:0x%x\n", bus_r(STATUS_REG))); FILE_LOG(logDEBUG2, ("status:0x%x\n", bus_r(STATUS_REG)));
@ -2367,7 +2423,8 @@ int checkFifoForEndOfAcquisition() {
int readFrameFromFifo() { int readFrameFromFifo() {
int ns = 0; int ns = 0;
// point the data pointer to the starting position of data // point the data pointer to the starting position of data
now_ptr = ramValues; analogDataPtr = analogData;
digitalDataPtr = digitalData;
// no data for this frame // no data for this frame
if (checkFifoForEndOfAcquisition() == FAIL) { if (checkFifoForEndOfAcquisition() == FAIL) {
@ -2375,7 +2432,8 @@ int readFrameFromFifo() {
} }
// read Sample // read Sample
while(ns < nSamples) { int maxSamples = (naSamples > ndSamples) ? naSamples : ndSamples;
while(ns < maxSamples) {
// chceck if no data in fifo, return ns?//FIXME: ask Anna // chceck if no data in fifo, return ns?//FIXME: ask Anna
readSample(ns); readSample(ns);
ns++; ns++;

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@ -32,7 +32,7 @@ enum DACINDEX {D0, D1, D2, D3, D4, D5, D6, D7, D8, D9,
/* Hardware Definitions */ /* Hardware Definitions */
#define NCHAN (36) #define NCHAN (36)
#define NCHAN_ANALOG (32) #define NCHAN_ANALOG (32)
#define NCHAN_DIGITAL (4) #define NCHAN_DIGITAL (64)
#define NCHIP (1) #define NCHIP (1)
#define NDAC (24) #define NDAC (24)
#define NPWR (6) #define NPWR (6)

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@ -574,27 +574,12 @@ int allocateRAM() {
void updateDataBytes() { void updateDataBytes() {
int oldDataBytes = dataBytes; int oldDataBytes = dataBytes;
dataBytes = NCHIP * getChannels() * NUM_BYTES_PER_PIXEL * nSamples; dataBytes = NCHIP * NUM_BYTES_PER_PIXEL * nSamples;
if (dataBytes != oldDataBytes) { if (dataBytes != oldDataBytes) {
FILE_LOG(logINFO, ("\tUpdating Databytes: %d\n", dataBytes)); FILE_LOG(logINFO, ("\tUpdating Databytes: %d\n", dataBytes));
} }
} }
int getChannels() {
int nchans = 0;
nchans += NCHAN;
// remove the channels disabled
int ichan = 0;
for (ichan = 0; ichan < NCHAN; ++ichan) {
if (adcDisableMask & (1 << ichan))
--nchans;
}
FILE_LOG(logINFO, ("\tNumber of Channels calculated: %d\n", nchans))
return nchans;
}
/* firmware functions (resets) */ /* firmware functions (resets) */

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@ -15,22 +15,20 @@
#include <errno.h> #include <errno.h>
#include <netdb.h> #include <netdb.h>
extern const enum detectorType myDetectorType;
extern int nSamples;
extern int dataBytes;
extern int nframes;
extern char* ramValues;
#define UDP_PACKET_HEADER_VERSION (0x1) #define UDP_PACKET_HEADER_VERSION (0x1)
extern const enum detectorType myDetectorType;
extern int analogDataBytes;
extern int digitalDataBytes;
extern char* analogData;
extern char* digitalData;
int analogOffset = 0;
int digitalOffset = 0;
uint32_t udpPacketNumber = 0; uint32_t udpPacketNumber = 0;
uint64_t udpFrameNumber = 0; uint64_t udpFrameNumber = 0;
int numSamplesPerPacket = 0;
int dataBytesPerSample = 0;
int dataBytesPerPacket = 0;
int udpHeaderOffset = 0;
uint32_t getUDPPacketNumber() { uint32_t getUDPPacketNumber() {
return udpPacketNumber; return udpPacketNumber;
@ -56,25 +54,28 @@ void createUDPPacketHeader(char* buffer, uint16_t id) {
header->version = UDP_PACKET_HEADER_VERSION; header->version = UDP_PACKET_HEADER_VERSION;
// reset offset // reset offset
udpHeaderOffset = 0; analogOffset = 0;
digitalOffset = 0;
// reset frame number // reset frame number
udpFrameNumber = 0; udpFrameNumber = 0;
} }
int fillUDPPacket(char* buffer) { int fillUDPPacket(char* buffer) {
FILE_LOG(logDEBUG2, ("Databytes:%d offset:%d\n", dataBytes, udpHeaderOffset)); FILE_LOG(logDEBUG2, ("Analog (databytes:%d, offset:%d)\n Digital (databytes:%d offset:%d)\n",
analogDataBytes, analogOffset, digitalDataBytes, digitalOffset));
// reached end of data for one frame // reached end of data for one frame
if (udpHeaderOffset >= dataBytes) { if (analogOffset >= analogDataBytes && digitalOffset >= digitalDataBytes) {
// reset offset // reset offset
udpHeaderOffset = 0; analogOffset = 0;
digitalOffset = 0;
return 0; return 0;
} }
sls_detector_header* header = (sls_detector_header*)(buffer); sls_detector_header* header = (sls_detector_header*)(buffer);
// update frame number, starts at 1 (reset packet number) // update frame number, starts at 1 (reset packet number)
if (udpHeaderOffset == 0) { if (analogOffset == 0 && digitalOffset == 0) {
++udpFrameNumber; ++udpFrameNumber;
header->frameNumber = udpFrameNumber; header->frameNumber = udpFrameNumber;
udpPacketNumber = -1; udpPacketNumber = -1;
@ -85,21 +86,41 @@ int fillUDPPacket(char* buffer) {
header->packetNumber = udpPacketNumber; header->packetNumber = udpPacketNumber;
FILE_LOG(logDEBUG2, ("Creating packet number %d (fnum:%lld)\n", udpPacketNumber, (long long int) udpFrameNumber)); FILE_LOG(logDEBUG2, ("Creating packet number %d (fnum:%lld)\n", udpPacketNumber, (long long int) udpFrameNumber));
// calculate number of bytes to copy int freeBytes = UDP_PACKET_DATA_BYTES;
int numBytesToCopy = ((udpHeaderOffset + UDP_PACKET_DATA_BYTES) <= dataBytes) ?
UDP_PACKET_DATA_BYTES : (dataBytes - udpHeaderOffset);
// copy data // analog data
memcpy(buffer + sizeof(sls_detector_header), ramValues + udpHeaderOffset, numBytesToCopy); int analogBytes = 0;
// pad last packet if extra space if (analogOffset < analogDataBytes) {
if (numBytesToCopy < UDP_PACKET_DATA_BYTES) { // bytes to copy
int bytes = UDP_PACKET_DATA_BYTES - numBytesToCopy; analogBytes = ((analogOffset + freeBytes) <= analogDataBytes) ?
FILE_LOG(logDEBUG1, ("Padding %d bytes for fnum:%lld pnum:%d\n", bytes, (long long int)udpFrameNumber, udpPacketNumber)); freeBytes : (analogDataBytes - analogOffset);
memset(buffer + sizeof(sls_detector_header) + numBytesToCopy, 0, bytes); // copy
memcpy(buffer + sizeof(sls_detector_header), analogData + analogOffset, analogBytes);
// increment offset
analogOffset += analogBytes;
// decrement free bytes
freeBytes -= analogBytes;
} }
// digital data
int digitalBytes = 0;
if (freeBytes && digitalOffset < digitalDataBytes) {
// bytes to copy
digitalBytes = ((digitalOffset + freeBytes) <= digitalDataBytes) ?
freeBytes : (digitalDataBytes - digitalOffset);
// copy
memcpy(buffer + sizeof(sls_detector_header) + analogBytes, digitalData + digitalOffset, digitalBytes);
// increment offset // increment offset
udpHeaderOffset += numBytesToCopy; digitalOffset += digitalBytes;
// decrement free bytes
freeBytes -= digitalBytes;
}
// pad data
if (freeBytes) {
memset(buffer + sizeof(sls_detector_header) + analogBytes + digitalBytes, 0, freeBytes);
FILE_LOG(logDEBUG1, ("Padding %d bytes for fnum:%lld pnum:%d\n", freeBytes, (long long int)udpFrameNumber, udpPacketNumber));
}
return UDP_PACKET_DATA_BYTES + sizeof(sls_detector_header); return UDP_PACKET_DATA_BYTES + sizeof(sls_detector_header);
} }

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@ -61,7 +61,6 @@ void setupDetector();
#if defined(CHIPTESTBOARDD) || defined(MOENCHD) #if defined(CHIPTESTBOARDD) || defined(MOENCHD)
int allocateRAM(); int allocateRAM();
void updateDataBytes(); void updateDataBytes();
int getChannels();
#endif #endif
#if defined(GOTTHARDD) || defined(JUNGFRAUD) #if defined(GOTTHARDD) || defined(JUNGFRAUD)

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@ -124,7 +124,8 @@ const char* getTimerName(enum timerIndex ind) {
case MEASUREMENTS_NUMBER: return "measurements_number"; case MEASUREMENTS_NUMBER: return "measurements_number";
case FRAMES_FROM_START: return "frames_from_start"; case FRAMES_FROM_START: return "frames_from_start";
case FRAMES_FROM_START_PG: return "frames_from_start_pg"; case FRAMES_FROM_START_PG: return "frames_from_start_pg";
case SAMPLES: return "samples"; case ANALOG_SAMPLES: return "analog_samples";
case DIGITAL_SAMPLES: return "digital_samples";
case SUBFRAME_ACQUISITION_TIME: return "subframe_acquisition_time"; case SUBFRAME_ACQUISITION_TIME: return "subframe_acquisition_time";
case SUBFRAME_DEADTIME: return "subframe_deadtime"; case SUBFRAME_DEADTIME: return "subframe_deadtime";
case STORAGE_CELL_NUMBER: return "storage_cell_number"; case STORAGE_CELL_NUMBER: return "storage_cell_number";
@ -1581,7 +1582,8 @@ int set_timer(int file_des) {
case FRAME_PERIOD: case FRAME_PERIOD:
case CYCLES_NUMBER: case CYCLES_NUMBER:
#if defined(CHIPTESTBOARDD) || defined(MOENCHD) #if defined(CHIPTESTBOARDD) || defined(MOENCHD)
case SAMPLES: case ANALOG_SAMPLES:
case DIGITAL_SAMPLES:
#endif #endif
#ifndef EIGERD #ifndef EIGERD
case DELAY_AFTER_TRIGGER: case DELAY_AFTER_TRIGGER:
@ -1652,12 +1654,13 @@ int set_timer(int file_des) {
case STORAGE_CELL_NUMBER: case STORAGE_CELL_NUMBER:
validate64(tns, retval, vtimerName, DEC); // no conversion, so all good validate64(tns, retval, vtimerName, DEC); // no conversion, so all good
break; break;
case SAMPLES: case ANALOG_SAMPLES:
case DIGITAL_SAMPLES:
if (retval == -1) { if (retval == -1) {
ret = FAIL; ret = FAIL;
retval = setTimer(ind, -1); retval = setTimer(ind, -1);
sprintf(mess, "Could not set samples to %lld. Could not allocate RAM\n", sprintf(mess, "Could not %s to %lld. Could not allocate RAM\n",
(long long unsigned int)tns); vtimerName, (long long unsigned int)tns);
FILE_LOG(logERROR,(mess)); FILE_LOG(logERROR,(mess));
} else } else
validate64(tns, retval, vtimerName, DEC); // no conversion, so all good validate64(tns, retval, vtimerName, DEC); // no conversion, so all good
@ -2258,12 +2261,18 @@ int send_update(int file_des) {
} }
#endif #endif
// #samples, adcmask
#if defined(CHIPTESTBOARDD) || defined(MOENCHD) #if defined(CHIPTESTBOARDD) || defined(MOENCHD)
i64 = setTimer(SAMPLES,GET_FLAG); // #analog samples
i64 = setTimer(ANALOG_SAMPLES,GET_FLAG);
n = sendData(file_des,&i64,sizeof(i64),INT64); n = sendData(file_des,&i64,sizeof(i64),INT64);
if (n < 0) return printSocketReadError(); if (n < 0) return printSocketReadError();
// #digital samples
i64 = setTimer(DIGITAL_SAMPLES,GET_FLAG);
n = sendData(file_des,&i64,sizeof(i64),INT64);
if (n < 0) return printSocketReadError();
// adcmask
i32 = getADCEnableMask(); i32 = getADCEnableMask();
n = sendData(file_des,&i32,sizeof(i32),INT32); n = sendData(file_des,&i32,sizeof(i32),INT32);
if (n < 0) return printSocketReadError(); if (n < 0) return printSocketReadError();

View File

@ -284,7 +284,8 @@ void multiSlsDetector::initSharedMemory(bool verify) {
<< ") version mismatch " << ") version mismatch "
"(expected 0x" "(expected 0x"
<< std::hex << MULTI_SHMVERSION << " but got 0x" << std::hex << MULTI_SHMVERSION << " but got 0x"
<< multi_shm()->shmversion << std::dec; << multi_shm()->shmversion << std::dec
<< ". Clear Shared memory to continue.";
throw SharedMemoryError("Shared memory version mismatch!"); throw SharedMemoryError("Shared memory version mismatch!");
} }
} }
@ -1080,10 +1081,6 @@ int64_t multiSlsDetector::setTimer(timerIndex index, int64_t t, int detPos) {
auto r = parallelCall(&slsDetector::setTimer, index, t); auto r = parallelCall(&slsDetector::setTimer, index, t);
int64_t ret = sls::minusOneIfDifferent(r); int64_t ret = sls::minusOneIfDifferent(r);
if (index == SAMPLES) {
setDynamicRange();
}
// set progress // set progress
if (t != -1) { if (t != -1) {
switch (index) { switch (index) {

View File

@ -281,7 +281,7 @@ void slsDetector::initSharedMemory(detectorType type, int multi_id,
ss << "Single shared memory (" << multi_id << "-" << detId ss << "Single shared memory (" << multi_id << "-" << detId
<< ":) version mismatch (expected 0x" << std::hex << ":) version mismatch (expected 0x" << std::hex
<< SLS_SHMVERSION << " but got 0x" << shm()->shmversion << ")" << SLS_SHMVERSION << " but got 0x" << shm()->shmversion << ")"
<< std::dec; << std::dec << ". Clear Shared memory to continue.";
throw SharedMemoryError(ss.str()); throw SharedMemoryError(ss.str());
} }
} }
@ -322,7 +322,8 @@ void slsDetector::initializeDetectorStructure(detectorType type) {
shm()->timerValue[MEASUREMENTS_NUMBER] = 1; shm()->timerValue[MEASUREMENTS_NUMBER] = 1;
shm()->timerValue[FRAMES_FROM_START] = 0; shm()->timerValue[FRAMES_FROM_START] = 0;
shm()->timerValue[FRAMES_FROM_START_PG] = 0; shm()->timerValue[FRAMES_FROM_START_PG] = 0;
shm()->timerValue[SAMPLES] = 1; shm()->timerValue[ANALOG_SAMPLES] = 1;
shm()->timerValue[DIGITAL_SAMPLES] = 1;
shm()->timerValue[SUBFRAME_ACQUISITION_TIME] = 0; shm()->timerValue[SUBFRAME_ACQUISITION_TIME] = 0;
shm()->timerValue[STORAGE_CELL_NUMBER] = 0; shm()->timerValue[STORAGE_CELL_NUMBER] = 0;
shm()->timerValue[SUBFRAME_DEADTIME] = 0; shm()->timerValue[SUBFRAME_DEADTIME] = 0;
@ -418,11 +419,8 @@ void slsDetector::initializeDetectorStructure(detectorType type) {
// update #nchans and databytes, as it depends on #samples, adcmask, // update #nchans and databytes, as it depends on #samples, adcmask,
// readoutflags (ctb only) // readoutflags (ctb only)
if (shm()->myDetectorType == CHIPTESTBOARD ||
shm()->myDetectorType == MOENCH) {
updateTotalNumberOfChannels(); updateTotalNumberOfChannels();
} }
}
int slsDetector::sendModule(sls_detector_module *myMod, int slsDetector::sendModule(sls_detector_module *myMod,
sls::ClientSocket &client) { sls::ClientSocket &client) {
@ -519,7 +517,8 @@ slsDetectorDefs::detectorType slsDetector::getDetectorTypeFromShm(int multi_id,
std::ostringstream ss; std::ostringstream ss;
ss << "Single shared memory (" << multi_id << "-" << detId ss << "Single shared memory (" << multi_id << "-" << detId
<< ":)version mismatch (expected 0x" << std::hex << SLS_SHMVERSION << ":)version mismatch (expected 0x" << std::hex << SLS_SHMVERSION
<< " but got 0x" << shm()->shmversion << ")" << std::dec; << " but got 0x" << shm()->shmversion << ")" << std::dec
<< ". Clear Shared memory to continue.";
shm.UnmapSharedMemory(); shm.UnmapSharedMemory();
throw SharedMemoryError(ss.str()); throw SharedMemoryError(ss.str());
} }
@ -584,33 +583,37 @@ void slsDetector::updateTotalNumberOfChannels() {
if (shm()->myDetectorType == CHIPTESTBOARD || if (shm()->myDetectorType == CHIPTESTBOARD ||
shm()->myDetectorType == MOENCH) { shm()->myDetectorType == MOENCH) {
int nchans = 0; int nachans = 0, ndchans = 0;
// calculate analog channels int adatabytes = 0, ddatabytes = 0;
// analog channels (normal, analog/digital readout)
if (shm()->roFlags == slsDetectorDefs::NORMAL_READOUT ||
shm()->roFlags & slsDetectorDefs::ANALOG_AND_DIGITAL) {
uint32_t mask = shm()->adcEnableMask; uint32_t mask = shm()->adcEnableMask;
if (mask == BIT32_MASK) { if (mask == BIT32_MASK) {
nchans = 32; nachans = 32;
} else { } else {
nchans = 0;
for (int ich = 0; ich < 32; ++ich) { for (int ich = 0; ich < 32; ++ich) {
if (mask & (1 << ich)) if (mask & (1 << ich))
++nchans; ++nachans;
} }
} }
adatabytes = nachans * (shm()->dynamicRange / 8) *
shm()->timerValue[ANALOG_SAMPLES];
FILE_LOG(logDEBUG1)
<< "#Analog Channels:" << nachans << " Databytes: " << adatabytes;
}
// calculate digital channels // digital channels (ctb only, digital, analog/digital readout)
if (shm()->myDetectorType == CHIPTESTBOARD && if (shm()->myDetectorType == CHIPTESTBOARD &&
(((shm()->roFlags & DIGITAL_ONLY) != 0) || ((shm()->roFlags & DIGITAL_ONLY) || (shm()->roFlags & ANALOG_AND_DIGITAL))) {
((shm()->roFlags & ANALOG_AND_DIGITAL) != 0))) { ndchans = 64;
nchans += 4; ddatabytes = (sizeof(uint64_t) * shm()->timerValue[DIGITAL_SAMPLES]);
FILE_LOG(logDEBUG1) << "#Digital Channels:" << ndchans
<< " Databytes: " << ddatabytes;
} }
shm()->nChan[X] = nchans; shm()->nChans = nachans + ndchans;
shm()->dataBytes = adatabytes + ddatabytes;
// recalculate derived parameters chans and databytes FILE_LOG(logDEBUG1) << "# Total #Channels:" << shm()->nChans
shm()->nChans = nchans;
shm()->dataBytes = shm()->nChans * shm()->nChips *
(shm()->dynamicRange / 8) *
shm()->timerValue[SAMPLES];
FILE_LOG(logDEBUG1) << "Number of Channels:" << shm()->nChans
<< " Databytes: " << shm()->dataBytes; << " Databytes: " << shm()->dataBytes;
} }
} }
@ -882,10 +885,16 @@ int slsDetector::updateDetectorNoWait(sls::ClientSocket &client) {
if (shm()->myDetectorType == CHIPTESTBOARD || if (shm()->myDetectorType == CHIPTESTBOARD ||
shm()->myDetectorType == MOENCH) { shm()->myDetectorType == MOENCH) {
// samples // analog samples
n += client.receiveData(&i64, sizeof(i64)); n += client.receiveData(&i64, sizeof(i64));
if (i64 >= 0) { if (i64 >= 0) {
shm()->timerValue[SAMPLES] = i64; shm()->timerValue[ANALOG_SAMPLES] = i64;
}
// digital samples
n += client.receiveData(&i64, sizeof(i64));
if (i64 >= 0) {
shm()->timerValue[DIGITAL_SAMPLES] = i64;
} }
// adcmask // adcmask
@ -1518,8 +1527,7 @@ int64_t slsDetector::setTimer(timerIndex index, int64_t t) {
shm()->timerValue[index] = retval; shm()->timerValue[index] = retval;
// update #nchans and databytes, as it depends on #samples, adcmask, // update #nchans and databytes, as it depends on #samples, adcmask,
// readoutflags // readoutflags
if (index == SAMPLES && (shm()->myDetectorType == CHIPTESTBOARD || if (index == ANALOG_SAMPLES || index == DIGITAL_SAMPLES) {
shm()->myDetectorType == MOENCH)) {
updateTotalNumberOfChannels(); updateTotalNumberOfChannels();
} }
} }
@ -1548,7 +1556,8 @@ int64_t slsDetector::setTimer(timerIndex index, int64_t t) {
ACQUISITION_TIME, ACQUISITION_TIME,
SUBFRAME_ACQUISITION_TIME, SUBFRAME_ACQUISITION_TIME,
SUBFRAME_DEADTIME, SUBFRAME_DEADTIME,
SAMPLES, ANALOG_SAMPLES,
DIGITAL_SAMPLES,
STORAGE_CELL_NUMBER}; STORAGE_CELL_NUMBER};
if (std::any_of(std::begin(rt), std::end(rt), if (std::any_of(std::begin(rt), std::end(rt),
@ -1884,7 +1893,8 @@ std::string slsDetector::setReceiverHostname(const std::string &receiverIP) {
<< "\nsub exp time:" << "\nsub exp time:"
<< (shm()->timerValue[SUBFRAME_ACQUISITION_TIME]) << (shm()->timerValue[SUBFRAME_ACQUISITION_TIME])
<< "\nsub dead time:" << (shm()->timerValue[SUBFRAME_DEADTIME]) << "\nsub dead time:" << (shm()->timerValue[SUBFRAME_DEADTIME])
<< "\nsamples:" << (shm()->timerValue[SAMPLES]) << "\nasamples:" << (shm()->timerValue[ANALOG_SAMPLES])
<< "\ndsamples:" << (shm()->timerValue[DIGITAL_SAMPLES])
<< "\ndynamic range:" << shm()->dynamicRange << "\ndynamic range:" << shm()->dynamicRange
<< "\nflippeddatax:" << (shm()->flippedData[X]) << "\nflippeddatax:" << (shm()->flippedData[X])
<< "\nactivated: " << shm()->activated << "\nactivated: " << shm()->activated
@ -1939,14 +1949,16 @@ std::string slsDetector::setReceiverHostname(const std::string &receiverIP) {
break; break;
case CHIPTESTBOARD: case CHIPTESTBOARD:
setTimer(SAMPLES, shm()->timerValue[SAMPLES]); setTimer(ANALOG_SAMPLES, shm()->timerValue[ANALOG_SAMPLES]);
setTimer(DIGITAL_SAMPLES, shm()->timerValue[DIGITAL_SAMPLES]);
enableTenGigabitEthernet(shm()->tenGigaEnable); enableTenGigabitEthernet(shm()->tenGigaEnable);
setReadOutFlags(GET_READOUT_FLAGS); setReadOutFlags(GET_READOUT_FLAGS);
setADCEnableMask(shm()->adcEnableMask); setADCEnableMask(shm()->adcEnableMask);
break; break;
case MOENCH: case MOENCH:
setTimer(SAMPLES, shm()->timerValue[SAMPLES]); setTimer(ANALOG_SAMPLES, shm()->timerValue[ANALOG_SAMPLES]);
setTimer(DIGITAL_SAMPLES, shm()->timerValue[DIGITAL_SAMPLES]);
enableTenGigabitEthernet(shm()->tenGigaEnable); enableTenGigabitEthernet(shm()->tenGigaEnable);
setADCEnableMask(shm()->adcEnableMask); setADCEnableMask(shm()->adcEnableMask);
break; break;

View File

@ -609,12 +609,26 @@ slsDetectorCommand::slsDetectorCommand(multiSlsDetector *det) {
++i; ++i;
/*! \page timing /*! \page timing
- <b>samples [i]</b> sets/gets number of samples expected from the jctb. Used in CHIP TEST BOARD only. \c Returns \c (long long int) - <b>samples [i]</b> sets/gets number of samples (both analog and digital) expected from the ctb. Used in CHIP TEST BOARD and MOENCH only. \c Returns \c (long long int)
*/ */
descrToFuncMap[i].m_pFuncName = "samples"; descrToFuncMap[i].m_pFuncName = "samples";
descrToFuncMap[i].m_pFuncPtr = &slsDetectorCommand::cmdTimer; descrToFuncMap[i].m_pFuncPtr = &slsDetectorCommand::cmdTimer;
++i; ++i;
/*! \page timing
- <b>asamples [i]</b> sets/gets number of analog samples expected from the ctb. Used in CHIP TEST BOARD and MOENCH only. \c Returns \c (long long int)
*/
descrToFuncMap[i].m_pFuncName = "asamples";
descrToFuncMap[i].m_pFuncPtr = &slsDetectorCommand::cmdTimer;
++i;
/*! \page timing
- <b>bsamples [i]</b> sets/gets number of digital samples expected from the ctb. Used in CHIP TEST BOARD and MOENCH only. \c Returns \c (long long int)
*/
descrToFuncMap[i].m_pFuncName = "bsamples";
descrToFuncMap[i].m_pFuncPtr = &slsDetectorCommand::cmdTimer;
++i;
/*! \page timing /*! \page timing
- <b>storagecells [i]</b> sets/gets number of additional storage cells per acquisition. For very advanced users only! For JUNGFRAU only. Range: 0-15. The #images = #frames * #cycles * (#storagecells +1). \c Returns \c (long long int) - <b>storagecells [i]</b> sets/gets number of additional storage cells per acquisition. For very advanced users only! For JUNGFRAU only. Range: 0-15. The #images = #frames * #cycles * (#storagecells +1). \c Returns \c (long long int)
*/ */
@ -1934,6 +1948,11 @@ slsDetectorCommand::slsDetectorCommand(multiSlsDetector *det) {
descrToFuncMap[i].m_pFuncPtr = &slsDetectorCommand::cmdPattern; descrToFuncMap[i].m_pFuncPtr = &slsDetectorCommand::cmdPattern;
++i; ++i;
/** not documenting this, but keeping this for backwards compatibility */
descrToFuncMap[i].m_pFuncName = "adcdisable";
descrToFuncMap[i].m_pFuncPtr = &slsDetectorCommand::cmdPattern;
++i;
/*! \page prototype /*! \page prototype
- <b>pattern fn</b> loads binary pattern file fn - <b>pattern fn</b> loads binary pattern file fn
*/ */
@ -4426,8 +4445,13 @@ std::string slsDetectorCommand::cmdTimer(int narg, char *args[], int action, int
index = CYCLES_NUMBER; index = CYCLES_NUMBER;
else if (cmd == "measurements") else if (cmd == "measurements")
index = MEASUREMENTS_NUMBER; index = MEASUREMENTS_NUMBER;
// also does digital sample
else if (cmd == "samples") else if (cmd == "samples")
index = SAMPLES; index = ANALOG_SAMPLES;
else if (cmd == "asamples")
index = ANALOG_SAMPLES;
else if (cmd == "bsamples")
index = DIGITAL_SAMPLES;
else if (cmd == "storagecells") else if (cmd == "storagecells")
index = STORAGE_CELL_NUMBER; index = STORAGE_CELL_NUMBER;
else if (cmd == "storagecell_delay") else if (cmd == "storagecell_delay")
@ -4466,6 +4490,14 @@ std::string slsDetectorCommand::cmdTimer(int narg, char *args[], int action, int
ret = myDet->setTimer(index, t, detPos); ret = myDet->setTimer(index, t, detPos);
// samples command does both asamples and dsamples
if (cmd == "samples" ) {
int64_t dret = myDet->setTimer(DIGITAL_SAMPLES, t, detPos);
if (dret != ret) {
throw sls::RuntimeError("Analog and digital number of samples are different. Check with asamples and dsamples command");
}
}
if ((ret != -1) && (index == ACQUISITION_TIME || index == SUBFRAME_ACQUISITION_TIME || if ((ret != -1) && (index == ACQUISITION_TIME || index == SUBFRAME_ACQUISITION_TIME ||
index == FRAME_PERIOD || index == DELAY_AFTER_TRIGGER || index == FRAME_PERIOD || index == DELAY_AFTER_TRIGGER ||
index == SUBFRAME_DEADTIME || index == STORAGE_CELL_DELAY)) { index == SUBFRAME_DEADTIME || index == STORAGE_CELL_DELAY)) {
@ -4487,7 +4519,9 @@ std::string slsDetectorCommand::helpTimer(int action) {
os << "delay t \t sets the delay after trigger in s" << std::endl; os << "delay t \t sets the delay after trigger in s" << std::endl;
os << "frames t \t sets the number of frames per cycle (e.g. after each trigger)" << std::endl; os << "frames t \t sets the number of frames per cycle (e.g. after each trigger)" << std::endl;
os << "cycles t \t sets the number of cycles (e.g. number of triggers)" << std::endl; os << "cycles t \t sets the number of cycles (e.g. number of triggers)" << std::endl;
os << "samples t \t sets the number of samples expected from the jctb" << std::endl; os << "samples t \t sets the number of samples (both analog and digital) expected from the ctb" << std::endl;
os << "asamples t \t sets the number of analog samples expected from the ctb" << std::endl;
os << "dsamples t \t sets the number of digital samples expected from the ctb" << std::endl;
os << "storagecells t \t sets number of storage cells per acquisition. For very advanced users only! For JUNGFRAU only. Range: 0-15. The #images = #frames * #cycles * (#storagecells+1)." << std::endl; os << "storagecells t \t sets number of storage cells per acquisition. For very advanced users only! For JUNGFRAU only. Range: 0-15. The #images = #frames * #cycles * (#storagecells+1)." << std::endl;
os << "storagecell_start t \t sets the storage cell that stores the first acquisition of the series. Default is 15(0xf). For very advanced users only! For JUNGFRAU only. Range: 0-15." << std::endl; os << "storagecell_start t \t sets the storage cell that stores the first acquisition of the series. Default is 15(0xf). For very advanced users only! For JUNGFRAU only. Range: 0-15." << std::endl;
os << "storagecell_delay t \t sets additional time to t between 2 storage cells. For very advanced users only! For JUNGFRAU only. Range: 0-1638375 ns (resolution of 25ns).. " << std::endl; os << "storagecell_delay t \t sets additional time to t between 2 storage cells. For very advanced users only! For JUNGFRAU only. Range: 0-1638375 ns (resolution of 25ns).. " << std::endl;
@ -4502,7 +4536,9 @@ std::string slsDetectorCommand::helpTimer(int action) {
os << "delay \t gets the delay after trigger in s" << std::endl; os << "delay \t gets the delay after trigger in s" << std::endl;
os << "frames \t gets the number of frames per cycle (e.g. after each trigger)" << std::endl; os << "frames \t gets the number of frames per cycle (e.g. after each trigger)" << std::endl;
os << "cycles \t gets the number of cycles (e.g. number of triggers)" << std::endl; os << "cycles \t gets the number of cycles (e.g. number of triggers)" << std::endl;
os << "samples \t gets the number of samples expected from the jctb" << std::endl; os << "samples \t gets the number of samples (both analog and digital) expected from the ctb" << std::endl;
os << "asamples \t gets the number of analog samples expected from the ctb" << std::endl;
os << "dsamples \t gets the number of digital samples expected from the ctb" << std::endl;
os << "storagecells \t gets number of storage cells per acquisition.For JUNGFRAU only." << std::endl; os << "storagecells \t gets number of storage cells per acquisition.For JUNGFRAU only." << std::endl;
os << "storagecell_start \t gets the storage cell that stores the first acquisition of the series." << std::endl; os << "storagecell_start \t gets the storage cell that stores the first acquisition of the series." << std::endl;
os << "storagecell_delay \tgets additional time between 2 storage cells. " << std::endl; os << "storagecell_delay \tgets additional time between 2 storage cells. " << std::endl;
@ -5592,6 +5628,26 @@ std::string slsDetectorCommand::cmdPattern(int narg, char *args[], int action, i
os << std::hex << myDet->getADCEnableMask(detPos) << std::dec; os << std::hex << myDet->getADCEnableMask(detPos) << std::dec;
} }
// kept only for backwards compatibility, use adcenable
else if (cmd == "adcdisable") {
if (action == PUT_ACTION) {
uint32_t adcEnableMask = 0;
if (sscanf(args[1], "%x", &adcEnableMask))
;
else
return std::string("Could not scan adcdisable reg ") + std::string(args[1]);
// get enable mask from enable mask
adcEnableMask ^= BIT32_MASK;
myDet->setADCEnableMask(adcEnableMask, detPos);
}
uint32_t retval = myDet->getADCEnableMask(detPos);
// get disable mask
retval ^= BIT32_MASK;
os << std::hex << retval << std::dec;
}
else else
return helpPattern(action); return helpPattern(action);

View File

@ -179,14 +179,6 @@ public:
FILE_LOG(logERROR) << "SetTenGigaEnable is a generic function that should be overloaded by a derived class"; FILE_LOG(logERROR) << "SetTenGigaEnable is a generic function that should be overloaded by a derived class";
}; };
/**
* Setting packets per frame changes member variables
* @param ns number of samples
*/
virtual void setNumberofSamples(const uint64_t ns) {
FILE_LOG(logERROR) << "setNumberofSamples is a generic function that should be overloaded by a derived class";
};
/** /**
* Enable Gap Pixels changes member variables * Enable Gap Pixels changes member variables
* @param enable true if gap pixels enable, else false * @param enable true if gap pixels enable, else false
@ -209,11 +201,12 @@ public:
/** /**
* Set databytes (ctb, moench) * Set databytes (ctb, moench)
* @param a adc enable mask * @param a adc enable mask
* @param s number of samples * @param as analog number of samples
* @param ds digital number of samples
* @param t tengiga enable * @param t tengiga enable
* @param f readout flags * @param f readout flags
*/ */
virtual void setImageSize(uint32_t a, int s, bool t, slsDetectorDefs::readOutFlags f = slsDetectorDefs::GET_READOUT_FLAGS) { virtual void setImageSize(uint32_t a, uint64_t as, uint64_t ds, bool t, slsDetectorDefs::readOutFlags f = slsDetectorDefs::GET_READOUT_FLAGS) {
cprintf(RED,"setImageSize is a generic function that should be overloaded by a derived class\n"); cprintf(RED,"setImageSize is a generic function that should be overloaded by a derived class\n");
}; };
@ -557,7 +550,9 @@ private:
/** Number of analog channels */ /** Number of analog channels */
const int NCHAN_ANALOG = 32; const int NCHAN_ANALOG = 32;
/** Number of digital channels */ /** Number of digital channels */
const int NCHAN_DIGITAL = 4; const int NCHAN_DIGITAL = 64;
/** Number of bytes per analog channel */
const int NUM_BYTES_PER_ANALOG_CHANNEL = 2;
public: public:
@ -581,46 +576,60 @@ public:
/** /**
* Set databytes (ctb, moench) * Set databytes (ctb, moench)
* @param a adc enable mask * @param a adc enable mask
* @param s number of samples * @param as analog number of samples
* @param ds digital number of samples
* @param t tengiga enable * @param t tengiga enable
* @param f readout flags * @param f readout flags
*/ */
void setImageSize(uint32_t a, int s, bool t, slsDetectorDefs::readOutFlags f = slsDetectorDefs::GET_READOUT_FLAGS) { void setImageSize(uint32_t a, uint64_t as, uint64_t ds, bool t, slsDetectorDefs::readOutFlags f = slsDetectorDefs::GET_READOUT_FLAGS) {
int nchans = 0; int nachans = 0, ndchans = 0;
int adatabytes = 0, ddatabytes = 0;
if (f != slsDetectorDefs::GET_READOUT_FLAGS) { if (f != slsDetectorDefs::GET_READOUT_FLAGS) {
// analog channels // analog channels (normal, analog/digital readout)
if (f == slsDetectorDefs::NORMAL_READOUT || f & slsDetectorDefs::ANALOG_AND_DIGITAL) { if (f == slsDetectorDefs::NORMAL_READOUT ||
f & slsDetectorDefs::ANALOG_AND_DIGITAL) {
if (a == BIT32_MASK) { if (a == BIT32_MASK) {
nchans = 32; nachans = 32;
} else { } else {
for (int ich = 0; ich < 32; ++ich) { for (int ich = 0; ich < 32; ++ich) {
if (a & (1 << ich)) if (a & (1 << ich))
++nchans; ++nachans;
} }
} }
adatabytes = nachans * NUM_BYTES_PER_ANALOG_CHANNEL * as;
FILE_LOG(logDEBUG1) << " Number of Analog Channels:" << nachans
<< " Databytes: " << adatabytes;
} }
// digital channels // digital channels
if (f & slsDetectorDefs::DIGITAL_ONLY || f & slsDetectorDefs::ANALOG_AND_DIGITAL) { if (f & slsDetectorDefs::DIGITAL_ONLY ||
nchans += NCHAN_DIGITAL; f & slsDetectorDefs::ANALOG_AND_DIGITAL) {
ndchans = NCHAN_DIGITAL;
ddatabytes = (sizeof(uint64_t) * ds);
FILE_LOG(logDEBUG1) << "Number of Digital Channels:" << ndchans
<< " Databytes: " << ddatabytes;
} }
FILE_LOG(logDEBUG1) << "Total Number of Channels:" << nachans + ndchans
<< " Databytes: " << adatabytes + ddatabytes;
} }
nPixelsX = nchans; nPixelsX = nachans + ndchans;
nPixelsY = s; nPixelsY = 1;
// 10G // 10G
if (t) { if (t) {
headerSizeinPacket = 22; headerSizeinPacket = sizeof(slsDetectorDefs::sls_detector_header);
dataSize = 8192; dataSize = UDP_PACKET_DATA_BYTES;
packetSize = headerSizeinPacket + dataSize; packetSize = headerSizeinPacket + dataSize;
imageSize = nPixelsX * nPixelsY * 2; imageSize = adatabytes + ddatabytes;
packetsPerFrame = ceil((double)imageSize / (double)packetSize); packetsPerFrame = ceil((double)imageSize / (double)dataSize);
standardheader = false; } standardheader = true;
}
// 1g udp (via fifo readout) // 1g udp (via fifo readout)
else { else {
headerSizeinPacket = sizeof(slsDetectorDefs::sls_detector_header); headerSizeinPacket = sizeof(slsDetectorDefs::sls_detector_header);
dataSize = UDP_PACKET_DATA_BYTES; dataSize = UDP_PACKET_DATA_BYTES;
packetSize = headerSizeinPacket + dataSize; packetSize = headerSizeinPacket + dataSize;
imageSize = nPixelsX * nPixelsY * 2; imageSize = adatabytes + ddatabytes;
packetsPerFrame = ceil((double)imageSize / (double)UDP_PACKET_DATA_BYTES); packetsPerFrame = ceil((double)imageSize / (double)dataSize);
standardheader = true; standardheader = true;
} }
} }
@ -632,13 +641,8 @@ class MoenchData : public GeneralData {
private: private:
/** Structure of an jungfrau ctb packet header (10G Udp) */ /** Number of bytes per analog channel */
struct jfrauctb_packet_header { const int NUM_BYTES_PER_ANALOG_CHANNEL = 2;
unsigned char emptyHeader[6];
unsigned char reserved[4];
uint32_t packetFrameNumber;
uint64_t bunchid;
} __attribute__((packed));
public: public:
/** Constructor */ /** Constructor */
@ -654,73 +658,56 @@ public:
packetsPerFrame = ceil((double)imageSize / (double)UDP_PACKET_DATA_BYTES); packetsPerFrame = ceil((double)imageSize / (double)UDP_PACKET_DATA_BYTES);
frameIndexMask = 0xFFFFFF; frameIndexMask = 0xFFFFFF;
maxFramesPerFile = CTB_MAX_FRAMES_PER_FILE; maxFramesPerFile = CTB_MAX_FRAMES_PER_FILE;
fifoBufferHeaderSize = fifoBufferHeaderSize = FIFO_HEADER_NUMBYTES + sizeof(slsDetectorDefs::sls_receiver_header);
FIFO_HEADER_NUMBYTES + sizeof(slsDetectorDefs::sls_receiver_header);
defaultFifoDepth = 2500; defaultFifoDepth = 2500;
standardheader = true; standardheader = true;
}; };
/**
* Get Header Infomation (frame number, packet number)
* @param index thread index for debugging purposes
* @param packetData pointer to data
* @param dynamicRange dynamic range to assign subframenumber if 32 bit mode
* @param oddStartingPacket odd starting packet (gotthard)
* @param frameNumber frame number * @param packetNumber packet number
* @param subFrameNumber sub frame number if applicable
* @param bunchId bunch id
*/
void GetHeaderInfo(int index, char* packetData, uint32_t dynamicRange, bool oddStartingPacket,
uint64_t& frameNumber, uint32_t& packetNumber, uint32_t& subFrameNumber, uint64_t& bunchId) const {
subFrameNumber = -1;
auto header = reinterpret_cast<jfrauctb_packet_header*>(packetData);
frameNumber = (header->packetFrameNumber >> 8) & frameIndexMask;
packetNumber = header->packetFrameNumber & 0xFF;
bunchId = header->bunchid;
}
/** /**
* Set databytes (ctb, moench) * Set databytes (ctb, moench)
* @param a adc enable mask * @param a adc enable mask
* @param s number of samples * @param as analog number of samples
* @param ds digital number of samples
* @param t tengiga enable * @param t tengiga enable
* @param f readout flags * @param f readout flags
*/ */
void setImageSize(uint32_t a, int s, bool t, slsDetectorDefs::readOutFlags f = slsDetectorDefs::GET_READOUT_FLAGS) { void setImageSize(uint32_t a, uint64_t as, uint64_t ds, bool t, slsDetectorDefs::readOutFlags f = slsDetectorDefs::GET_READOUT_FLAGS) {
int nchans = 32; int nachans = 0;
int adatabytes = 0;
// analog channels (normal, analog/digital readout)
if (a == BIT32_MASK) { if (a == BIT32_MASK) {
nchans = 32; nachans = 32;
} else { } else {
for (int ich = 0; ich < 32; ++ich) { for (int ich = 0; ich < 32; ++ich) {
if (a & (1 << ich)) if (a & (1 << ich))
++nchans; ++nachans;
} }
} }
adatabytes = nachans * NUM_BYTES_PER_ANALOG_CHANNEL * as;
FILE_LOG(logDEBUG1) << "Total Number of Channels:" << nachans
<< " Databytes: " << adatabytes;
nPixelsX = nchans; nPixelsX = nachans;
nPixelsY = s; nPixelsY = 1;
// 10G // 10G
if (t) { if (t) {
headerSizeinPacket = 22; headerSizeinPacket = sizeof(slsDetectorDefs::sls_detector_header);
dataSize = 8192; dataSize = UDP_PACKET_DATA_BYTES;
packetSize = headerSizeinPacket + dataSize; packetSize = headerSizeinPacket + dataSize;
imageSize = nPixelsX * nPixelsY * 2; imageSize = adatabytes;
packetsPerFrame = (imageSize + packetSize - 1) / packetSize; packetsPerFrame = ceil((double)imageSize / (double)dataSize);
standardheader = false;
} }
// 1g udp (via fifo readout) // 1g udp (via fifo readout)
else { else {
headerSizeinPacket = sizeof(slsDetectorDefs::sls_detector_header); headerSizeinPacket = sizeof(slsDetectorDefs::sls_detector_header);
dataSize = UDP_PACKET_DATA_BYTES; dataSize = UDP_PACKET_DATA_BYTES;
packetSize = headerSizeinPacket + dataSize; packetSize = headerSizeinPacket + dataSize;
imageSize = nPixelsX * nPixelsY * 2; imageSize = adatabytes;
packetsPerFrame = (imageSize + UDP_PACKET_DATA_BYTES - 1) / UDP_PACKET_DATA_BYTES; packetsPerFrame = ceil((double)imageSize / (double)dataSize);
standardheader = true;
} }
} }
}; };
;

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@ -257,10 +257,16 @@ class slsReceiverImplementation: private virtual slsDetectorDefs {
uint64_t getNumberOfFrames() const; uint64_t getNumberOfFrames() const;
/* /*
* Get Number of Samples expected by receiver from detector (for chip test board only) * Get Number of Analog Samples expected by receiver from detector (for chip test board and moench only)
* @return number of samples expected * @return number of Analog samples expected
*/ */
uint64_t getNumberofSamples() const; uint64_t getNumberofAnalogSamples() const;
/*
* Get Number of Digital Samples expected by receiver from detector (for chip test board and moench only)
* @return number of Digital samples expected
*/
uint64_t getNumberofDigitalSamples() const;
/** /**
* Get Dynamic Range or Number of Bits Per Pixel * Get Dynamic Range or Number of Bits Per Pixel
@ -571,11 +577,18 @@ class slsReceiverImplementation: private virtual slsDetectorDefs {
int setNumberOfFrames(const uint64_t i); int setNumberOfFrames(const uint64_t i);
/** /**
* Set Number of Samples expected by receiver from detector * Set Number of Analog Samples expected by receiver from detector
* @param i number of Samples expected * @param i number of Analog Samples expected
* @return OK or FAIL * @return OK or FAIL
*/ */
int setNumberofSamples(const uint64_t i); int setNumberofAnalogSamples(const uint64_t i);
/**
* Set Number of Digital Samples expected by receiver from detector
* @param i number of Digital Samples expected
* @return OK or FAIL
*/
int setNumberofDigitalSamples(const uint64_t i);
/** /**
* Set Dynamic Range or Number of Bits Per Pixel * Set Dynamic Range or Number of Bits Per Pixel
@ -816,8 +829,10 @@ private:
uint64_t subPeriod; uint64_t subPeriod;
/** Frame Number */ /** Frame Number */
uint64_t numberOfFrames; uint64_t numberOfFrames;
/** Samples Number */ /** Analog Samples Number */
uint64_t numberOfSamples; uint64_t numberOfAnalogSamples;
/** Digital Samples Number */
uint64_t numberOfDigitalSamples;
/** Dynamic Range */ /** Dynamic Range */
uint32_t dynamicRange; uint32_t dynamicRange;
/** Ten Giga Enable*/ /** Ten Giga Enable*/

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@ -62,7 +62,8 @@ void slsReceiverImplementation::InitializeMembers() {
subExpTime = 0; subExpTime = 0;
subPeriod = 0; subPeriod = 0;
numberOfFrames = 0; numberOfFrames = 0;
numberOfSamples = 0; numberOfAnalogSamples = 0;
numberOfDigitalSamples = 0;
dynamicRange = 16; dynamicRange = 16;
tengigaEnable = false; tengigaEnable = false;
fifoDepth = 0; fifoDepth = 0;
@ -341,9 +342,14 @@ uint64_t slsReceiverImplementation::getNumberOfFrames() const{
return numberOfFrames; return numberOfFrames;
} }
uint64_t slsReceiverImplementation::getNumberofSamples() const{ uint64_t slsReceiverImplementation::getNumberofAnalogSamples() const{
FILE_LOG(logDEBUG3) << __SHORT_AT__ << " called"; FILE_LOG(logDEBUG3) << __SHORT_AT__ << " called";
return numberOfSamples; return numberOfAnalogSamples;
}
uint64_t slsReceiverImplementation::getNumberofDigitalSamples() const{
FILE_LOG(logDEBUG3) << __SHORT_AT__ << " called";
return numberOfDigitalSamples;
} }
uint32_t slsReceiverImplementation::getDynamicRange() const{ uint32_t slsReceiverImplementation::getDynamicRange() const{
@ -475,7 +481,7 @@ int slsReceiverImplementation::setReadOutFlags(const readOutFlags f) {
// side effects // side effects
if (myDetectorType == CHIPTESTBOARD) { if (myDetectorType == CHIPTESTBOARD) {
generalData->setImageSize(adcEnableMask, numberOfSamples, tengigaEnable, readoutFlags); generalData->setImageSize(adcEnableMask, numberOfAnalogSamples, numberOfDigitalSamples, tengigaEnable, readoutFlags);
for (const auto& it : dataProcessor) for (const auto& it : dataProcessor)
it->SetPixelDimension(); it->SetPixelDimension();
if (SetupFifoStructure() == FAIL) if (SetupFifoStructure() == FAIL)
@ -823,10 +829,10 @@ int slsReceiverImplementation::setADCEnableMask(uint32_t mask) {
switch (myDetectorType) { switch (myDetectorType) {
case MOENCH: case MOENCH:
generalData->setImageSize(mask, numberOfSamples, tengigaEnable); generalData->setImageSize(mask, numberOfAnalogSamples, numberOfDigitalSamples, tengigaEnable);
break; break;
case CHIPTESTBOARD: case CHIPTESTBOARD:
generalData->setImageSize(mask, numberOfSamples, tengigaEnable, readoutFlags); generalData->setImageSize(mask, numberOfAnalogSamples, numberOfDigitalSamples, tengigaEnable, readoutFlags);
break; break;
default: default:
break; break;
@ -953,21 +959,41 @@ int slsReceiverImplementation::setNumberOfFrames(const uint64_t i) {
} }
int slsReceiverImplementation::setNumberofSamples(const uint64_t i) { int slsReceiverImplementation::setNumberofAnalogSamples(const uint64_t i) {
if (numberOfSamples != i) { if (numberOfAnalogSamples != i) {
numberOfSamples = i; numberOfAnalogSamples = i;
if(myDetectorType == MOENCH) { if(myDetectorType == MOENCH) {
generalData->setImageSize(adcEnableMask, numberOfSamples, tengigaEnable); generalData->setImageSize(adcEnableMask, numberOfAnalogSamples, numberOfDigitalSamples, tengigaEnable);
} else if(myDetectorType == CHIPTESTBOARD) { } else if(myDetectorType == CHIPTESTBOARD) {
generalData->setImageSize(adcEnableMask, numberOfSamples, tengigaEnable, readoutFlags); generalData->setImageSize(adcEnableMask, numberOfAnalogSamples, numberOfDigitalSamples, tengigaEnable, readoutFlags);
} }
for (const auto& it : dataProcessor) for (const auto& it : dataProcessor)
it->SetPixelDimension(); it->SetPixelDimension();
if (SetupFifoStructure() == FAIL) if (SetupFifoStructure() == FAIL)
return FAIL; return FAIL;
} }
FILE_LOG (logINFO) << "Number of Samples: " << numberOfSamples; FILE_LOG (logINFO) << "Number of Analog Samples: " << numberOfAnalogSamples;
FILE_LOG (logINFO) << "Packets per Frame: " << (generalData->packetsPerFrame);
return OK;
}
int slsReceiverImplementation::setNumberofDigitalSamples(const uint64_t i) {
if (numberOfDigitalSamples != i) {
numberOfDigitalSamples = i;
if(myDetectorType == MOENCH) {
generalData->setImageSize(adcEnableMask, numberOfAnalogSamples, numberOfDigitalSamples, tengigaEnable);
} else if(myDetectorType == CHIPTESTBOARD) {
generalData->setImageSize(adcEnableMask, numberOfAnalogSamples, numberOfDigitalSamples, tengigaEnable, readoutFlags);
}
for (const auto& it : dataProcessor)
it->SetPixelDimension();
if (SetupFifoStructure() == FAIL)
return FAIL;
}
FILE_LOG (logINFO) << "Number of Digital Samples: " << numberOfDigitalSamples;
FILE_LOG (logINFO) << "Packets per Frame: " << (generalData->packetsPerFrame); FILE_LOG (logINFO) << "Packets per Frame: " << (generalData->packetsPerFrame);
return OK; return OK;
} }
@ -999,10 +1025,10 @@ int slsReceiverImplementation::setTenGigaEnable(const bool b) {
generalData->SetTenGigaEnable(b,dynamicRange); generalData->SetTenGigaEnable(b,dynamicRange);
break; break;
case MOENCH: case MOENCH:
generalData->setImageSize(adcEnableMask, numberOfSamples, tengigaEnable); generalData->setImageSize(adcEnableMask, numberOfAnalogSamples, numberOfDigitalSamples, tengigaEnable);
break; break;
case CHIPTESTBOARD: case CHIPTESTBOARD:
generalData->setImageSize(adcEnableMask, numberOfSamples, tengigaEnable, readoutFlags); generalData->setImageSize(adcEnableMask, numberOfAnalogSamples, numberOfDigitalSamples, tengigaEnable, readoutFlags);
break; break;
default: default:
break; break;

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@ -877,12 +877,19 @@ int slsReceiverTCPIPInterface::set_timer() {
case SUBFRAME_DEADTIME: case SUBFRAME_DEADTIME:
receiver->setSubPeriod(index[1] + receiver->getSubExpTime()); receiver->setSubPeriod(index[1] + receiver->getSubExpTime());
break; break;
case SAMPLES: case ANALOG_SAMPLES:
if (myDetectorType != CHIPTESTBOARD && myDetectorType != MOENCH) { if (myDetectorType != CHIPTESTBOARD && myDetectorType != MOENCH) {
modeNotImplemented("(Samples) Timer index", (int)index[0]); modeNotImplemented("(Analog Samples) Timer index", (int)index[0]);
break; break;
} }
receiver->setNumberofSamples(index[1]); receiver->setNumberofAnalogSamples(index[1]);
break;
case DIGITAL_SAMPLES:
if (myDetectorType != CHIPTESTBOARD && myDetectorType != MOENCH) {
modeNotImplemented("(Digital Samples) Timer index", (int)index[0]);
break;
}
receiver->setNumberofDigitalSamples(index[1]);
break; break;
default: default:
modeNotImplemented("Timer index", (int)index[0]); modeNotImplemented("Timer index", (int)index[0]);
@ -909,14 +916,23 @@ int slsReceiverTCPIPInterface::set_timer() {
case SUBFRAME_DEADTIME: case SUBFRAME_DEADTIME:
retval=(receiver->getSubPeriod() - receiver->getSubExpTime()); retval=(receiver->getSubPeriod() - receiver->getSubExpTime());
break; break;
case SAMPLES: case ANALOG_SAMPLES:
if (myDetectorType != CHIPTESTBOARD && myDetectorType != MOENCH) { if (myDetectorType != CHIPTESTBOARD && myDetectorType != MOENCH) {
ret = FAIL; ret = FAIL;
sprintf(mess,"This timer mode (%lld) does not exist for this receiver type\n", (long long int)index[0]); sprintf(mess,"This timer mode (%lld) does not exist for this receiver type\n", (long long int)index[0]);
FILE_LOG(logERROR) << "Warning: " << mess; FILE_LOG(logERROR) << "Warning: " << mess;
break; break;
} }
retval=receiver->getNumberofSamples(); retval=receiver->getNumberofAnalogSamples();
break;
case DIGITAL_SAMPLES:
if (myDetectorType != CHIPTESTBOARD && myDetectorType != MOENCH) {
ret = FAIL;
sprintf(mess,"This timer mode (%lld) does not exist for this receiver type\n", (long long int)index[0]);
FILE_LOG(logERROR) << "Warning: " << mess;
break;
}
retval=receiver->getNumberofDigitalSamples();
break; break;
default: default:
modeNotImplemented("Timer index", (int)index[0]); modeNotImplemented("Timer index", (int)index[0]);

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@ -7,7 +7,7 @@
# test-GeneralData.cpp # test-GeneralData.cpp
# ) # )
target_sources(tests PRIVATE ${CMAKE_CURRENT_SOURCE_DIR}/test-GeneralData.cpp) #target_sources(tests PRIVATE ${CMAKE_CURRENT_SOURCE_DIR}/test-GeneralData.cpp)
# add_executable(testSlsReceiver ${SOURCES}) # add_executable(testSlsReceiver ${SOURCES})
# target_link_libraries(testSlsReceiver # target_link_libraries(testSlsReceiver

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@ -117,7 +117,8 @@ class slsDetectorDefs {
MEASUREMENTS_NUMBER, MEASUREMENTS_NUMBER,
FRAMES_FROM_START, FRAMES_FROM_START,
FRAMES_FROM_START_PG, FRAMES_FROM_START_PG,
SAMPLES, ANALOG_SAMPLES,
DIGITAL_SAMPLES,
SUBFRAME_ACQUISITION_TIME, /**< subframe exposure time */ SUBFRAME_ACQUISITION_TIME, /**< subframe exposure time */
STORAGE_CELL_NUMBER, /**<number of storage cells */ STORAGE_CELL_NUMBER, /**<number of storage cells */
SUBFRAME_DEADTIME, /**< subframe deadtime */ SUBFRAME_DEADTIME, /**< subframe deadtime */
@ -930,12 +931,12 @@ format
\param s can be FRAME_NUMBER,ACQUISITION_TIME,FRAME_PERIOD, \param s can be FRAME_NUMBER,ACQUISITION_TIME,FRAME_PERIOD,
DELAY_AFTER_TRIGGER,GATES_NUMBER, CYCLES_NUMBER, DELAY_AFTER_TRIGGER,GATES_NUMBER, CYCLES_NUMBER,
ACTUAL_TIME,MEASUREMENT_TIME, ACTUAL_TIME,MEASUREMENT_TIME,
PROGRESS,MEASUREMENTS_NUMBER,FRAMES_FROM_START,FRAMES_FROM_START_PG,SAMPLES,SUBFRAME_ACQUISITION_TIME,STORAGE_CELL_NUMBER, PROGRESS,MEASUREMENTS_NUMBER,FRAMES_FROM_START,FRAMES_FROM_START_PG,ANALOG_SAMPLES,DIGITAL_SAMPLES,SUBFRAME_ACQUISITION_TIME,STORAGE_CELL_NUMBER,
SUBFRAME_DEADTIME \returns std::string SUBFRAME_DEADTIME \returns std::string
frame_number,acquisition_time,frame_period, frame_number,acquisition_time,frame_period,
delay_after_trigger,gates_number, cycles_number, delay_after_trigger,gates_number, cycles_number,
actual_time,measurement_time, actual_time,measurement_time,
progress,measurements_number,frames_from_start,frames_from_start_pg,samples,subframe_acquisition_time,storage_cell_number, progress,measurements_number,frames_from_start,frames_from_start_pg,analog_samples, digital_samples,subframe_acquisition_time,storage_cell_number,
SUBFRAME_DEADTIME SUBFRAME_DEADTIME
*/ */
static std::string getTimerType(timerIndex t) { static std::string getTimerType(timerIndex t) {
@ -964,8 +965,10 @@ format
return std::string("frames_from_start"); return std::string("frames_from_start");
case FRAMES_FROM_START_PG: case FRAMES_FROM_START_PG:
return std::string("frames_from_start_pg"); return std::string("frames_from_start_pg");
case SAMPLES: case ANALOG_SAMPLES:
return std::string("samples"); return std::string("analog_samples");
case DIGITAL_SAMPLES:
return std::string("digital_samples");
case SUBFRAME_ACQUISITION_TIME: case SUBFRAME_ACQUISITION_TIME:
return std::string("subframe_acquisition_time"); return std::string("subframe_acquisition_time");
case SUBFRAME_DEADTIME: case SUBFRAME_DEADTIME:

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@ -7,4 +7,4 @@
#define APIRECEIVER 0x190405 #define APIRECEIVER 0x190405
#define APIGUI 0x190405 #define APIGUI 0x190405
#define APIEIGER 0x190418 #define APIEIGER 0x190418
#define APICTB 0x190426 #define APICTB 0x190430