WebSVN – f9daq – Blame – //cvi/instr/DRS/DRS.cpp

Rev	Author	Line No.	Line
195	f9daq	1	/********************************************************************
		2
		3	Name: DRS.cpp
		4	Created by: Stefan Ritt, Matthias Schneebeli
		5
		6	Contents: Library functions for DRS mezzanine and USB boards
		7
		8	$Id: DRS.cpp 22289 2016-04-27 09:40:58Z ritt $
		9
		10	\********************************************************************/
		11	#define NEW_TIMING_CALIBRATION
		12
		13	#ifdef USE_DRS_MUTEX
		14	#include "wx/wx.h" // must be before <windows.h>
		15	#endif
		16
		17	#include <stdio.h>
		18	#include <math.h>
		19	#include <string.h>
		20	#include <stdlib.h>
		21	#include <time.h>
		22	#include <assert.h>
		23	#include <algorithm>
		24	#include <sys/stat.h>
		25	#include <fcntl.h>
		26	#include "strlcpy.h"
		27	#include "DRS.h"
		28
		29	#ifdef _MSC_VER
		30	#pragma warning(disable:4996)
		31	# include <windows.h>
		32	# include <direct.h>
		33	#else
		34	# include <unistd.h>
		35	# include <sys/time.h>
		36	inline void Sleep(useconds_t x)
		37	{
		38	usleep(x * 1000);
		39	}
		40	#endif
		41
		42	#ifdef _MSC_VER
		43	#include <conio.h>
		44	#define drs_kbhit() kbhit()
		45	#else
		46	#include <sys/ioctl.h>
		47
		48	int drs_kbhit()
		49	{
		50	int n;
		51
		52	ioctl(0, FIONREAD, &n);
		53	return (n > 0);
		54	}
		55	static inline int getch()
		56	{
		57	return getchar();
		58	}
		59	#endif
		60
		61	#include "DRS.h"
		62
		63	#ifdef _MSC_VER
		64	extern "C" {
		65	#endif
		66
		67	#include "mxml.h"
		68
		69	#ifdef _MSC_VER
		70	}
		71	#endif
		72
		73	/---- minimal FPGA firmvare version required for this library -----/
		74	const int REQUIRED_FIRMWARE_VERSION_DRS2 = 5268;
		75	const int REQUIRED_FIRMWARE_VERSION_DRS3 = 6981;
		76	const int REQUIRED_FIRMWARE_VERSION_DRS4 = 15147;
		77
		78	/---- calibration methods to be stored in EEPROMs -----------------/
		79
		80	#define VCALIB_METHOD_V4 1
		81	#define TCALIB_METHOD_V4 1
		82
		83	#define VCALIB_METHOD 2
		84	#define TCALIB_METHOD 2 // correct for sampling frequency, calibrate every channel
		85
		86	/---- VME addresses -----------------------------------------------/
		87	#ifdef HAVE_VME
		88	/* assuming following DIP Switch settings:
		89
		90	SW1-1: 1 (off) use geographical addressing (1=left, 21=right)
		91	SW1-2: 1 (off) \
		92	SW1-3: 1 (off) > VME_WINSIZE = 8MB, subwindow = 1MB
		93	SW1-4: 0 (on) /
		94	SW1-5: 0 (on) reserverd
		95	SW1-6: 0 (on) reserverd
		96	SW1-7: 0 (on) reserverd
		97	SW1-8: 0 (on) \
		98	\|
		99	SW2-1: 0 (on) \|
		100	SW2-2: 0 (on) \|
		101	SW2-3: 0 (on) \|
		102	SW2-4: 0 (on) > VME_ADDR_OFFSET = 0
		103	SW2-5: 0 (on) \|
		104	SW2-6: 0 (on) \|
		105	SW2-7: 0 (on) \|
		106	SW2-8: 0 (on) /
		107
		108	which gives
		109	VME base address = SlotNo * VME_WINSIZE + VME_ADDR_OFFSET
		110	= SlotNo * 0x80'0000
		111	*/
		112	#define GEVPC_BASE_ADDR 0x00000000
		113	#define GEVPC_WINSIZE 0x800000
		114	#define GEVPC_USER_FPGA (GEVPC_WINSIZE*2/8)
		115	#define PMC1_OFFSET 0x00000
		116	#define PMC2_OFFSET 0x80000
		117	#define PMC_CTRL_OFFSET 0x00000 /* all registers 32 bit */
		118	#define PMC_STATUS_OFFSET 0x10000
		119	#define PMC_FIFO_OFFSET 0x20000
		120	#define PMC_RAM_OFFSET 0x40000
		121	#endif // HAVE_VME
		122	/---- USB addresses -----------------------------------------------/
		123	#define USB_TIMEOUT 1000 // one second
		124	#ifdef HAVE_USB
		125	#define USB_CTRL_OFFSET 0x00 /* all registers 32 bit */
		126	#define USB_STATUS_OFFSET 0x40
		127	#define USB_RAM_OFFSET 0x80
		128	#define USB_CMD_IDENT 0 // Query identification
		129	#define USB_CMD_ADDR 1 // Address cycle
		130	#define USB_CMD_READ 2 // "VME" read <addr><size>
		131	#define USB_CMD_WRITE 3 // "VME" write <addr><size>
		132	#define USB_CMD_READ12 4 // 12-bit read <LSB><MSB>
		133	#define USB_CMD_WRITE12 5 // 12-bit write <LSB><MSB>
		134
		135	#define USB2_CMD_READ 1
		136	#define USB2_CMD_WRITE 2
		137	#define USB2_CTRL_OFFSET 0x00000 /* all registers 32 bit */
		138	#define USB2_STATUS_OFFSET 0x10000
		139	#define USB2_FIFO_OFFSET 0x20000
		140	#define USB2_RAM_OFFSET 0x40000
		141	#endif // HAVE_USB
		142
		143	/------------------------------------------------------------------/
		144
		145	using namespace std;
		146
		147	#ifdef HAVE_USB
		148	#define USB2_BUFFER_SIZE (1024*1024+10)
		149	unsigned char static *usb2_buffer = NULL;
		150	#endif
		151
		152	/------------------------------------------------------------------/
		153
		154	#ifdef USE_DRS_MUTEX
		155	static wxMutex *s_drsMutex = NULL; // used for wxWidgets multi-threaded programs
		156	#endif
		157
		158	/------------------------------------------------------------------/
		159
		160	DRS::DRS()
		161	: fNumberOfBoards(0)
		162	#ifdef HAVE_VME
		163	, fVmeInterface(0)
		164	#endif
		165	{
		166	#ifdef HAVE_USB
		167	MUSB_INTERFACE *usb_interface;
		168	#endif
		169
		170	#if defined(HAVE_VME) \|\| defined(HAVE_USB)
		171	int index = 0, i=0;
		172	#endif
		173
		174	memset(fError, 0, sizeof(fError));
		175
		176	#ifdef HAVE_VME
		177	unsigned short type, fw, magic, serial, temperature;
		178	mvme_addr_t addr;
		179
		180	if (mvme_open(&fVmeInterface, 0) == MVME_SUCCESS) {
		181
		182	mvme_set_am(fVmeInterface, MVME_AM_A32);
		183	mvme_set_dmode(fVmeInterface, MVME_DMODE_D16);
		184
		185	/* check all VME slave slots */
		186	for (index = 2; index <= 21; index++) {
		187
		188	/* check PMC1 */
		189	addr = GEVPC_BASE_ADDR + index * GEVPC_WINSIZE; // VME board base address
		190	addr += GEVPC_USER_FPGA; // UsrFPGA base address
		191	addr += PMC1_OFFSET; // PMC1 offset
		192
		193	mvme_set_dmode(fVmeInterface, MVME_DMODE_D16);
		194	i = mvme_read(fVmeInterface, &magic, addr + PMC_STATUS_OFFSET + REG_MAGIC, 2);
		195	if (i == 2) {
		196	if (magic != 0xC0DE) {
		197	printf("Found old firmware, please upgrade immediately!\n");
		198	fBoard[fNumberOfBoards] = new DRSBoard(fVmeInterface, addr, (index - 2) << 1);
		199	fNumberOfBoards++;
		200	} else {
		201
		202	/* read board type */
		203	mvme_read(fVmeInterface, &type, addr + PMC_STATUS_OFFSET + REG_BOARD_TYPE, 2);
		204	type &= 0xFF;
		205	if (type == 2 \|\| type == 3 \|\| type == 4) { // DRS2 or DRS3 or DRS4
		206
		207	/* read firmware number */
		208	mvme_read(fVmeInterface, &fw, addr + PMC_STATUS_OFFSET + REG_VERSION_FW, 2);
		209
		210	/* read serial number */
		211	mvme_read(fVmeInterface, &serial, addr + PMC_STATUS_OFFSET + REG_SERIAL_BOARD, 2);
		212
		213	/* read temperature register to see if CMC card is present */
		214	mvme_read(fVmeInterface, &temperature, addr + PMC_STATUS_OFFSET + REG_TEMPERATURE, 2);
		215
		216	/* LED blinking */
		217	#if 0
		218	do {
		219	data = 0x00040000;
		220	mvme_write(fVmeInterface, addr + PMC_CTRL_OFFSET + REG_CTRL, &data, sizeof(data));
		221	mvme_write(fVmeInterface, addr + PMC2_OFFSET + PMC_CTRL_OFFSET + REG_CTRL, &data,
		222	sizeof(data));
		223
		224	Sleep(500);
		225
		226	data = 0x00000000;
		227	mvme_write(fVmeInterface, addr + PMC_CTRL_OFFSET + REG_CTRL, &data, sizeof(data));
		228	mvme_write(fVmeInterface, addr + PMC2_OFFSET + PMC_CTRL_OFFSET + REG_CTRL, data,
		229	sizeof(data));
		230
		231	Sleep(500);
		232
		233	} while (1);
		234	#endif
		235
		236	if (temperature == 0xFFFF) {
		237	printf("Found VME board in slot %d, fw %d, but no CMC board in upper slot\n", index, fw);
		238	} else {
		239	printf("Found DRS%d board %2d in upper VME slot %2d, serial #%d, firmware revision %d\n", type, fNumberOfBoards, index, serial, fw);
		240
		241	fBoard[fNumberOfBoards] = new DRSBoard(fVmeInterface, addr, (index - 2) << 1);
		242	if (!fBoard[fNumberOfBoards]->HasCorrectFirmware())
		243	sprintf(fError, "Wrong firmware version: board has %d, required is %d. Board may not work correctly.\n",
		244	fBoard[fNumberOfBoards]->GetFirmwareVersion(),
		245	fBoard[fNumberOfBoards]->GetRequiredFirmwareVersion());
		246	fNumberOfBoards++;
		247	}
		248	}
		249	}
		250	}
		251
		252	/* check PMC2 */
		253	addr = GEVPC_BASE_ADDR + index * GEVPC_WINSIZE; // VME board base address
		254	addr += GEVPC_USER_FPGA; // UsrFPGA base address
		255	addr += PMC2_OFFSET; // PMC2 offset
		256
		257	mvme_set_dmode(fVmeInterface, MVME_DMODE_D16);
		258	i = mvme_read(fVmeInterface, &fw, addr + PMC_STATUS_OFFSET + REG_MAGIC, 2);
		259	if (i == 2) {
		260	if (magic != 0xC0DE) {
		261	printf("Found old firmware, please upgrade immediately!\n");
		262	fBoard[fNumberOfBoards] = new DRSBoard(fVmeInterface, addr, (index - 2) << 1 \| 1);
		263	fNumberOfBoards++;
		264	} else {
		265
		266	/* read board type */
		267	mvme_read(fVmeInterface, &type, addr + PMC_STATUS_OFFSET + REG_BOARD_TYPE, 2);
		268	type &= 0xFF;
		269	if (type == 2 \|\| type == 3 \|\| type == 4) { // DRS2 or DRS3 or DRS4
		270
		271	/* read firmware number */
		272	mvme_read(fVmeInterface, &fw, addr + PMC_STATUS_OFFSET + REG_VERSION_FW, 2);
		273
		274	/* read serial number */
		275	mvme_read(fVmeInterface, &serial, addr + PMC_STATUS_OFFSET + REG_SERIAL_BOARD, 2);
		276
		277	/* read temperature register to see if CMC card is present */
		278	mvme_read(fVmeInterface, &temperature, addr + PMC_STATUS_OFFSET + REG_TEMPERATURE, 2);
		279
		280	if (temperature == 0xFFFF) {
		281	printf("Found VME board in slot %d, fw %d, but no CMC board in lower slot\n", index, fw);
		282	} else {
		283	printf("Found DRS%d board %2d in lower VME slot %2d, serial #%d, firmware revision %d\n", type, fNumberOfBoards, index, serial, fw);
		284
		285	fBoard[fNumberOfBoards] = new DRSBoard(fVmeInterface, addr, ((index - 2) << 1) \| 1);
		286	if (!fBoard[fNumberOfBoards]->HasCorrectFirmware())
		287	sprintf(fError, "Wrong firmware version: board has %d, required is %d. Board may not work correctly.\n",
		288	fBoard[fNumberOfBoards]->GetFirmwareVersion(),
		289	fBoard[fNumberOfBoards]->GetRequiredFirmwareVersion());
		290	fNumberOfBoards++;
		291	}
		292	}
		293	}
		294	}
		295	}
		296	} else
		297	printf("Cannot access VME crate, check driver, power and connection\n");
		298	#endif // HAVE_VME
		299
		300	#ifdef HAVE_USB
		301	unsigned char buffer[512];
		302	int found, one_found, usb_slot;
		303
		304	one_found = 0;
		305	usb_slot = 0;
		306	for (index = 0; index < 127; index++) {
		307	found = 0;
		308
		309	/* check for USB-Mezzanine test board */
		310	if (musb_open(&usb_interface, 0x10C4, 0x1175, index, 1, 0) == MUSB_SUCCESS) {
		311
		312	/* check ID */
		313	buffer[0] = USB_CMD_IDENT;
		314	musb_write(usb_interface, 2, buffer, 1, USB_TIMEOUT);
		315
		316	i = musb_read(usb_interface, 1, (char *) buffer, sizeof(buffer), USB_TIMEOUT);
		317	if (strcmp((char *) buffer, "USB_MEZZ2 V1.0") != 0) {
		318	/* no USB-Mezzanine board found */
		319	musb_close(usb_interface);
		320	} else {
		321	usb_interface->usb_type = 1; // USB 1.1
		322	fBoard[fNumberOfBoards] = new DRSBoard(usb_interface, usb_slot++);
		323	if (!fBoard[fNumberOfBoards]->HasCorrectFirmware())
		324	sprintf(fError, "Wrong firmware version: board has %d, required is %d. Board may not work correctly.\n",
		325	fBoard[fNumberOfBoards]->GetFirmwareVersion(),
		326	fBoard[fNumberOfBoards]->GetRequiredFirmwareVersion());
		327	fNumberOfBoards++;
		328	found = 1;
		329	one_found = 1;
		330	}
		331	}
		332
		333	/* check for DRS4 evaluation board */
		334	if (musb_open(&usb_interface, 0x04B4, 0x1175, index, 1, 0) == MUSB_SUCCESS) {
		335
		336	/* check ID */
		337	if (musb_get_device(usb_interface) != 1) {
		338	/* no DRS evaluation board found */
		339	musb_close(usb_interface);
		340	} else {
		341
		342	/* drain any data from Cy7C68013 FIFO if FPGA startup caused erratic write */
		343	do {
		344	i = musb_read(usb_interface, 8, buffer, sizeof(buffer), 100);
		345	if (i > 0)
		346	printf("%d bytes stuck in buffer\n", i);
		347	} while (i > 0);
		348
		349	usb_interface->usb_type = 2; // USB 2.0
		350	fBoard[fNumberOfBoards] = new DRSBoard(usb_interface, usb_slot++);
		351	if (!fBoard[fNumberOfBoards]->HasCorrectFirmware())
		352	sprintf(fError, "Wrong firmware version: board has %d, required is %d. Board may not work correctly.\n",
		353	fBoard[fNumberOfBoards]->GetFirmwareVersion(),
		354	fBoard[fNumberOfBoards]->GetRequiredFirmwareVersion());
		355	fNumberOfBoards++;
		356	found = 1;
		357	one_found = 1;
		358	}
		359	}
		360
		361	if (!found) {
		362	if (!one_found)
		363	printf("USB successfully scanned, but no boards found\n");
		364	break;
		365	}
		366	}
		367	#endif // HAVE_USB
		368
		369	return;
		370	}
		371
		372	/------------------------------------------------------------------/
		373
		374	DRS::~DRS()
		375	{
		376	int i;
		377	for (i = 0; i < fNumberOfBoards; i++) {
		378	delete fBoard[i];
		379	}
		380
		381	#ifdef HAVE_USB
		382	if (usb2_buffer) {
		383	free(usb2_buffer);
		384	usb2_buffer = NULL;
		385	}
		386	#endif
		387
		388	#ifdef HAVE_VME
		389	mvme_close(fVmeInterface);
		390	#endif
		391	}
		392
		393	/------------------------------------------------------------------/
		394
		395	void DRS::SortBoards()
		396	{
		397	/* sort boards according to serial number (simple bubble sort) */
		398	for (int i=0 ; i<fNumberOfBoards-1 ; i++) {
		399	for (int j=i+1 ; j<fNumberOfBoards ; j++) {
		400	if (fBoard[i]->GetBoardSerialNumber() < fBoard[j]->GetBoardSerialNumber()) {
		401	DRSBoard* b = fBoard[i];
		402	fBoard[i] = fBoard[j];
		403	fBoard[j] = b;
		404	}
		405	}
		406	}
		407	}
		408
		409	/------------------------------------------------------------------/
		410
		411	void DRS::SetBoard(int i, DRSBoard *b)
		412	{
		413	fBoard[i] = b;
		414	}
		415
		416	/------------------------------------------------------------------/
		417
		418	bool DRS::GetError(char *str, int size)
		419	{
		420	if (fError[0])
		421	strlcpy(str, fError, size);
		422
		423	return fError[0] > 0;
		424	}
		425
		426	/------------------------------------------------------------------/
		427
		428	#ifdef HAVE_USB
		429	DRSBoard::DRSBoard(MUSB_INTERFACE * musb_interface, int usb_slot)
		430	: fDAC_COFSA(0)
		431	, fDAC_COFSB(0)
		432	, fDAC_DRA(0)
		433	, fDAC_DSA(0)
		434	, fDAC_TLEVEL(0)
		435	, fDAC_ACALIB(0)
		436	, fDAC_DSB(0)
		437	, fDAC_DRB(0)
		438	, fDAC_COFS(0)
		439	, fDAC_ADCOFS(0)
		440	, fDAC_CLKOFS(0)
		441	, fDAC_ROFS_1(0)
		442	, fDAC_ROFS_2(0)
		443	, fDAC_INOFS(0)
		444	, fDAC_BIAS(0)
		445	, fDRSType(0)
		446	, fBoardType(0)
		447	, fRequiredFirmwareVersion(0)
		448	, fFirmwareVersion(0)
		449	, fBoardSerialNumber(0)
		450	, fHasMultiBuffer(0)
		451	, fCtrlBits(0)
		452	, fNumberOfReadoutChannels(0)
		453	, fReadoutChannelConfig(0)
		454	, fADCClkPhase(0)
		455	, fADCClkInvert(0)
		456	, fExternalClockFrequency(0)
		457	, fUsbInterface(musb_interface)
		458	#ifdef HAVE_VME
		459	, fVmeInterface(0)
		460	, fBaseAddress(0)
		461	#endif
		462	, fSlotNumber(usb_slot)
		463	, fNominalFrequency(0)
		464	, fMultiBuffer(0)
		465	, fDominoMode(0)
		466	, fDominoActive(0)
		467	, fChannelConfig(0)
		468	, fChannelCascading(1)
		469	, fChannelDepth(1024)
		470	, fWSRLoop(0)
		471	, fReadoutMode(0)
		472	, fReadPointer(0)
		473	, fNMultiBuffer(0)
		474	, fTriggerEnable1(0)
		475	, fTriggerEnable2(0)
		476	, fTriggerSource(0)
		477	, fTriggerDelay(0)
		478	, fTriggerDelayNs(0)
		479	, fSyncDelay(0)
		480	, fDelayedStart(0)
		481	, fTranspMode(0)
		482	, fDecimation(0)
		483	, fRange(0)
		484	, fCommonMode(0.8)
		485	, fAcalMode(0)
		486	, fAcalVolt(0)
		487	, fTcalFreq(0)
		488	, fTcalLevel(0)
		489	, fTcalPhase(0)
		490	, fTcalSource(0)
		491	, fRefclk(0)
		492	, fMaxChips(0)
		493	, fResponseCalibration(0)
		494	, fVoltageCalibrationValid(false)
		495	, fCellCalibratedRange(0)
		496	, fCellCalibratedTemperature(0)
		497	, fTimeData(0)
		498	, fNumberOfTimeData(0)
		499	, fDebug(0)
		500	, fTriggerStartBin(0)
		501	{
		502	if (musb_interface->usb_type == 1)
		503	fTransport = TR_USB;
		504	else
		505	fTransport = TR_USB2;
		506	memset(fStopCell, 0, sizeof(fStopCell));
		507	memset(fStopWSR, 0, sizeof(fStopWSR));
		508	fTriggerBus = 0;
		509	ConstructBoard();
		510	}
		511
		512	#endif
		513
		514	#ifdef HAVE_VME
		515	/------------------------------------------------------------------/
		516
		517	DRSBoard::DRSBoard(MVME_INTERFACE * mvme_interface, mvme_addr_t base_address, int slot_number)
		518	:fDAC_COFSA(0)
		519	, fDAC_COFSB(0)
		520	, fDAC_DRA(0)
		521	, fDAC_DSA(0)
		522	, fDAC_TLEVEL(0)
		523	, fDAC_ACALIB(0)
		524	, fDAC_DSB(0)
		525	, fDAC_DRB(0)
		526	, fDAC_COFS(0)
		527	, fDAC_ADCOFS(0)
		528	, fDAC_CLKOFS(0)
		529	, fDAC_ROFS_1(0)
		530	, fDAC_ROFS_2(0)
		531	, fDAC_INOFS(0)
		532	, fDAC_BIAS(0)
		533	, fDRSType(0)
		534	, fBoardType(0)
		535	, fRequiredFirmwareVersion(0)
		536	, fFirmwareVersion(0)
		537	, fBoardSerialNumber(0)
		538	, fHasMultiBuffer(0)
		539	, fTransport(TR_VME)
		540	, fCtrlBits(0)
		541	, fNumberOfReadoutChannels(0)
		542	, fReadoutChannelConfig(0)
		543	, fADCClkPhase(0)
		544	, fADCClkInvert(0)
		545	, fExternalClockFrequency(0)
		546	#ifdef HAVE_USB
		547	, fUsbInterface(0)
		548	#endif
		549	#ifdef HAVE_VME
		550	, fVmeInterface(mvme_interface)
		551	, fBaseAddress(base_address)
		552	, fSlotNumber(slot_number)
		553	#endif
		554	, fNominalFrequency(0)
		555	, fRefClock(0)
		556	, fMultiBuffer(0)
		557	, fDominoMode(1)
		558	, fDominoActive(1)
		559	, fChannelConfig(0)
		560	, fChannelCascading(1)
		561	, fChannelDepth(1024)
		562	, fWSRLoop(1)
		563	, fReadoutMode(0)
		564	, fReadPointer(0)
		565	, fNMultiBuffer(0)
		566	, fTriggerEnable1(0)
		567	, fTriggerEnable2(0)
		568	, fTriggerSource(0)
		569	, fTriggerDelay(0)
		570	, fTriggerDelayNs(0)
		571	, fSyncDelay(0)
		572	, fDelayedStart(0)
		573	, fTranspMode(0)
		574	, fDecimation(0)
		575	, fRange(0)
		576	, fCommonMode(0.8)
		577	, fAcalMode(0)
		578	, fAcalVolt(0)
		579	, fTcalFreq(0)
		580	, fTcalLevel(0)
		581	, fTcalPhase(0)
		582	, fTcalSource(0)
		583	, fRefclk(0)
		584	, fMaxChips(0)
		585	, fResponseCalibration(0)
		586	, fTimeData(0)
		587	, fNumberOfTimeData(0)
		588	, fDebug(0)
		589	, fTriggerStartBin(0)
		590	{
		591	ConstructBoard();
		592	}
		593
		594	#endif
		595
		596	/------------------------------------------------------------------/
		597
		598	DRSBoard::~DRSBoard()
		599	{
		600	int i;
		601	#ifdef HAVE_USB
		602	if (fTransport == TR_USB \|\| fTransport == TR_USB2)
		603	musb_close(fUsbInterface);
		604	#endif
		605
		606	#ifdef USE_DRS_MUTEX
		607	if (s_drsMutex)
		608	delete s_drsMutex;
		609	s_drsMutex = NULL;
		610	#endif
		611
		612	// Response Calibration
		613	delete fResponseCalibration;
		614
		615	// Time Calibration
		616	for (i = 0; i < fNumberOfTimeData; i++) {
		617	delete fTimeData[i];
		618	}
		619	delete[]fTimeData;
		620	}
		621
		622	/------------------------------------------------------------------/
		623
		624	void DRSBoard::ConstructBoard()
		625	{
		626	unsigned char buffer[2];
		627	unsigned int bits;
		628
		629	fDebug = 0;
		630	fWSRLoop = 1;
		631	fCtrlBits = 0;
		632
		633	fExternalClockFrequency = 1000. / 30.;
		634	strcpy(fCalibDirectory, ".");
		635
		636	/* check board communication */
		637	if (Read(T_STATUS, buffer, REG_MAGIC, 2) < 0) {
		638	InitFPGA();
		639	if (Read(T_STATUS, buffer, REG_MAGIC, 2) < 0)
		640	return;
		641	}
		642
		643	ReadSerialNumber();
		644
		645	/* set correct reference clock */
		646	if (fBoardType == 5 \|\| fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9)
		647	fRefClock = 60;
		648	else
		649	fRefClock = 33;
		650
		651	/* get mode from hardware */
		652	bits = GetCtrlReg();
		653	fMultiBuffer = (bits & BIT_MULTI_BUFFER) > 0;
		654	fNMultiBuffer = 0;
		655	if (fHasMultiBuffer && fMultiBuffer)
		656	fNMultiBuffer = 3;
		657	if (fDRSType == 4) {
		658	fDominoMode = (bits & BIT_CONFIG_DMODE) > 0;
		659	} else {
		660	fDominoMode = (bits & BIT_DMODE) > 0;
		661	}
		662	fTriggerEnable1 = (bits & BIT_ENABLE_TRIGGER1) > 0;
		663	fTriggerEnable2 = (bits & BIT_ENABLE_TRIGGER2) > 0;
		664	fTriggerSource = ((bits & BIT_TR_SOURCE1) > 0) \| (((bits & BIT_TR_SOURCE2) > 0) << 1);
		665	fReadoutMode = (bits & BIT_READOUT_MODE) > 0;
		666	Read(T_CTRL, &fReadPointer, REG_READ_POINTER, 2);
		667	fADCClkInvert = (bits & BIT_ADCCLK_INVERT) > 0;
		668	fDominoActive = (bits & BIT_DACTIVE) > 0;
		669	ReadFrequency(0, &fNominalFrequency);
		670	if (fNominalFrequency < 0.1 \|\| fNominalFrequency > 6)
		671	fNominalFrequency = 1;
		672
		673	/* initialize number of channels */
		674	if (fDRSType == 4) {
		675	if (fBoardType == 6) {
		676	unsigned short d;
		677	Read(T_CTRL, &d, REG_CHANNEL_MODE, 2);
		678	fReadoutChannelConfig = d & 0xFF;
		679	if (d == 7)
		680	fNumberOfReadoutChannels = 9;
		681	else
		682	fNumberOfReadoutChannels = 5;
		683	} else
		684	fNumberOfReadoutChannels = 9;
		685	} else
		686	fNumberOfReadoutChannels = 10;
		687
		688	if (fBoardType == 1) {
		689	fDAC_COFSA = 0;
		690	fDAC_COFSB = 1;
		691	fDAC_DRA = 2;
		692	fDAC_DSA = 3;
		693	fDAC_TLEVEL = 4;
		694	fDAC_ACALIB = 5;
		695	fDAC_DSB = 6;
		696	fDAC_DRB = 7;
		697	} else if (fBoardType == 2 \|\| fBoardType == 3) {
		698	fDAC_COFS = 0;
		699	fDAC_DSA = 1;
		700	fDAC_DSB = 2;
		701	fDAC_TLEVEL = 3;
		702	fDAC_CLKOFS = 5;
		703	fDAC_ACALIB = 6;
		704	fDAC_ADCOFS = 7;
		705	} else if (fBoardType == 4) {
		706	fDAC_ROFS_1 = 0;
		707	fDAC_DSA = 1;
		708	fDAC_DSB = 2;
		709	fDAC_ROFS_2 = 3;
		710	fDAC_BIAS = 4;
		711	fDAC_INOFS = 5;
		712	fDAC_ACALIB = 6;
		713	fDAC_ADCOFS = 7;
		714	} else if (fBoardType == 5) {
		715	fDAC_ROFS_1 = 0;
		716	fDAC_CMOFS = 1;
		717	fDAC_CALN = 2;
		718	fDAC_CALP = 3;
		719	fDAC_BIAS = 4;
		720	fDAC_TLEVEL = 5;
		721	fDAC_ONOFS = 6;
		722	} else if (fBoardType == 6) {
		723	fDAC_ONOFS = 0;
		724	fDAC_CMOFSP = 1;
		725	fDAC_CALN = 2;
		726	fDAC_CALP = 3;
		727	fDAC_CMOFSN = 5;
		728	fDAC_ROFS_1 = 6;
		729	fDAC_BIAS = 7;
		730	} else if (fBoardType == 7) {
		731	fDAC_ROFS_1 = 0;
		732	fDAC_CMOFS = 1;
		733	fDAC_CALN = 2;
		734	fDAC_CALP = 3;
		735	fDAC_BIAS = 4;
		736	fDAC_TLEVEL = 5;
		737	fDAC_ONOFS = 6;
		738	} else if (fBoardType == 8 \|\| fBoardType == 9) {
		739	fDAC_ROFS_1 = 0;
		740	fDAC_TLEVEL4 = 1;
		741	fDAC_CALN = 2;
		742	fDAC_CALP = 3;
		743	fDAC_BIAS = 4;
		744	fDAC_TLEVEL1 = 5;
		745	fDAC_TLEVEL2 = 6;
		746	fDAC_TLEVEL3 = 7;
		747	}
		748
		749	if (fDRSType < 4) {
		750	// Response Calibration
		751	fResponseCalibration = new ResponseCalibration(this);
		752
		753	// Time Calibration
		754	fTimeData = new DRSBoard::TimeData *[kNumberOfChipsMax];
		755	fNumberOfTimeData = 0;
		756	}
		757	}
		758
		759	/------------------------------------------------------------------/
		760
		761	void DRSBoard::ReadSerialNumber()
		762	{
		763	unsigned char buffer[2];
		764	int number;
		765
		766	// check magic number
		767	if (Read(T_STATUS, buffer, REG_MAGIC, 2) < 0) {
		768	printf("Cannot read from board\n");
		769	return;
		770	}
		771
		772	number = (static_cast < int >(buffer[1]) << 8) +buffer[0];
		773	if (number != 0xC0DE) {
		774	printf("Invalid magic number: %04X\n", number);
		775	return;
		776	}
		777
		778	// read board type
		779	Read(T_STATUS, buffer, REG_BOARD_TYPE, 2);
		780	fDRSType = buffer[0];
		781	fBoardType = buffer[1];
		782
		783	// read firmware version
		784	Read(T_STATUS, buffer, REG_VERSION_FW, 2);
		785	fFirmwareVersion = (static_cast < int >(buffer[1]) << 8) +buffer[0];
		786
		787	// retrieve board serial number
		788	Read(T_STATUS, buffer, REG_SERIAL_BOARD, 2);
		789	number = (static_cast < int >(buffer[1]) << 8) +buffer[0];
		790	fBoardSerialNumber = number;
		791
		792	// determine DRS type and board type for old boards from setial number
		793	if (fBoardType == 0) {
		794	// determine board version from serial number
		795	if (number >= 2000 && number < 5000) {
		796	fBoardType = 6;
		797	fDRSType = 4;
		798	} else if (number >= 1000) {
		799	fBoardType = 4;
		800	fDRSType = 3;
		801	} else if (number >= 100)
		802	fBoardType = 3;
		803	else if (number > 0)
		804	fBoardType = 2;
		805	else {
		806	fBoardType = 3;
		807	fDRSType = 2;
		808	fRequiredFirmwareVersion = REQUIRED_FIRMWARE_VERSION_DRS2;
		809	}
		810	}
		811
		812	// set constants according to board type
		813	if (fBoardType == 6)
		814	fNumberOfChips = 4;
		815	else
		816	fNumberOfChips = 1;
		817
		818	if (fDRSType == 4)
		819	fNumberOfChannels = 9;
		820	else
		821	fNumberOfChannels = 10;
		822
		823	// retrieve firmware version
		824	if (fDRSType == 2)
		825	fRequiredFirmwareVersion = REQUIRED_FIRMWARE_VERSION_DRS2;
		826	if (fDRSType == 3)
		827	fRequiredFirmwareVersion = REQUIRED_FIRMWARE_VERSION_DRS3;
		828	if (fDRSType == 4)
		829	fRequiredFirmwareVersion = REQUIRED_FIRMWARE_VERSION_DRS4;
		830
		831	fHasMultiBuffer = ((fBoardType == 6) && fTransport == TR_VME);
		832	}
		833
		834	/------------------------------------------------------------------/
		835
		836	void DRSBoard::ReadCalibration(void)
		837	{
		838	unsigned short buf[1024*16]; // 32 kB
		839	int i, j, chip;
		840
		841	fVoltageCalibrationValid = false;
		842	fTimingCalibratedFrequency = 0;
		843
		844	memset(fCellOffset, 0, sizeof(fCellOffset));
		845	memset(fCellGain, 0, sizeof(fCellGain));
		846	memset(fCellOffset2, 0, sizeof(fCellOffset2));
		847	memset(fCellDT, 0, sizeof(fCellDT));
		848
		849	/* read offsets and gain from eeprom */
		850	if (fBoardType == 9) {
		851	memset(buf, 0, sizeof(buf));
		852	ReadEEPROM(0, buf, 4096);
		853
		854	/* check voltage calibration method */
		855	if ((buf[2] & 0xFF) == VCALIB_METHOD)
		856	fVoltageCalibrationValid = true;
		857	else {
		858	fCellCalibratedRange = 0;
		859	fCellCalibratedTemperature = -100;
		860	return;
		861	}
		862
		863	/* check timing calibration method */
		864	if ((buf[2] >> 8) == TCALIB_METHOD) {
		865	float fl; // float from two 16-bit integers
		866	memcpy(&fl, &buf[8], sizeof(float));
		867	fTimingCalibratedFrequency = fl;
		868	} else
		869	fTimingCalibratedFrequency = -1;
		870
		871	fCellCalibratedRange = ((int) (buf[10] & 0xFF)) / 100.0; // -50 ... +50 => -0.5 V ... +0.5 V
		872	fCellCalibratedTemperature = (buf[10] >> 8) / 2.0;
		873
		874	ReadEEPROM(1, buf, 1024*32);
		875	for (i=0 ; i<8 ; i++)
		876	for (j=0 ; j<1024; j++) {
		877	fCellOffset[i][j] = buf[(i1024+j)2];
		878	fCellGain[i][j] = buf[(i1024+j)2 + 1]/65535.0*0.4+0.7;
		879	}
		880
		881	ReadEEPROM(2, buf, 1024*32);
		882	for (i=0 ; i<8 ; i++)
		883	for (j=0 ; j<1024; j++)
		884	fCellOffset2[i][j] = buf[(i1024+j)2];
		885
		886	} else if (fBoardType == 5 \|\| fBoardType == 7 \|\| fBoardType == 8) {
		887	memset(buf, 0, sizeof(buf));
		888	ReadEEPROM(0, buf, 32);
		889
		890	/* check voltage calibration method */
		891	if ((buf[2] & 0xFF) == VCALIB_METHOD_V4) // board < 9 has "1", board 9 has "2"
		892	fVoltageCalibrationValid = true;
		893	else {
		894	fCellCalibratedRange = 0;
		895	return;
		896	}
		897	fCellCalibratedTemperature = -100;
		898
		899	/* check timing calibration method */
		900	if ((buf[4] & 0xFF) == TCALIB_METHOD_V4) { // board < 9 has "1", board 9 has "2"
		901	fTimingCalibratedFrequency = buf[6] / 1000.0;
		902	} else
		903	fTimingCalibratedFrequency = -1;
		904
		905	fCellCalibratedRange = ((int) (buf[2] >> 8)) / 100.0; // -50 ... +50 => -0.5 V ... +0.5 V
		906	ReadEEPROM(1, buf, 1024*32);
		907	for (i=0 ; i<8 ; i++)
		908	for (j=0 ; j<1024; j++) {
		909	fCellOffset[i][j] = buf[(i1024+j)2];
		910	fCellGain[i][j] = buf[(i1024+j)2 + 1]/65535.0*0.4+0.7;
		911	}
		912
		913	ReadEEPROM(2, buf, 102454);
		914	for (i=0 ; i<1 ; i++)
		915	for (j=0 ; j<1024; j++) {
		916	fCellOffset[i+8][j] = buf[(i1024+j)2];
		917	fCellGain[i+8][j] = buf[(i1024+j)2 + 1]/65535.0*0.4+0.7;
		918	}
		919
		920	for (i=0 ; i<4 ; i++)
		921	for (j=0 ; j<1024; j++) {
		922	fCellOffset2[i2][j] = buf[21024+(i1024+j)2];
		923	fCellOffset2[i2+1][j] = buf[21024+(i1024+j)2+1];
		924	}
		925
		926	} else if (fBoardType == 6) {
		927	ReadEEPROM(0, buf, 16);
		928
		929	/* check voltage calibration method */
		930	if ((buf[2] & 0xFF) == VCALIB_METHOD)
		931	fVoltageCalibrationValid = true;
		932	else {
		933	fCellCalibratedRange = 0;
		934	return;
		935	}
		936
		937	/* check timing calibration method */
		938	if ((buf[4] & 0xFF) == TCALIB_METHOD)
		939	fTimingCalibratedFrequency = buf[6] / 1000.0; // 0 ... 6000 => 0 ... 6 GHz
		940	else
		941	fTimingCalibratedFrequency = 0;
		942
		943	fCellCalibratedRange = ((int) (buf[2] >> 8)) / 100.0; // -50 ... +50 => -0.5 V ... +0.5 V
		944
		945	for (chip=0 ; chip<4 ; chip++) {
		946	ReadEEPROM(1+chip, buf, 1024*32);
		947	for (i=0 ; i<8 ; i++)
		948	for (j=0 ; j<1024; j++) {
		949	fCellOffset[i+chip9][j] = buf[(i1024+j)*2];
		950	fCellGain[i+chip9][j] = buf[(i1024+j)2 + 1]/65535.00.4+0.7;
		951	}
		952	}
		953
		954	ReadEEPROM(5, buf, 102444);
		955	for (chip=0 ; chip<4 ; chip++)
		956	for (j=0 ; j<1024; j++) {
		957	fCellOffset[8+chip9][j] = buf[j2+chip*0x0800];
		958	fCellGain[8+chip9][j] = buf[j2+1+chip0x0800]/65535.00.4+0.7;
		959	}
		960
		961	ReadEEPROM(7, buf, 1024*32);
		962	for (i=0 ; i<8 ; i++) {
		963	for (j=0 ; j<1024; j++) {
		964	fCellOffset2[i][j] = buf[i0x800 + j2];
		965	fCellOffset2[i+9][j] = buf[i0x800 + j2+1];
		966	}
		967	}
		968
		969	ReadEEPROM(8, buf, 1024*32);
		970	for (i=0 ; i<8 ; i++) {
		971	for (j=0 ; j<1024; j++) {
		972	fCellOffset2[i+18][j] = buf[i0x800 + j2];
		973	fCellOffset2[i+27][j] = buf[i0x800 + j2+1];
		974	}
		975	}
		976
		977	} else
		978	return;
		979
		980	/* read timing calibration from eeprom */
		981	if (fBoardType == 9) {
		982	if (fTimingCalibratedFrequency == 0) {
		983	for (i=0 ; i<8 ; i++)
		984	for (j=0 ; j<1024 ; j++) {
		985	fCellDT[0][i][j] = 1/fNominalFrequency;
		986	}
		987	} else {
		988	ReadEEPROM(2, buf, 1024*32);
		989	for (i=0 ; i<8 ; i++)
		990	for (j=0 ; j<1024; j++) {
		991	fCellDT[0][i][j] = (buf[(i1024+j)2+1] - 1000) / 10000.0;
		992	}
		993	}
		994	} else if (fBoardType == 5 \|\| fBoardType == 7 \|\| fBoardType == 8) {
		995	if (fTimingCalibratedFrequency == 0) {
		996	for (i=0 ; i<1024 ; i++)
		997	fCellDT[0][0][i] = 1/fNominalFrequency;
		998	} else {
		999	ReadEEPROM(0, buf, 1024sizeof(short)2);
		1000	for (i=0 ; i<8 ; i++) {
		1001	for (j=0 ; j<1024; j++) {
		1002	// use calibration for all channels
		1003	fCellDT[0][i][j] = buf[j*2+1]/10000.0;
		1004	}
		1005	}
		1006	}
		1007	} else if (fBoardType == 6) {
		1008	if (fTimingCalibratedFrequency == 0) {
		1009	for (i=0 ; i<1024 ; i++)
		1010	for (j=0 ; j<4 ; j++)
		1011	fCellDT[0][j][i] = 1/fNominalFrequency;
		1012	} else {
		1013	ReadEEPROM(6, buf, 1024sizeof(short)4);
		1014	for (i=0 ; i<1024; i++) {
		1015	fCellDT[0][0][i] = buf[i*2]/10000.0;
		1016	fCellDT[1][0][i] = buf[i*2+1]/10000.0;
		1017	fCellDT[2][0][i] = buf[i*2+0x800]/10000.0;
		1018	fCellDT[3][0][i] = buf[i*2+0x800+1]/10000.0;
		1019	}
		1020	}
		1021	}
		1022
		1023	#if 0
		1024	/* Read Daniel's file */
		1025	int fh = open("cal_ch2.dat", O_RDONLY);
		1026	float v;
		1027	read(fh, &v, sizeof(float));
		1028	for (i=0 ; i<1024 ; i++) {
		1029	read(fh, &v, sizeof(float));
		1030	fCellDT[0][2][(i+0) % 1024] = v;
		1031	}
		1032	close(fh);
		1033	fh = open("cal_ch4.dat", O_RDONLY);
		1034	read(fh, &v, sizeof(float));
		1035	for (i=0 ; i<1024 ; i++) {
		1036	read(fh, &v, sizeof(float));
		1037	fCellDT[0][6][(i+0)%1024] = v;
		1038	}
		1039	close(fh);
		1040	#endif
		1041
		1042	#if 0
		1043	/* write timing calibration to EEPROM page 0 */
		1044	double t1, t2;
		1045	ReadEEPROM(0, buf, sizeof(buf));
		1046	for (i=0,t1=0 ; i<1024; i++) {
		1047	t2 = fCellT[0][i] - t1;
		1048	t2 = (unsigned short) (t2 * 10000 + 0.5);
		1049	t1 += t2 / 10000.0;
		1050	buf[i*2+1] = (unsigned short) t2;
		1051	}
		1052
		1053	/* write calibration method and frequency */
		1054	buf[4] = TCALIB_METHOD;
		1055	buf[6] = (unsigned short) (fNominalFrequency * 1000 + 0.5);
		1056	fTimingCalibratedFrequency = buf[6] / 1000.0;
		1057	WriteEEPROM(0, buf, sizeof(buf));
		1058	#endif
		1059
		1060	}
		1061
		1062	/------------------------------------------------------------------/
		1063
		1064	bool DRSBoard::HasCorrectFirmware()
		1065	{
		1066	/* check for required firmware version */
		1067	return (fFirmwareVersion >= fRequiredFirmwareVersion);
		1068	}
		1069
		1070	/------------------------------------------------------------------/
		1071
		1072	int DRSBoard::InitFPGA(void)
		1073	{
		1074
		1075	#ifdef HAVE_USB
		1076	if (fTransport == TR_USB2) {
		1077	unsigned char buffer[1];
		1078	int i, status;
		1079
		1080	/* blink Cy7C68013A LED and issue an FPGA reset */
		1081	buffer[0] = 0; // LED off
		1082	musb_write(fUsbInterface, 1, buffer, 1, 100);
		1083	Sleep(50);
		1084
		1085	buffer[0] = 1; // LED on
		1086	musb_write(fUsbInterface, 1, buffer, 1, 100);
		1087
		1088	/* wait until EEPROM page #0 has been read */
		1089	for (i=0 ; i<100 ; i++) {
		1090	Read(T_STATUS, &status, REG_STATUS, 4);
		1091	if ((status & BIT_SERIAL_BUSY) == 0)
		1092	break;
		1093	Sleep(10);
		1094	}
		1095	}
		1096	#endif
		1097
		1098	return 1;
		1099	}
		1100
		1101	/------------------------------------------------------------------/
		1102
		1103	/* Generic read function accessing VME or USB */
		1104
		1105	int DRSBoard::Write(int type, unsigned int addr, void *data, int size)
		1106	{
		1107	#ifdef USE_DRS_MUTEX
		1108	if (!s_drsMutex) {
		1109	s_drsMutex = new wxMutex();
		1110	assert(s_drsMutex);
		1111	}
		1112	s_drsMutex->Lock();
		1113	#endif
		1114
		1115	if (fTransport == TR_VME) {
		1116
		1117	#ifdef HAVE_VME
		1118	unsigned int base_addr;
		1119
		1120	base_addr = fBaseAddress;
		1121
		1122	if (type == T_CTRL)
		1123	base_addr += PMC_CTRL_OFFSET;
		1124	else if (type == T_STATUS)
		1125	base_addr += PMC_STATUS_OFFSET;
		1126	else if (type == T_RAM)
		1127	base_addr += PMC_RAM_OFFSET;
		1128
		1129	if (size == 1) {
		1130	/* 8-bit write access */
		1131	mvme_set_dmode(fVmeInterface, MVME_DMODE_D8);
		1132	mvme_write(fVmeInterface, base_addr + addr, static_cast < mvme_locaddr_t * >(data), size);
		1133	} else if (size == 2) {
		1134	/* 16-bit write access */
		1135	mvme_set_dmode(fVmeInterface, MVME_DMODE_D16);
		1136	mvme_write(fVmeInterface, base_addr + addr, static_cast < mvme_locaddr_t * >(data), size);
		1137	} else {
		1138	mvme_set_dmode(fVmeInterface, MVME_DMODE_D32);
		1139
		1140	/* as long as no block transfer is supported, do pseudo block transfer */
		1141	mvme_set_blt(fVmeInterface, MVME_BLT_NONE);
		1142
		1143	mvme_write(fVmeInterface, base_addr + addr, static_cast < mvme_locaddr_t * >(data), size);
		1144	}
		1145
		1146	#ifdef USE_DRS_MUTEX
		1147	s_drsMutex->Unlock();
		1148	#endif
		1149	return size;
		1150	#endif // HAVE_VME
		1151
		1152	} else if (fTransport == TR_USB) {
		1153	#ifdef HAVE_USB
		1154	unsigned char buffer[64], ack;
		1155	unsigned int base_addr;
		1156	int i, j, n;
		1157
		1158	if (type == T_CTRL)
		1159	base_addr = USB_CTRL_OFFSET;
		1160	else if (type == T_STATUS)
		1161	base_addr = USB_STATUS_OFFSET;
		1162	else if (type == T_RAM)
		1163	base_addr = USB_RAM_OFFSET;
		1164	else
		1165	base_addr = 0;
		1166
		1167	if (type != T_RAM) {
		1168
		1169	/---- register access ----/
		1170
		1171	if (size == 2) {
		1172	/* word swapping: first 16 bit sit at upper address */
		1173	if ((addr % 4) == 0)
		1174	addr = addr + 2;
		1175	else
		1176	addr = addr - 2;
		1177	}
		1178
		1179	buffer[0] = USB_CMD_WRITE;
		1180	buffer[1] = base_addr + addr;
		1181	buffer[2] = size;
		1182
		1183	for (i = 0; i < size; i++)
		1184	buffer[3 + i] = ((unsigned char ) data + i);
		1185
		1186	/* try 10 times */
		1187	ack = 0;
		1188	for (i = 0; i < 10; i++) {
		1189	n = musb_write(fUsbInterface, 2, buffer, 3 + size, USB_TIMEOUT);
		1190	if (n == 3 + size) {
		1191	for (j = 0; j < 10; j++) {
		1192	/* wait for acknowledge */
		1193	n = musb_read(fUsbInterface, 1, &ack, 1, USB_TIMEOUT);
		1194	if (n == 1 && ack == 1)
		1195	break;
		1196
		1197	printf("Redo receive\n");
		1198	}
		1199	}
		1200
		1201	if (ack == 1) {
		1202	#ifdef USE_DRS_MUTEX
		1203	s_drsMutex->Unlock();
		1204	#endif
		1205	return size;
		1206	}
		1207
		1208	printf("Redo send\n");
		1209	}
		1210	} else {
		1211
		1212	/---- RAM access ----/
		1213
		1214	buffer[0] = USB_CMD_ADDR;
		1215	buffer[1] = base_addr + addr;
		1216	musb_write(fUsbInterface, 2, buffer, 2, USB_TIMEOUT);
		1217
		1218	/* chop buffer into 60-byte packets */
		1219	for (i = 0; i <= (size - 1) / 60; i++) {
		1220	n = size - i * 60;
		1221	if (n > 60)
		1222	n = 60;
		1223	buffer[0] = USB_CMD_WRITE12;
		1224	buffer[1] = n;
		1225
		1226	for (j = 0; j < n; j++)
		1227	buffer[2 + j] = ((unsigned char ) data + j + i * 60);
		1228
		1229	musb_write(fUsbInterface, 2, buffer, 2 + n, USB_TIMEOUT);
		1230
		1231	for (j = 0; j < 10; j++) {
		1232	/* wait for acknowledge */
		1233	n = musb_read(fUsbInterface, 1, &ack, 1, USB_TIMEOUT);
		1234	if (n == 1 && ack == 1)
		1235	break;
		1236
		1237	printf("Redo receive acknowledge\n");
		1238	}
		1239	}
		1240
		1241	#ifdef USE_DRS_MUTEX
		1242	s_drsMutex->Unlock();
		1243	#endif
		1244	return size;
		1245	}
		1246	#endif // HAVE_USB
		1247	} else if (fTransport == TR_USB2) {
		1248	#ifdef HAVE_USB
		1249	unsigned int base_addr;
		1250	int i;
		1251
		1252	if (usb2_buffer == NULL)
		1253	usb2_buffer = (unsigned char *) malloc(USB2_BUFFER_SIZE);
		1254	assert(usb2_buffer);
		1255
		1256	/* only accept even address and number of bytes */
		1257	assert(addr % 2 == 0);
		1258	assert(size % 2 == 0);
		1259
		1260	/* check for maximum size */
		1261	assert(size <= USB2_BUFFER_SIZE - 10);
		1262
		1263	if (type == T_CTRL)
		1264	base_addr = USB2_CTRL_OFFSET;
		1265	else if (type == T_STATUS)
		1266	base_addr = USB2_STATUS_OFFSET;
		1267	else if (type == T_FIFO)
		1268	base_addr = USB2_FIFO_OFFSET;
		1269	else if (type == T_RAM)
		1270	base_addr = USB2_RAM_OFFSET;
		1271	else
		1272	base_addr = 0;
		1273
		1274	if (type != T_RAM && size == 2) {
		1275	/* word swapping: first 16 bit sit at upper address */
		1276	if ((addr % 4) == 0)
		1277	addr = addr + 2;
		1278	else
		1279	addr = addr - 2;
		1280	}
		1281
		1282	addr += base_addr;
		1283
		1284	usb2_buffer[0] = USB2_CMD_WRITE;
		1285	usb2_buffer[1] = 0;
		1286
		1287	usb2_buffer[2] = (addr >> 0) & 0xFF;
		1288	usb2_buffer[3] = (addr >> 8) & 0xFF;
		1289	usb2_buffer[4] = (addr >> 16) & 0xFF;
		1290	usb2_buffer[5] = (addr >> 24) & 0xFF;
		1291
		1292	usb2_buffer[6] = (size >> 0) & 0xFF;
		1293	usb2_buffer[7] = (size >> 8) & 0xFF;
		1294	usb2_buffer[8] = (size >> 16) & 0xFF;
		1295	usb2_buffer[9] = (size >> 24) & 0xFF;
		1296
		1297	for (i = 0; i < size; i++)
		1298	usb2_buffer[10 + i] = ((unsigned char ) data + i);
		1299
		1300	i = musb_write(fUsbInterface, 4, usb2_buffer, 10 + size, USB_TIMEOUT);
		1301	if (i != 10 + size)
		1302	printf("musb_write error: %d\n", i);
		1303
		1304	#ifdef USE_DRS_MUTEX
		1305	s_drsMutex->Unlock();
		1306	#endif
		1307	return i;
		1308	#endif // HAVE_USB
		1309	}
		1310
		1311	#ifdef USE_DRS_MUTEX
		1312	s_drsMutex->Unlock();
		1313	#endif
		1314	return 0;
		1315	}
		1316
		1317	/------------------------------------------------------------------/
		1318
		1319	/* Generic read function accessing VME or USB */
		1320
		1321	int DRSBoard::Read(int type, void *data, unsigned int addr, int size)
		1322	{
		1323	#ifdef USE_DRS_MUTEX
		1324	if (!s_drsMutex) {
		1325	s_drsMutex = new wxMutex();
		1326	assert(s_drsMutex);
		1327	}
		1328	s_drsMutex->Lock();
		1329	#endif
		1330
		1331	memset(data, 0, size);
		1332
		1333	if (fTransport == TR_VME) {
		1334
		1335	#ifdef HAVE_VME
		1336	unsigned int base_addr;
		1337	int n, i;
		1338
		1339	base_addr = fBaseAddress;
		1340
		1341	if (type == T_CTRL)
		1342	base_addr += PMC_CTRL_OFFSET;
		1343	else if (type == T_STATUS)
		1344	base_addr += PMC_STATUS_OFFSET;
		1345	else if (type == T_RAM)
		1346	base_addr += PMC_RAM_OFFSET;
		1347	else if (type == T_FIFO)
		1348	base_addr += PMC_FIFO_OFFSET;
		1349
		1350	mvme_set_dmode(fVmeInterface, MVME_DMODE_D32);
		1351
		1352	n = 0;
		1353	if (size == 1) {
		1354	/* 8-bit read access */
		1355	mvme_set_dmode(fVmeInterface, MVME_DMODE_D8);
		1356	n = mvme_read(fVmeInterface, static_cast < mvme_locaddr_t * >(data), base_addr + addr, size);
		1357	} else if (size == 2) {
		1358	/* 16-bit read access */
		1359	mvme_set_dmode(fVmeInterface, MVME_DMODE_D16);
		1360	n = mvme_read(fVmeInterface, static_cast < mvme_locaddr_t * >(data), base_addr + addr, size);
		1361	} else {
		1362	mvme_set_dmode(fVmeInterface, MVME_DMODE_D32);
		1363
		1364	//mvme_set_blt(fVmeInterface, MVME_BLT_NONE); // pseudo block transfer
		1365	mvme_set_blt(fVmeInterface, MVME_BLT_2EVME); // 2eVME if implemented
		1366	n = mvme_read(fVmeInterface, static_cast < mvme_locaddr_t * >(data), base_addr + addr, size);
		1367	while (n != size) {
		1368	printf("Only read %d out of %d, retry with %d: ", n, size, size - n);
		1369	i = mvme_read(fVmeInterface, static_cast < mvme_locaddr_t * >(data) + n / 4, base_addr + addr + n,
		1370	size - n);
		1371	printf("read %d\n", i);
		1372	if (i == 0) {
		1373	printf("Error reading VME\n");
		1374	return n;
		1375	}
		1376	n += i;
		1377	}
		1378
		1379	//for (i = 0; i < size; i += 4)
		1380	// mvme_read(fVmeInterface, (mvme_locaddr_t )((char )data+i), base_addr + addr+i, 4);
		1381	}
		1382
		1383	#ifdef USE_DRS_MUTEX
		1384	s_drsMutex->Unlock();
		1385	#endif
		1386
		1387	return n;
		1388
		1389	#endif // HAVE_VME
		1390	} else if (fTransport == TR_USB) {
		1391	#ifdef HAVE_USB
		1392	unsigned char buffer[64];
		1393	unsigned int base_addr;
		1394	int i, j, ret, n;
		1395
		1396	if (type == T_CTRL)
		1397	base_addr = USB_CTRL_OFFSET;
		1398	else if (type == T_STATUS)
		1399	base_addr = USB_STATUS_OFFSET;
		1400	else if (type == T_RAM)
		1401	base_addr = USB_RAM_OFFSET;
		1402	else
		1403	assert(0); // FIFO not implemented
		1404
		1405	if (type != T_RAM) {
		1406
		1407	/---- register access ----/
		1408
		1409	if (size == 2) {
		1410	/* word swapping: first 16 bit sit at uppder address */
		1411	if ((addr % 4) == 0)
		1412	addr = addr + 2;
		1413	else
		1414	addr = addr - 2;
		1415	}
		1416
		1417	buffer[0] = USB_CMD_READ;
		1418	buffer[1] = base_addr + addr;
		1419	buffer[2] = size;
		1420
		1421	musb_write(fUsbInterface, 2, buffer, 2 + size, USB_TIMEOUT);
		1422	i = musb_read(fUsbInterface, 1, data, size, USB_TIMEOUT);
		1423
		1424	#ifdef USE_DRS_MUTEX
		1425	s_drsMutex->Unlock();
		1426	#endif
		1427	if (i != size)
		1428	return 0;
		1429
		1430	return size;
		1431	} else {
		1432
		1433	/---- RAM access ----/
		1434
		1435	/* in RAM mode, only the 2048-byte page can be selected */
		1436	buffer[0] = USB_CMD_ADDR;
		1437	buffer[1] = base_addr + (addr >> 11);
		1438	musb_write(fUsbInterface, 2, buffer, 2, USB_TIMEOUT);
		1439
		1440	/* receive data in 60-byte packets */
		1441	for (i = 0; i <= (size - 1) / 60; i++) {
		1442	n = size - i * 60;
		1443	if (n > 60)
		1444	n = 60;
		1445	buffer[0] = USB_CMD_READ12;
		1446	buffer[1] = n;
		1447	musb_write(fUsbInterface, 2, buffer, 2, USB_TIMEOUT);
		1448
		1449	ret = musb_read(fUsbInterface, 1, buffer, n, USB_TIMEOUT);
		1450
		1451	if (ret != n) {
		1452	/* try again */
		1453	ret = musb_read(fUsbInterface, 1, buffer, n, USB_TIMEOUT);
		1454	if (ret != n) {
		1455	#ifdef USE_DRS_MUTEX
		1456	s_drsMutex->Unlock();
		1457	#endif
		1458	return 0;
		1459	}
		1460	}
		1461
		1462	for (j = 0; j < ret; j++)
		1463	((unsigned char ) data + j + i * 60) = buffer[j];
		1464	}
		1465
		1466	#ifdef USE_DRS_MUTEX
		1467	s_drsMutex->Unlock();
		1468	#endif
		1469	return size;
		1470	}
		1471	#endif // HAVE_USB
		1472	} else if (fTransport == TR_USB2) {
		1473	#ifdef HAVE_USB
		1474	unsigned char buffer[10];
		1475	unsigned int base_addr;
		1476	int i;
		1477
		1478	/* only accept even address and number of bytes */
		1479	assert(addr % 2 == 0);
		1480	assert(size % 2 == 0);
		1481
		1482	/* check for maximum size */
		1483	assert(size <= USB2_BUFFER_SIZE - 10);
		1484
		1485	if (type == T_CTRL)
		1486	base_addr = USB2_CTRL_OFFSET;
		1487	else if (type == T_STATUS)
		1488	base_addr = USB2_STATUS_OFFSET;
		1489	else if (type == T_FIFO)
		1490	base_addr = USB2_FIFO_OFFSET;
		1491	else if (type == T_RAM)
		1492	base_addr = USB2_RAM_OFFSET;
		1493	else
		1494	base_addr = 0;
		1495
		1496	if (type != T_RAM && size == 2) {
		1497	/* word swapping: first 16 bit sit at upper address */
		1498	if ((addr % 4) == 0)
		1499	addr = addr + 2;
		1500	else
		1501	addr = addr - 2;
		1502	}
		1503
		1504	addr += base_addr;
		1505
		1506	buffer[0] = USB2_CMD_READ;
		1507	buffer[1] = 0;
		1508
		1509	buffer[2] = (addr >> 0) & 0xFF;
		1510	buffer[3] = (addr >> 8) & 0xFF;
		1511	buffer[4] = (addr >> 16) & 0xFF;
		1512	buffer[5] = (addr >> 24) & 0xFF;
		1513
		1514	buffer[6] = (size >> 0) & 0xFF;
		1515	buffer[7] = (size >> 8) & 0xFF;
		1516	buffer[8] = (size >> 16) & 0xFF;
		1517	buffer[9] = (size >> 24) & 0xFF;
		1518
		1519	i = musb_write(fUsbInterface, 4, buffer, 10, USB_TIMEOUT);
		1520	if (i != 10)
		1521	printf("musb_read error %d\n", i);
		1522
		1523	i = musb_read(fUsbInterface, 8, data, size, USB_TIMEOUT);
		1524	#ifdef USE_DRS_MUTEX
		1525	s_drsMutex->Unlock();
		1526	#endif
		1527	return i;
		1528	#endif // HAVE_USB
		1529	}
		1530
		1531	#ifdef USE_DRS_MUTEX
		1532	s_drsMutex->Unlock();
		1533	#endif
		1534	return 0;
		1535	}
		1536
		1537	/------------------------------------------------------------------/
		1538
		1539	void DRSBoard::SetLED(int state)
		1540	{
		1541	// Set LED state
		1542	if (state)
		1543	fCtrlBits \|= BIT_LED;
		1544	else
		1545	fCtrlBits &= ~BIT_LED;
		1546	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		1547	}
		1548
		1549	/------------------------------------------------------------------/
		1550
		1551	int DRSBoard::SetChannelConfig(int firstChannel, int lastChannel, int nConfigChannels)
		1552	{
		1553	unsigned short d;
		1554
		1555	if (lastChannel < 0 \|\| lastChannel > 10) {
		1556	printf("Invalid number of channels: %d (must be between 0 and 10)\n", lastChannel);
		1557	return 0;
		1558	}
		1559
		1560	// Set number of channels
		1561	if (fDRSType == 2) {
		1562	// register must contain last channel to read out starting from 9
		1563	d = 9 - lastChannel;
		1564	Write(T_CTRL, REG_CHANNEL_CONFIG, &d, 2);
		1565	} else if (fDRSType == 3) {
		1566	// upper four bits of register must contain last channel to read out starting from 9
		1567	d = (firstChannel << 4) \| lastChannel;
		1568	Write(T_CTRL, REG_CHANNEL_MODE, &d, 2);
		1569
		1570	// set bit pattern for write shift register
		1571	switch (nConfigChannels) {
		1572	case 1:
		1573	d = 0x001;
		1574	break;
		1575	case 2:
		1576	d = 0x041;
		1577	break;
		1578	case 3:
		1579	d = 0x111;
		1580	break;
		1581	case 4:
		1582	d = 0x249;
		1583	break;
		1584	case 6:
		1585	d = 0x555;
		1586	break;
		1587	case 12:
		1588	d = 0xFFF;
		1589	break;
		1590	default:
		1591	printf("Invalid channel configuration\n");
		1592	return 0;
		1593	}
		1594	Write(T_CTRL, REG_CHANNEL_CONFIG, &d, 2);
		1595	} else if (fDRSType == 4) {
		1596
		1597	int oldMultiBuffer = fMultiBuffer;
		1598
		1599	// make sure FPGA state machine is idle
		1600	if (fHasMultiBuffer) {
		1601	SetMultiBuffer(0);
		1602	if (IsBusy()) {
		1603	SoftTrigger();
		1604	while (IsBusy());
		1605	}
		1606	}
		1607
		1608	if (fBoardType == 6) {
		1609	// determined channel readout mode A/C[even/odd], B/D[even/odd] or A/B/C/D
		1610	fReadoutChannelConfig = firstChannel;
		1611	Read(T_CTRL, &d, REG_CHANNEL_MODE, 2);
		1612	d = (d & 0xFF00) \| firstChannel; // keep higher 8 bits which are ADClkPhase
		1613	Write(T_CTRL, REG_CHANNEL_MODE, &d, 2);
		1614	} else {
		1615	// upper four bits of register must contain last channel to read out starting from 9
		1616	Read(T_CTRL, &d, REG_CHANNEL_MODE, 2);
		1617	d = (d & 0xFF00) \| (firstChannel << 4) \| lastChannel; // keep higher 8 bits which are ADClkPhase
		1618	Write(T_CTRL, REG_CHANNEL_MODE, &d, 2);
		1619	}
		1620
		1621	// set bit pattern for write shift register
		1622	fChannelConfig = 0;
		1623	switch (nConfigChannels) {
		1624	case 1:
		1625	fChannelConfig = 0x01;
		1626	fChannelCascading = 8;
		1627	break;
		1628	case 2:
		1629	fChannelConfig = 0x11;
		1630	fChannelCascading = 4;
		1631	break;
		1632	case 4:
		1633	fChannelConfig = 0x55;
		1634	fChannelCascading = 2;
		1635	break;
		1636	case 8:
		1637	fChannelConfig = 0xFF;
		1638	fChannelCascading = 1;
		1639	break;
		1640	default:
		1641	printf("Invalid channel configuration\n");
		1642	return 0;
		1643	}
		1644	d = fChannelConfig \| (fDominoMode << 8) \| (1 << 9) \| (fWSRLoop << 10) \| (0xF8 << 8);
		1645
		1646	Write(T_CTRL, REG_CHANNEL_CONFIG, &d, 2);
		1647
		1648	fChannelDepth = fChannelCascading * (fDecimation ? kNumberOfBins/2 : kNumberOfBins);
		1649
		1650	if (fHasMultiBuffer && oldMultiBuffer) {
		1651	Reinit(); // set WP=0
		1652	SetMultiBuffer(oldMultiBuffer);
		1653	SetMultiBufferRP(0);
		1654	}
		1655	}
		1656
		1657	if (fBoardType == 6) {
		1658	if (fReadoutChannelConfig == 7)
		1659	fNumberOfReadoutChannels = 9;
		1660	else
		1661	fNumberOfReadoutChannels = 5;
		1662	} else {
		1663	fNumberOfReadoutChannels = lastChannel - firstChannel + 1;
		1664	}
		1665
		1666	return 1;
		1667	}
		1668
		1669	/------------------------------------------------------------------/
		1670
		1671	void DRSBoard::SetNumberOfChannels(int nChannels)
		1672	{
		1673	SetChannelConfig(0, nChannels - 1, 12);
		1674	}
		1675
		1676	/------------------------------------------------------------------/
		1677
		1678	void DRSBoard::SetADCClkPhase(int phase, bool invert)
		1679	{
		1680	unsigned short d = 0;
		1681
		1682	/* Set the clock phase of the ADC via the variable phase shift
		1683	in the Xilinx DCM. One unit is equal to the clock period / 256,
		1684	so at 30 MHz this is about 130ps. The possible range at 30 MHz
		1685	is -87 ... +87 */
		1686
		1687	// keep lower 8 bits which are the channel mode
		1688	Read(T_CTRL, &d, REG_ADCCLK_PHASE, 2);
		1689	d = (d & 0x00FF) \| (phase << 8);
		1690	Write(T_CTRL, REG_ADCCLK_PHASE, &d, 2);
		1691
		1692	if (invert)
		1693	fCtrlBits \|= BIT_ADCCLK_INVERT;
		1694	else
		1695	fCtrlBits &= ~BIT_ADCCLK_INVERT;
		1696	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		1697
		1698	fADCClkPhase = phase;
		1699	fADCClkInvert = invert;
		1700	}
		1701
		1702	/------------------------------------------------------------------/
		1703
		1704	void DRSBoard::SetWarmup(unsigned int microseconds)
		1705	{
		1706	/* Set the "warmup" time. When starting the domino wave, the DRS4
		1707	chip together with its power supply need some time to stabilize
		1708	before high resolution data can be taken (jumping baseline
		1709	problem). This sets the time in ticks of 900ns before triggers
		1710	are accepted */
		1711
		1712	unsigned short ticks;
		1713
		1714	if (microseconds == 0)
		1715	ticks = 0;
		1716	else
		1717	ticks = (unsigned short) (microseconds / 0.9 + 0.5) - 1;
		1718	Write(T_CTRL, REG_WARMUP, &ticks, 2);
		1719	}
		1720
		1721	/------------------------------------------------------------------/
		1722
		1723	void DRSBoard::SetCooldown(unsigned int microseconds)
		1724	{
		1725	/* Set the "cooldown" time. When stopping the domino wave, the
		1726	power supply needs some time to stabilize before high resolution
		1727	data can read out (slanted baseline problem). This sets the
		1728	time in ticks of 900 ns before the readout is started */
		1729
		1730	unsigned short ticks;
		1731
		1732	ticks = (unsigned short) (microseconds / 0.9 + 0.5) - 1;
		1733	Write(T_CTRL, REG_COOLDOWN, &ticks, 2);
		1734	}
		1735
		1736	/------------------------------------------------------------------/
		1737
		1738	int DRSBoard::SetDAC(unsigned char channel, double value)
		1739	{
		1740	// Set DAC value
		1741	unsigned short d;
		1742
		1743	/* normalize to 2.5V for 16 bit */
		1744	if (value < 0)
		1745	value = 0;
		1746	if (value > 2.5)
		1747	value = 2.5;
		1748	d = static_cast < unsigned short >(value / 2.5 * 0xFFFF + 0.5);
		1749
		1750	Write(T_CTRL, REG_DAC_OFS + (channel * 2), &d, 2);
		1751
		1752	return 1;
		1753	}
		1754
		1755	/------------------------------------------------------------------/
		1756
		1757	int DRSBoard::ReadDAC(unsigned char channel, double *value)
		1758	{
		1759	// Readback DAC value from control register
		1760	unsigned char buffer[2];
		1761
		1762	/* map 0->1, 1->0, 2->3, 3->2, etc. */
		1763	//ofs = channel + 1 - 2*(channel % 2);
		1764
		1765	Read(T_CTRL, buffer, REG_DAC_OFS + (channel * 2), 2);
		1766
		1767	/* normalize to 2.5V for 16 bit */
		1768	value = 2.5 (buffer[0] + (buffer[1] << 8)) / 0xFFFF;
		1769
		1770	return 1;
		1771	}
		1772
		1773	/------------------------------------------------------------------/
		1774
		1775	int DRSBoard::GetRegulationDAC(double *value)
		1776	{
		1777	// Get DAC value from status register (-> freq. regulation)
		1778	unsigned char buffer[2];
		1779
		1780	if (fBoardType == 1)
		1781	Read(T_STATUS, buffer, REG_RDAC3, 2);
		1782	else if (fBoardType == 2 \|\| fBoardType == 3 \|\| fBoardType == 4)
		1783	Read(T_STATUS, buffer, REG_RDAC1, 2);
		1784	else
		1785	memset(buffer, 0, sizeof(buffer));
		1786
		1787	/* normalize to 2.5V for 16 bit */
		1788	value = 2.5 (buffer[0] + (buffer[1] << 8)) / 0xFFFF;
		1789
		1790	return 1;
		1791	}
		1792
		1793	/------------------------------------------------------------------/
		1794
		1795	int DRSBoard::StartDomino()
		1796	{
		1797	// Start domino sampling
		1798	fCtrlBits \|= BIT_START_TRIG;
		1799	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		1800	fCtrlBits &= ~BIT_START_TRIG;
		1801
		1802	return 1;
		1803	}
		1804
		1805	/------------------------------------------------------------------/
		1806
		1807	int DRSBoard::Reinit()
		1808	{
		1809	// Stop domino sampling
		1810	// reset readout state machine
		1811	// reset FIFO counters
		1812	fCtrlBits \|= BIT_REINIT_TRIG;
		1813	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		1814	fCtrlBits &= ~BIT_REINIT_TRIG;
		1815
		1816	return 1;
		1817	}
		1818
		1819	/------------------------------------------------------------------/
		1820
		1821	int DRSBoard::Init()
		1822	{
		1823	// Init FPGA on USB2 board
		1824	InitFPGA();
		1825
		1826	// Turn off multi-buffer mode to avoid immediate startup
		1827	SetMultiBuffer(0);
		1828
		1829	// Reinitialize
		1830	fCtrlBits \|= BIT_REINIT_TRIG; // reset readout state machine
		1831	if (fDRSType == 2)
		1832	fCtrlBits &= ~BIT_FREQ_AUTO_ADJ; // turn auto. freq regul. off
		1833	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		1834	fCtrlBits &= ~BIT_REINIT_TRIG;
		1835
		1836	if (fBoardType == 1) {
		1837	// set max. domino speed
		1838	SetDAC(fDAC_DRA, 2.5);
		1839	SetDAC(fDAC_DSA, 2.5);
		1840	SetDAC(fDAC_DRB, 2.5);
		1841	SetDAC(fDAC_DSB, 2.5);
		1842	// set readout offset
		1843	SetDAC(fDAC_COFSA, 0.9);
		1844	SetDAC(fDAC_COFSB, 0.9);
		1845	SetDAC(fDAC_TLEVEL, 1.7);
		1846	} else if (fBoardType == 2 \|\| fBoardType == 3) {
		1847	// set max. domino speed
		1848	SetDAC(fDAC_DSA, 2.5);
		1849	SetDAC(fDAC_DSB, 2.5);
		1850
		1851	// set readout offset
		1852	SetDAC(fDAC_COFS, 0.9);
		1853	SetDAC(fDAC_TLEVEL, 1.7);
		1854	SetDAC(fDAC_ADCOFS, 1.7); // 1.7 for DC coupling, 1.25 for AC
		1855	SetDAC(fDAC_CLKOFS, 1);
		1856	} else if (fBoardType == 4) {
		1857	// set max. domino speed
		1858	SetDAC(fDAC_DSA, 2.5);
		1859	SetDAC(fDAC_DSB, 2.5);
		1860
		1861	// set readout offset
		1862	SetDAC(fDAC_ROFS_1, 1.25); // LVDS level
		1863	//SetDAC(fDAC_ROFS_2, 0.85); // linear range 0.1V ... 1.1V
		1864	SetDAC(fDAC_ROFS_2, 1.05); // differential input from Lecce splitter
		1865
		1866	SetDAC(fDAC_ADCOFS, 1.25);
		1867	SetDAC(fDAC_ACALIB, 0.5);
		1868	SetDAC(fDAC_INOFS, 0.6);
		1869	SetDAC(fDAC_BIAS, 0.70); // a bit above the internal bias of 0.68V
		1870
		1871	} else if (fBoardType == 5) {
		1872	// DRS4 USB Evaluation Board 1.1 + 2.0
		1873
		1874	// set max. domino speed
		1875	SetDAC(fDAC_DSA, 2.5);
		1876
		1877	// set readout offset
		1878	fROFS = 1.6; // differential input range -0.5V ... +0.5V
		1879	fRange = 0;
		1880	SetDAC(fDAC_ROFS_1, fROFS);
		1881
		1882	// set common mode offset
		1883	fCommonMode = 0.8; // 0.8V +- 0.5V inside NMOS range
		1884	SetDAC(fDAC_CMOFS, fCommonMode);
		1885
		1886	// calibration voltage
		1887	SetDAC(fDAC_CALP, fCommonMode);
		1888	SetDAC(fDAC_CALN, fCommonMode);
		1889
		1890	// OUT- offset
		1891	SetDAC(fDAC_ONOFS, 1.25);
		1892
		1893	SetDAC(fDAC_BIAS, 0.70);
		1894
		1895	} else if (fBoardType == 6) {
		1896	// DRS4 Mezzanine Board 1.0
		1897
		1898	// set readout offset
		1899	fROFS = 1.6; // differential input range -0.5V ... +0.5V
		1900	fRange = 0;
		1901	SetDAC(fDAC_ROFS_1, fROFS);
		1902
		1903	// set common mode offset
		1904	fCommonMode = 0.8; // 0.8V +- 0.5V inside NMOS range
		1905	SetDAC(fDAC_CMOFSP, fCommonMode);
		1906	SetDAC(fDAC_CMOFSN, fCommonMode);
		1907
		1908	// calibration voltage
		1909	SetDAC(fDAC_CALN, fCommonMode);
		1910	SetDAC(fDAC_CALP, fCommonMode);
		1911
		1912	// OUT- offset
		1913	SetDAC(fDAC_ONOFS, 1.25);
		1914
		1915	SetDAC(fDAC_BIAS, 0.70);
		1916	} else if (fBoardType == 7) {
		1917	// DRS4 USB Evaluation 3.0
		1918
		1919	// set max. domino speed
		1920	SetDAC(fDAC_DSA, 2.5);
		1921
		1922	// set readout offset
		1923	fROFS = 1.6; // differential input range -0.5V ... +0.5V
		1924	fRange = 0;
		1925	SetDAC(fDAC_ROFS_1, fROFS);
		1926
		1927	// set common mode for THS4508
		1928	SetDAC(fDAC_CMOFS, 2.4);
		1929
		1930	// calibration voltage
		1931	fCommonMode = 0.8; // 0.8V +- 0.5V inside NMOS range
		1932	SetDAC(fDAC_CALP, fCommonMode);
		1933	SetDAC(fDAC_CALN, fCommonMode);
		1934
		1935	// OUT- offset
		1936	SetDAC(fDAC_ONOFS, 1.25);
		1937
		1938	SetDAC(fDAC_BIAS, 0.70);
		1939	} else if (fBoardType == 8 \|\| fBoardType == 9) {
		1940	// DRS4 USB Evaluation 4.0
		1941
		1942	// set readout offset
		1943	fROFS = 1.6; // differential input range -0.5V ... +0.5V
		1944	fRange = 0;
		1945	SetDAC(fDAC_ROFS_1, fROFS);
		1946
		1947	// calibration voltage
		1948	fCommonMode = 0.8; // 0.8V +- 0.5V inside NMOS range
		1949	SetDAC(fDAC_CALP, fCommonMode);
		1950	SetDAC(fDAC_CALN, fCommonMode);
		1951
		1952	SetDAC(fDAC_BIAS, 0.70);
		1953	}
		1954
		1955	/* set default number of channels per chip */
		1956	if (fDRSType == 4) {
		1957	if (fTransport == TR_USB2)
		1958	SetChannelConfig(0, fNumberOfReadoutChannels - 1, 8);
		1959	else
		1960	SetChannelConfig(7, fNumberOfReadoutChannels - 1, 8);
		1961	} else
		1962	SetChannelConfig(0, fNumberOfReadoutChannels - 1, 12);
		1963
		1964	// set ADC clock phase
		1965	if (fBoardType == 5 \|\| fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9) {
		1966	fADCClkPhase = 0;
		1967	fADCClkInvert = 0;
		1968	} else if (fBoardType == 6) {
		1969	fADCClkPhase = 65;
		1970	fADCClkInvert = 0;
		1971	}
		1972
		1973	// default settings
		1974	fMultiBuffer = 0;
		1975	fNMultiBuffer = 0;
		1976	fDominoMode = 1;
		1977	fReadoutMode = 1;
		1978	fReadPointer = 0;
		1979	fTriggerEnable1 = 0;
		1980	fTriggerEnable2 = 0;
		1981	fTriggerSource = 0;
		1982	fTriggerDelay = 0;
		1983	fTriggerDelayNs = 0;
		1984	fSyncDelay = 0;
		1985	fNominalFrequency = 1;
		1986	fDominoActive = 1;
		1987
		1988	// load calibration from EEPROM
		1989	ReadCalibration();
		1990
		1991	// get some settings from hardware
		1992	fRange = GetCalibratedInputRange();
		1993	if (fRange < 0 \|\| fRange > 0.5)
		1994	fRange = 0;
		1995	fNominalFrequency = GetCalibratedFrequency();
		1996	if (fNominalFrequency < 0.1 \|\| fNominalFrequency > 6)
		1997	fNominalFrequency = 1;
		1998
		1999
		2000	if (fHasMultiBuffer) {
		2001	SetMultiBuffer(fMultiBuffer);
		2002	SetMultiBufferRP(fReadPointer);
		2003	}
		2004	SetDominoMode(fDominoMode);
		2005	SetReadoutMode(fReadoutMode);
		2006	EnableTrigger(fTriggerEnable1, fTriggerEnable2);
		2007	SetTriggerSource(fTriggerSource);
		2008	SetTriggerDelayPercent(0);
		2009	SetSyncDelay(fSyncDelay);
		2010	SetDominoActive(fDominoActive);
		2011	SetFrequency(fNominalFrequency, true);
		2012	SetInputRange(fRange);
		2013	if (fBoardType == 5 \|\| fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9)
		2014	SelectClockSource(0); // FPGA clock
		2015	if (fBoardType == 6) {
		2016	SetADCClkPhase(fADCClkPhase, fADCClkInvert);
		2017	SetWarmup(0);
		2018	SetCooldown(100);
		2019	SetDecimation(0);
		2020	}
		2021
		2022	// disable calibration signals
		2023	EnableAcal(0, 0);
		2024	SetCalibTiming(0, 0);
		2025	EnableTcal(0);
		2026
		2027	// got to idle state
		2028	Reinit();
		2029
		2030	return 1;
		2031	}
		2032
		2033	/------------------------------------------------------------------/
		2034
		2035	int DRSBoard::SetDominoMode(unsigned char mode)
		2036	{
		2037	// Set domino mode
		2038	// mode == 0: single sweep
		2039	// mode == 1: run continously
		2040	//
		2041	fDominoMode = mode;
		2042
		2043	if (fDRSType == 4) {
		2044	unsigned short d;
		2045	Read(T_CTRL, &d, REG_CONFIG, 2);
		2046	fChannelConfig = d & 0xFF;
		2047
		2048	d = fChannelConfig \| (fDominoMode << 8) \| (1 << 9) \| (fWSRLoop << 10) \| (0xF8 << 8);
		2049	Write(T_CTRL, REG_CONFIG, &d, 2);
		2050	} else {
		2051	if (mode)
		2052	fCtrlBits \|= BIT_DMODE;
		2053	else
		2054	fCtrlBits &= ~BIT_DMODE;
		2055
		2056	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		2057	}
		2058
		2059	return 1;
		2060	}
		2061
		2062	/------------------------------------------------------------------/
		2063
		2064	int DRSBoard::SetDominoActive(unsigned char mode)
		2065	{
		2066	// Set domino activity
		2067	// mode == 0: stop during readout
		2068	// mode == 1: keep domino wave running
		2069	//
		2070	fDominoActive = mode;
		2071	if (mode)
		2072	fCtrlBits \|= BIT_DACTIVE;
		2073	else
		2074	fCtrlBits &= ~BIT_DACTIVE;
		2075
		2076	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		2077
		2078	return 1;
		2079	}
		2080
		2081	/------------------------------------------------------------------/
		2082
		2083	int DRSBoard::SetReadoutMode(unsigned char mode)
		2084	{
		2085	// Set readout mode
		2086	// mode == 0: start from first bin
		2087	// mode == 1: start from domino stop
		2088	//
		2089	fReadoutMode = mode;
		2090	if (mode)
		2091	fCtrlBits \|= BIT_READOUT_MODE;
		2092	else
		2093	fCtrlBits &= ~BIT_READOUT_MODE;
		2094
		2095	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		2096
		2097	return 1;
		2098	}
		2099
		2100	/------------------------------------------------------------------/
		2101
		2102	int DRSBoard::SoftTrigger(void)
		2103	{
		2104	// Send a software trigger
		2105	fCtrlBits \|= BIT_SOFT_TRIG;
		2106	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		2107	fCtrlBits &= ~BIT_SOFT_TRIG;
		2108
		2109	return 1;
		2110	}
		2111
		2112	/------------------------------------------------------------------/
		2113
		2114	int DRSBoard::EnableTrigger(int flag1, int flag2)
		2115	{
		2116	// Enable external trigger
		2117	fTriggerEnable1 = flag1;
		2118	fTriggerEnable2 = flag2;
		2119	if (flag1)
		2120	fCtrlBits \|= BIT_ENABLE_TRIGGER1;
		2121	else
		2122	fCtrlBits &= ~BIT_ENABLE_TRIGGER1;
		2123
		2124	if (flag2)
		2125	fCtrlBits \|= BIT_ENABLE_TRIGGER2;
		2126	else
		2127	fCtrlBits &= ~BIT_ENABLE_TRIGGER2;
		2128
		2129	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		2130
		2131	return 1;
		2132	}
		2133
		2134	/------------------------------------------------------------------/
		2135
		2136	int DRSBoard::SetDelayedTrigger(int flag)
		2137	{
		2138	// Select delayed trigger from trigger bus
		2139	if (flag)
		2140	fCtrlBits \|= BIT_TRIGGER_DELAYED;
		2141	else
		2142	fCtrlBits &= ~BIT_TRIGGER_DELAYED;
		2143
		2144	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		2145
		2146	return 1;
		2147	}
		2148
		2149	/------------------------------------------------------------------/
		2150
		2151	int DRSBoard::SetTriggerPolarity(bool negative)
		2152	{
		2153	if (fBoardType == 5 \|\| fBoardType == 7) {
		2154	fTcalLevel = negative;
		2155
		2156	if (negative)
		2157	fCtrlBits \|= BIT_NEG_TRIGGER;
		2158	else
		2159	fCtrlBits &= ~BIT_NEG_TRIGGER;
		2160
		2161	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		2162
		2163	return 1;
		2164	} else if (fBoardType == 8 \|\| fBoardType == 9) {
		2165	fTcalLevel = negative;
		2166
		2167	if (negative)
		2168	fCtrlBits \|= BIT_NEG_TRIGGER;
		2169	else
		2170	fCtrlBits &= ~BIT_NEG_TRIGGER;
		2171
		2172	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		2173	return 1;
		2174	}
		2175
		2176	return 0;
		2177	}
		2178
		2179	/------------------------------------------------------------------/
		2180
		2181	int DRSBoard::SetTriggerLevel(double voltage)
		2182	{
		2183	if (fBoardType == 5 \|\| fBoardType == 7) {
		2184	return SetDAC(fDAC_TLEVEL, voltage/2 + 0.8);
		2185	} else if (fBoardType == 8 \|\| fBoardType == 9) {
		2186	SetIndividualTriggerLevel(0, voltage);
		2187	SetIndividualTriggerLevel(1, voltage);
		2188	SetIndividualTriggerLevel(2, voltage);
		2189	SetIndividualTriggerLevel(3, voltage);
		2190	return 1;
		2191	}
		2192
		2193	return 0;
		2194	}
		2195
		2196	/------------------------------------------------------------------/
		2197
		2198	int DRSBoard::SetIndividualTriggerLevel(int channel, double voltage)
		2199	{
		2200	if (fBoardType == 8 \|\| fBoardType == 9) {
		2201	switch (channel) {
		2202	case 0: SetDAC(fDAC_TLEVEL1, voltage/2 + 0.8); break;
		2203	case 1: SetDAC(fDAC_TLEVEL2, voltage/2 + 0.8); break;
		2204	case 2: SetDAC(fDAC_TLEVEL3, voltage/2 + 0.8); break;
		2205	case 3: SetDAC(fDAC_TLEVEL4, voltage/2 + 0.8); break;
		2206	default: return -1;
		2207	}
		2208	}
		2209
		2210	return 0;
		2211	}
		2212
		2213	/------------------------------------------------------------------/
		2214
		2215	#define LUT_DELAY_S3_8 6.2 // Spartan 3 Octal LUTs 2 GSPS
		2216	#define LUT_DELAY_S3_4 2.1 // Spartan 3 Quad LUTs
		2217	#define LUT_DELAY_V2_8 4.6 // Virtex PRO II Octal LUTs
		2218	#define LUT_DELAY_V2_4 2.3 // Virtex PRO II Quad LUTs
		2219
		2220
		2221	int DRSBoard::SetTriggerDelayPercent(int delay)
		2222	/* set trigger delay in percent 0..100 */
		2223	{
		2224	short ticks, reg;
		2225	fTriggerDelay = delay;
		2226
		2227	if (fBoardType == 5 \|\| fBoardType == 6 \|\| fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9) {
		2228	// convert delay (0..100) into ticks
		2229	ticks = (unsigned short) (delay/100.0*255+0.5);
		2230	if (ticks > 255)
		2231	ticks = 255;
		2232	if (ticks < 0)
		2233	ticks = 0;
		2234
		2235	// convert delay into ns
		2236	if (fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9) {
		2237	if (fFirmwareVersion >= 17147)
		2238	fTriggerDelayNs = ticks * LUT_DELAY_S3_8;
		2239	else
		2240	fTriggerDelayNs = ticks * LUT_DELAY_S3_4;
		2241	} else {
		2242	if (fFirmwareVersion >= 17382)
		2243	fTriggerDelayNs = ticks * LUT_DELAY_V2_8;
		2244	else
		2245	fTriggerDelayNs = ticks * LUT_DELAY_V2_4;
		2246	}
		2247
		2248	// adjust for fixed delay, measured and approximated experimentally
		2249	fTriggerDelayNs += 23.5 + 28.2/fNominalFrequency;
		2250
		2251	Read(T_CTRL, &reg, REG_TRG_DELAY, 2);
		2252	reg = (reg & 0xFF00) \| ticks;
		2253	Write(T_CTRL, REG_TRG_DELAY, &ticks, 2);
		2254
		2255	return 1;
		2256	}
		2257
		2258	return 0;
		2259	}
		2260
		2261	/------------------------------------------------------------------/
		2262
		2263	int DRSBoard::SetTriggerDelayNs(int delay)
		2264	/* set trigger delay in nanoseconds */
		2265	{
		2266	short ticks, reg;
		2267	fTriggerDelayNs = delay;
		2268
		2269	if (fBoardType == 5 \|\| fBoardType == 6 \|\| fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9) {
		2270
		2271	// convert delay in ns into ticks
		2272	if (fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9) {
		2273	if (fFirmwareVersion >= 17147)
		2274	ticks = (short int)(delay / LUT_DELAY_S3_8 + 0.5);
		2275	else
		2276	ticks = (short int)(delay / LUT_DELAY_S3_4 + 0.5);
		2277	} else {
		2278	if (fFirmwareVersion >= 17382)
		2279	ticks = (short int)(delay / LUT_DELAY_V2_8 + 0.5);
		2280	else
		2281	ticks = (short int)(delay / LUT_DELAY_V2_4 + 0.5);
		2282	}
		2283
		2284	if (ticks > 255)
		2285	ticks = 255;
		2286	if (ticks < 0)
		2287	ticks = 0;
		2288
		2289	fTriggerDelay = ticks / 255 * 100;
		2290
		2291	Read(T_CTRL, &reg, REG_TRG_DELAY, 2);
		2292	reg = (reg & 0xFF00) \| ticks;
		2293	Write(T_CTRL, REG_TRG_DELAY, &ticks, 2);
		2294
		2295	return 1;
		2296	}
		2297
		2298	return 0;
		2299	}
		2300
		2301	/------------------------------------------------------------------/
		2302
		2303	int DRSBoard::SetSyncDelay(int ticks)
		2304	{
		2305	short int reg;
		2306
		2307	if (fBoardType == 5 \|\| fBoardType == 6 \|\| fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9) {
		2308	Read(T_CTRL, &reg, REG_TRG_DELAY, 2);
		2309	reg = (reg & 0xFF) \| (ticks << 8);
		2310	Write(T_CTRL, REG_TRG_DELAY, &reg, 2);
		2311
		2312	return 1;
		2313	}
		2314
		2315	return 0;
		2316	}
		2317
		2318	/------------------------------------------------------------------/
		2319
		2320	int DRSBoard::SetTriggerSource(int source)
		2321	{
		2322	short int reg;
		2323
		2324	fTriggerSource = source;
		2325	if (fBoardType == 5 \|\| fBoardType == 7) {
		2326	// Set trigger source
		2327	// 0=CH1, 1=CH2, 2=CH3, 3=CH4
		2328	if (source & 1)
		2329	fCtrlBits \|= BIT_TR_SOURCE1;
		2330	else
		2331	fCtrlBits &= ~BIT_TR_SOURCE1;
		2332	if (source & 2)
		2333	fCtrlBits \|= BIT_TR_SOURCE2;
		2334	else
		2335	fCtrlBits &= ~BIT_TR_SOURCE2;
		2336
		2337	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		2338	} else if (fBoardType == 8 \|\| fBoardType == 9) {
		2339	// Set trigger configuration
		2340	// OR Bit0=CH1, Bit1=CH2, Bit2=CH3, Bit3=CH4, Bit4=EXT
		2341	// AND Bit8=CH1, Bit9=CH2, Bit10=CH3, Bit11=CH4, Bit12=EXT
		2342	// TRANSP Bit15
		2343	reg = (unsigned short) source;
		2344	Write(T_CTRL, REG_TRG_CONFIG, &reg, 2);
		2345	}
		2346
		2347	return 1;
		2348	}
		2349
		2350	/------------------------------------------------------------------/
		2351
		2352	int DRSBoard::SetDelayedStart(int flag)
		2353	{
		2354	// Enable external trigger
		2355	fDelayedStart = flag;
		2356	if (flag)
		2357	fCtrlBits \|= BIT_DELAYED_START;
		2358	else
		2359	fCtrlBits &= ~BIT_DELAYED_START;
		2360
		2361	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		2362
		2363	return 1;
		2364	}
		2365
		2366	/------------------------------------------------------------------/
		2367
		2368	int DRSBoard::SetTranspMode(int flag)
		2369	{
		2370	// Enable/disable transparent mode
		2371	fTranspMode = flag;
		2372	if (flag)
		2373	fCtrlBits \|= BIT_TRANSP_MODE;
		2374	else
		2375	fCtrlBits &= ~BIT_TRANSP_MODE;
		2376
		2377	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		2378
		2379	return 1;
		2380	}
		2381
		2382	/------------------------------------------------------------------/
		2383
		2384	int DRSBoard::SetStandbyMode(int flag)
		2385	{
		2386	// Enable/disable standby mode
		2387	fTranspMode = flag;
		2388	if (flag)
		2389	fCtrlBits \|= BIT_STANDBY_MODE;
		2390	else
		2391	fCtrlBits &= ~BIT_STANDBY_MODE;
		2392
		2393	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		2394
		2395	return 1;
		2396	}
		2397
		2398	/------------------------------------------------------------------/
		2399
		2400	int DRSBoard::SetDecimation(int flag)
		2401	{
		2402	// Drop every odd sample
		2403	fDecimation = flag;
		2404	if (flag)
		2405	fCtrlBits \|= BIT_DECIMATION;
		2406	else
		2407	fCtrlBits &= ~BIT_DECIMATION;
		2408
		2409	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		2410
		2411	// Calculate channel depth
		2412	fChannelDepth = fChannelCascading * (fDecimation ? kNumberOfBins/2 : kNumberOfBins);
		2413
		2414	return 1;
		2415	}
		2416
		2417	/------------------------------------------------------------------/
		2418
		2419	int DRSBoard::IsBusy()
		2420	{
		2421	// Get running flag
		2422	unsigned int status;
		2423
		2424	Read(T_STATUS, &status, REG_STATUS, 4);
		2425	return (status & BIT_RUNNING) > 0;
		2426	}
		2427
		2428	/------------------------------------------------------------------/
		2429
		2430	int DRSBoard::IsEventAvailable()
		2431	{
		2432	if (!fMultiBuffer)
		2433	return !IsBusy();
		2434
		2435	return GetMultiBufferWP() != fReadPointer;
		2436	}
		2437
		2438	/------------------------------------------------------------------/
		2439
		2440	int DRSBoard::IsPLLLocked()
		2441	{
		2442	// Get running flag
		2443	unsigned int status;
		2444
		2445	Read(T_STATUS, &status, REG_STATUS, 4);
		2446	if (GetBoardType() == 6)
		2447	return ((status >> 1) & 0x0F) == 0x0F;
		2448	return (status & BIT_PLL_LOCKED0) > 0;
		2449	}
		2450
		2451	/------------------------------------------------------------------/
		2452
		2453	int DRSBoard::IsLMKLocked()
		2454	{
		2455	// Get running flag
		2456	unsigned int status;
		2457
		2458	Read(T_STATUS, &status, REG_STATUS, 4);
		2459	if (GetBoardType() == 6)
		2460	return (status & BIT_LMK_LOCKED) > 0;
		2461	return 0;
		2462	}
		2463
		2464	/------------------------------------------------------------------/
		2465
		2466	int DRSBoard::IsNewFreq(unsigned char chipIndex)
		2467	{
		2468	unsigned int status;
		2469
		2470	Read(T_STATUS, &status, REG_STATUS, 4);
		2471	if (chipIndex == 0)
		2472	return (status & BIT_NEW_FREQ1) > 0;
		2473	return (status & BIT_NEW_FREQ2) > 0;
		2474	}
		2475
		2476	/------------------------------------------------------------------/
		2477
		2478	int DRSBoard::ReadFrequency(unsigned char chipIndex, double *f)
		2479	{
		2480	if (fDRSType == 4) {
		2481
		2482	if (fBoardType == 6) {
		2483	*f = fNominalFrequency;
		2484	return 1;
		2485	}
		2486
		2487	unsigned short ticks;
		2488
		2489	Read(T_CTRL, &ticks, REG_FREQ_SET, 2);
		2490	ticks += 2;
		2491
		2492	/* convert rounded ticks back to frequency */
		2493	if (ticks > 2)
		2494	f = 1.024 / ticks fRefClock;
		2495	else
		2496	*f = 0;
		2497	} else {
		2498	// Read domino sampling frequency
		2499	unsigned char buffer[2];
		2500
		2501	if (chipIndex == 0)
		2502	Read(T_STATUS, buffer, REG_FREQ1, 2);
		2503	else
		2504	Read(T_STATUS, buffer, REG_FREQ2, 2);
		2505
		2506	*f = (static_cast < unsigned int >(buffer[1]) << 8) +buffer[0];
		2507
		2508	/* convert counts to frequency */
		2509	if (*f != 0)
		2510	f = 1024 200 * (32.768E6 * 4) / (*f) / 1E9;
		2511	}
		2512
		2513	return 1;
		2514	}
		2515
		2516	/------------------------------------------------------------------/
		2517
		2518	double DRSBoard::VoltToFreq(double volt)
		2519	{
		2520	if (fDRSType == 3) {
		2521	if (volt <= 1.2001)
		2522	return (volt - 0.6) / 0.2;
		2523	else
		2524	return 0.73 / 0.28 + sqrt((0.73 / 0.28) * (0.73 / 0.28) - 2.2 / 0.14 + volt / 0.14);
		2525	} else
		2526	return (volt - 0.5) / 0.2;
		2527	}
		2528
		2529	/------------------------------------------------------------------/
		2530
		2531	double DRSBoard::FreqToVolt(double freq)
		2532	{
		2533	if (fDRSType == 3) {
		2534	if (freq <= 3)
		2535	return 0.6 + 0.2 * freq;
		2536	else
		2537	return 2.2 - 0.73 * freq + 0.14 * freq * freq;
		2538	} else
		2539	return 0.55 + 0.25 * freq;
		2540	}
		2541
		2542	/------------------------------------------------------------------/
		2543
		2544	int DRSBoard::ConfigureLMK(double sampFreq, bool freqChange, int calFreq, int calPhase)
		2545	{
		2546	unsigned int data[] = { 0x80000100, // RESET=1
		2547	0x0007FF00, // CLKOUT0: EN=1, DIV=FF (=510) MUX=Div&Delay
		2548	0x00000101, // CLKOUT1: Disabled
		2549	0x0082000B, // R11: DIV4=0
		2550	0x028780AD, // R13: VCO settings
		2551	0x0830000E, // R14: PLL settings
		2552	0xC000000F }; // R15: PLL settings
		2553
		2554	/* calculate dividing ratio */
		2555	int divider, vco_divider, n_counter, r_counter;
		2556	unsigned int status;
		2557	double clk, vco;
		2558
		2559	if (fTransport == TR_USB2) {
		2560	/* 30 MHz clock */
		2561	data[4] = 0x028780AD; // R13 according to CodeLoader 4
		2562	clk = 30;
		2563	if (sampFreq < 1) {
		2564	r_counter = 1;
		2565	vco_divider = 8;
		2566	n_counter = 5;
		2567	} else {
		2568	r_counter = 1;
		2569	vco_divider = 5;
		2570	n_counter = 8;
		2571	}
		2572	} else {
		2573
		2574	if (fCtrlBits & BIT_REFCLK_SOURCE) {
		2575	/* 19.44 MHz clock */
		2576	data[4] = 0x0284C0AD; // R13 according to CodeLoader 4
		2577	clk = 19.44; // global clock through P2
		2578
		2579	r_counter = 2;
		2580	vco_divider = 8;
		2581	n_counter = 16;
		2582	} else {
		2583	/* 33 MHz clock */
		2584	data[4] = 0x028840AD; // R13 according to CodeLoader 4
		2585	clk = 33; // FPGA clock
		2586
		2587	r_counter = 2;
		2588	vco_divider = 8;
		2589	n_counter = 9;
		2590	}
		2591	}
		2592
		2593	vco = clk/r_countern_countervco_divider;
		2594	divider = (int) ((vco / vco_divider / (sampFreq/2.048) / 2.0) + 0.5);
		2595
		2596	/* return exact frequency */
		2597	fNominalFrequency = vco/vco_divider/(divider2)2.048;
		2598
		2599	/* return exact timing calibration frequency */
		2600	fTCALFrequency = vco/vco_divider;
		2601
		2602	/* change registers accordingly */
		2603	data[1] = 0x00070000 \| (divider << 8); // R0
		2604	data[5] = 0x0830000E \| (r_counter << 8); // R14
		2605	data[6] = 0xC000000F \| (n_counter << 8) \| (vco_divider << 26); // R15
		2606
		2607	/* enable TCA output if requested */
		2608	if (calFreq) {
		2609	if (calFreq == 1)
		2610	data[2] = 0x00050001 \| ( 1<<8) ; // 148.5 MHz (33 MHz PLL)
		2611	// 150 MHz (30 MHz PLL)
		2612	// 155.52 MHz (19.44 MHz PLL)
		2613	else if (calFreq == 2) {
		2614	data[2] = 0x00070001 \| ( 4<<8); // above values divided by 8
		2615	fTCALFrequency /= 8;
		2616	} else if (calFreq == 3) {
		2617	data[2] = 0x00070001 \| (255<<8); // above values divided by 510
		2618	fTCALFrequency /= 510;
		2619	}
		2620	}
		2621
		2622	/* set delay to adjsut phase */
		2623	if (calPhase > 0)
		2624	data[2] \|= (( calPhase & 0x0F) << 4);
		2625	else if (calPhase < 0)
		2626	data[1] \|= ((-calPhase & 0x0F) << 4);
		2627
		2628	if (freqChange) {
		2629	/* set all registers */
		2630	for (int i=0 ; i<(int)(sizeof(data)/sizeof(unsigned int)) ; i++) {
		2631	Write(T_CTRL, REG_LMK_LSB, &data[i], 2);
		2632	Write(T_CTRL, REG_LMK_MSB, ((char *)&data[i])+2, 2);
		2633	// poll on serial_busy flag
		2634	for (int j=0 ; j<100 ; j++) {
		2635	Read(T_STATUS, &status, REG_STATUS, 4);
		2636	if ((status & BIT_SERIAL_BUSY) == 0)
		2637	break;
		2638	}
		2639	}
		2640	} else {
		2641	/* only enable/disable timing calibration frequency */
		2642	Write(T_CTRL, REG_LMK_LSB, &data[1], 2);
		2643	Write(T_CTRL, REG_LMK_MSB, ((char *)&data[1])+2, 2);
		2644
		2645	/* poll on serial_busy flag */
		2646	for (int j=0 ; j<100 ; j++) {
		2647	Read(T_STATUS, &status, REG_STATUS, 4);
		2648	if ((status & BIT_SERIAL_BUSY) == 0)
		2649	break;
		2650	}
		2651
		2652	Write(T_CTRL, REG_LMK_LSB, &data[2], 2);
		2653	Write(T_CTRL, REG_LMK_MSB, ((char *)&data[2])+2, 2);
		2654
		2655	/* poll on serial_busy flag */
		2656	for (int j=0 ; j<100 ; j++) {
		2657	Read(T_STATUS, &status, REG_STATUS, 4);
		2658	if ((status & BIT_SERIAL_BUSY) == 0)
		2659	break;
		2660	}
		2661	}
		2662
		2663	return 1;
		2664	}
		2665
		2666	/------------------------------------------------------------------/
		2667
		2668	int DRSBoard::SetFrequency(double demand, bool wait)
		2669	{
		2670	// Set domino sampling frequency
		2671	double freq, voltage, delta_voltage;
		2672	unsigned short ticks;
		2673	int i, index, timeout;
		2674	int dominoModeSave = fDominoMode;
		2675	int triggerEnableSave1 = fTriggerEnable1;
		2676	int triggerEnableSave2 = fTriggerEnable2;
		2677
		2678	if (fDRSType == 4) {
		2679	/* allowed range is 100 MHz to 6 GHz */
		2680	if (demand > 6 \|\| demand < 0.1)
		2681	return 0;
		2682
		2683	if (fBoardType == 6) {
		2684	for (i=1 ; i<100 ; i++) {
		2685	ConfigureLMK(demand, true, fTcalFreq, fTcalPhase);
		2686	Sleep(10);
		2687	if (IsLMKLocked())
		2688	return 1;
		2689	printf("Re-start LMK in VME slot %2d %s\n",
		2690	(GetSlotNumber() >> 1)+2, ((GetSlotNumber() & 1) == 0) ? "upper" : "lower");
		2691	}
		2692	return 0;
		2693	}
		2694
		2695	/* convert frequency in GHz into ticks counted by reference clock */
		2696	if (demand == 0)
		2697	ticks = 0; // turn off frequency generation
		2698	else
		2699	ticks = static_cast < unsigned short >(1.024 / demand * fRefClock + 0.5);
		2700
		2701	ticks -= 2; // firmware counter need two additional clock cycles
		2702	Write(T_CTRL, REG_FREQ_SET, &ticks, 2);
		2703	ticks += 2;
		2704
		2705	/* convert rounded ticks back to frequency */
		2706	if (demand > 0)
		2707	demand = 1.024 / ticks * fRefClock;
		2708	fNominalFrequency = demand;
		2709
		2710	/* wait for PLL lock if asked */
		2711	if (wait) {
		2712	StartDomino();
		2713	for (i=0 ; i<1000 ; i++)
		2714	if (GetStatusReg() & BIT_PLL_LOCKED0)
		2715	break;
		2716	SoftTrigger();
		2717	if (i == 1000) {
		2718	printf("PLL did not lock for frequency %lf\n", demand);
		2719	return 0;
		2720	}
		2721	}
		2722	} else { // fDRSType == 4
		2723	SetDominoMode(1);
		2724	EnableTrigger(0, 0);
		2725	EnableAcal(0, 0);
		2726
		2727	fNominalFrequency = demand;
		2728
		2729	/* turn automatic adjustment off */
		2730	fCtrlBits &= ~BIT_FREQ_AUTO_ADJ;
		2731
		2732	/* disable external trigger */
		2733	fCtrlBits &= ~BIT_ENABLE_TRIGGER1;
		2734	fCtrlBits &= ~BIT_ENABLE_TRIGGER2;
		2735
		2736	/* set start pulse length for future DRSBoard_domino_start() */
		2737	if (fDRSType == 2) {
		2738	if (demand < 0.8)
		2739	fCtrlBits \|= BIT_LONG_START_PULSE;
		2740	else
		2741	fCtrlBits &= ~BIT_LONG_START_PULSE;
		2742
		2743	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		2744	}
		2745
		2746	/* stop any running domino wave */
		2747	Reinit();
		2748
		2749	/* estimate DAC setting */
		2750	voltage = FreqToVolt(demand);
		2751
		2752	SetDAC(fDAC_DSA, voltage);
		2753	SetDAC(fDAC_DSB, voltage);
		2754
		2755	/* wait until new DAC value has settled */
		2756	Sleep(10);
		2757
		2758	/* restart domino wave */
		2759	StartDomino();
		2760
		2761	ticks = static_cast < unsigned short >(1024 * 200 * (32.768E6 * 4) / demand / 1E9);
		2762
		2763	/* iterate over both DRS chips */
		2764	for (index = 0; index < 2; index++) {
		2765
		2766	/* starting voltage */
		2767	voltage = FreqToVolt(demand);
		2768
		2769	for (i = 0; i < 100; i++) {
		2770
		2771	/* wait until measurement finished */
		2772	for (timeout = 0; timeout < 1000; timeout++)
		2773	if (IsNewFreq(index))
		2774	break;
		2775
		2776	freq = 0;
		2777	if (timeout == 1000)
		2778	break;
		2779
		2780	ReadFrequency(index, &freq);
		2781
		2782	delta_voltage = FreqToVolt(demand) - FreqToVolt(freq);
		2783
		2784	if (fDebug) {
		2785	if (fabs(freq - demand) < 0.001)
		2786	printf("CHIP-%d, iter%3d: %1.5lf(%05d) %7.5lf\n", index, i, voltage,
		2787	static_cast < int >(voltage / 2.5 * 65535 + 0.5), freq);
		2788	else
		2789	printf("CHIP-%d, iter%3d: %1.5lf(%05d) %7.5lf %+5d\n", index, i, voltage,
		2790	static_cast < int >(voltage / 2.5 * 65535 + 0.5), freq,
		2791	static_cast < int >(delta_voltage / 2.5 * 65535 + 0.5));
		2792	}
		2793
		2794	if (fabs(freq - demand) < 0.001)
		2795	break;
		2796
		2797	voltage += delta_voltage;
		2798	if (voltage > 2.5)
		2799	voltage = 2.5;
		2800	if (voltage < 0)
		2801	voltage = 0;
		2802
		2803	if (freq == 0)
		2804	break;
		2805
		2806	if (index == 0)
		2807	SetDAC(fDAC_DSA, voltage);
		2808	else
		2809	SetDAC(fDAC_DSB, voltage);
		2810
		2811	Sleep(10);
		2812	}
		2813	if (i == 100 \|\| freq == 0 \|\| timeout == 1000) {
		2814	printf("Board %d --> Could not set frequency of CHIP-#%d to %1.3f GHz\n", GetBoardSerialNumber(),
		2815	index, demand);
		2816	return 0;
		2817	}
		2818	}
		2819
		2820	SetDominoMode(dominoModeSave);
		2821	EnableTrigger(triggerEnableSave1, triggerEnableSave2);
		2822	}
		2823
		2824	return 1;
		2825	}
		2826
		2827	/------------------------------------------------------------------/
		2828
		2829	int DRSBoard::RegulateFrequency(double demand)
		2830	{
		2831	// Set frequency regulation
		2832	unsigned short target, target_hi, target_lo;
		2833
		2834	if (demand < 0.42 \|\| demand > 5.2)
		2835	return 0;
		2836
		2837	fNominalFrequency = demand;
		2838
		2839	/* first iterate DAC value from host */
		2840	if (!SetFrequency(demand, true))
		2841	return 0;
		2842
		2843	/* convert frequency in GHz into counts for 200 cycles */
		2844	target = static_cast < unsigned short >(1024 * 200 * (32.768E6 * 4) / demand / 1E9);
		2845	target_hi = target + 6;
		2846	target_lo = target - 6;
		2847	Write(T_CTRL, REG_FREQ_SET_HI, &target_hi, 2);
		2848	Write(T_CTRL, REG_FREQ_SET_LO, &target_lo, 2);
		2849
		2850	/* turn on regulation */
		2851	fCtrlBits \|= BIT_FREQ_AUTO_ADJ;
		2852	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		2853
		2854	/* optional monitoring code ... */
		2855	#if 0
		2856	do {
		2857	double freq;
		2858	unsigned short dac, cnt;
		2859
		2860	ReadFrequency(0, &freq);
		2861
		2862	if (fBoardType == 1)
		2863	Read(T_STATUS, &dac, REG_RDAC3, 2);
		2864	else if (fBoardType == 2 \|\| fBoardType == 3)
		2865	Read(T_STATUS, &dac, REG_RDAC1, 2);
		2866
		2867	Read(T_STATUS, &cnt, REG_FREQ1, 2);
		2868
		2869	if (cnt < 65535)
		2870	printf("%5d %5d %5d %1.5lf\n", dac, target, cnt, freq);
		2871
		2872	Sleep(500);
		2873	} while (1);
		2874	#endif
		2875
		2876	return 1;
		2877	}
		2878
		2879	/------------------------------------------------------------------/
		2880
		2881	void DRSBoard::RegisterTest()
		2882	{
		2883	// Register test
		2884	#define N_REG 8
		2885
		2886	int i, n, n_err;
		2887	unsigned int buffer[N_REG], ret[N_REG];
		2888
		2889	/* test single register */
		2890	buffer[0] = 0x12345678;
		2891	Write(T_CTRL, 0, buffer, 4);
		2892	memset(ret, 0, sizeof(ret));
		2893	i = Read(T_CTRL, ret, 0, 4);
		2894	while (i != 4)
		2895	printf("Read error single register!\n");
		2896
		2897	printf("Reg.0: %08X - %08X\n", buffer[0], ret[0]);
		2898
		2899	n_err = 0;
		2900	for (n = 0; n < 100; n++) {
		2901	for (i = 0; i < N_REG; i++)
		2902	buffer[i] = (rand() << 16) \| rand();
		2903	Write(T_CTRL, 0, buffer, sizeof(buffer));
		2904
		2905	memset(ret, 0, sizeof(ret));
		2906	i = Read(T_CTRL, ret, 0, sizeof(ret));
		2907	while (i != sizeof(ret)) {
		2908	printf("Read error!\n");
		2909	return;
		2910	}
		2911
		2912	for (i = 0; i < N_REG; i++) {
		2913	if (n == 0)
		2914	printf("Reg.%d: %08X - %08X\n", i, buffer[i], ret[i]);
		2915	if (buffer[i] != ret[i]) {
		2916	n_err++;
		2917	}
		2918	}
		2919	}
		2920
		2921	printf("Register test: %d errors\n", n_err);
		2922	}
		2923
		2924	/------------------------------------------------------------------/
		2925
		2926	int DRSBoard::RAMTest(int flag)
		2927	{
		2928	#define MAX_N_BYTES 128*1024 // 128 kB
		2929
		2930	int i, j, n, bits, n_bytes, n_words, n_dwords;
		2931	unsigned int buffer[MAX_N_BYTES/4], ret[MAX_N_BYTES/4];
		2932	time_t now;
		2933
		2934	if (fBoardType == 6 && fTransport == TR_VME) {
		2935	bits = 32;
		2936	n_bytes = 128*1024; // test full 128 kB
		2937	n_words = n_bytes/2;
		2938	n_dwords = n_words/2;
		2939	} else {
		2940	bits = 24;
		2941	n_words = 9*1024;
		2942	n_bytes = n_words * 2;
		2943	n_dwords = n_words/2;
		2944	}
		2945
		2946	if (flag & 1) {
		2947	/* integrety test */
		2948	printf("Buffer size: %d (%1.1lfk)\n", n_words * 2, n_words * 2 / 1024.0);
		2949	if (flag & 1) {
		2950	for (i = 0; i < n_dwords; i++) {
		2951	if (bits == 24)
		2952	buffer[i] = (rand() \| rand() << 16) & 0x00FFFFFF; // random 24-bit values
		2953	else
		2954	buffer[i] = (rand() \| rand() << 16); // random 32-bit values
		2955	}
		2956
		2957	Reinit();
		2958	Write(T_RAM, 0, buffer, n_bytes);
		2959	memset(ret, 0, n_bytes);
		2960	Read(T_RAM, ret, 0, n_bytes);
		2961	Reinit();
		2962
		2963	for (i = n = 0; i < n_dwords; i++) {
		2964	if (buffer[i] != ret[i]) {
		2965	n++;
		2966	}
		2967	if (i < 10)
		2968	printf("written: %08X read: %08X\n", buffer[i], ret[i]);
		2969	}
		2970
		2971	printf("RAM test: %d errors\n", n);
		2972	}
		2973	}
		2974
		2975	/* speed test */
		2976	if (flag & 2) {
		2977	/* read continously to determine speed */
		2978	time(&now);
		2979	while (now == time(NULL));
		2980	time(&now);
		2981	i = n = 0;
		2982	do {
		2983	memset(ret, 0, n_bytes);
		2984
		2985	for (j = 0; j < 10; j++) {
		2986	Read(T_RAM, ret, 0, n_bytes);
		2987	i += n_bytes;
		2988	}
		2989
		2990	if (flag & 1) {
		2991	for (j = 0; j < n_dwords; j++)
		2992	if (buffer[j] != ret[j])
		2993	n++;
		2994	}
		2995
		2996	if (now != time(NULL)) {
		2997	if (flag & 1)
		2998	printf("%d read/sec, %1.2lf MB/sec, %d errors\n", static_cast < int >(i / n_bytes),
		2999	i / 1024.0 / 1024.0, n);
		3000	else
		3001	printf("%d read/sec, %1.2lf MB/sec\n", static_cast < int >(i / n_bytes),
		3002	i / 1024.0 / 1024.0);
		3003	time(&now);
		3004	i = 0;
		3005	}
		3006
		3007	if (drs_kbhit())
		3008	break;
		3009
		3010	} while (1);
		3011
		3012	while (drs_kbhit())
		3013	getch();
		3014	}
		3015
		3016	return 0;
		3017	}
		3018
		3019	/------------------------------------------------------------------/
		3020
		3021	int DRSBoard::ChipTest()
		3022	{
		3023	int i, j, t;
		3024	double freq, old_freq, min, max, mean, std;
		3025	float waveform[1024];
		3026
		3027	Init();
		3028	SetChannelConfig(0, 8, 8);
		3029	SetDominoMode(1);
		3030	SetReadoutMode(1);
		3031	SetDominoActive(1);
		3032	SetTranspMode(0);
		3033	EnableTrigger(0, 0);
		3034	EnableTcal(1, 0);
		3035	SelectClockSource(0);
		3036	EnableAcal(1, 0);
		3037
		3038	/* test 1 GHz */
		3039	SetFrequency(1, true);
		3040	StartDomino();
		3041	Sleep(100);
		3042	if (!(GetStatusReg() & BIT_PLL_LOCKED0)) {
		3043	puts("PLL did not lock at 1 GHz");
		3044	return 0;
		3045	}
		3046
		3047	/* test up to 6 GHz */
		3048	for (freq = 5 ; freq < 6 ; freq += 0.1) {
		3049	SetFrequency(freq, false);
		3050	Sleep(10);
		3051	if (!(GetStatusReg() & BIT_PLL_LOCKED0)) {
		3052	printf("Max. frequency is %1.1lf GHz\n", old_freq);
		3053	break;
		3054	}
		3055	ReadFrequency(0, &old_freq);
		3056	}
		3057
		3058	/* read and check at 0 calibration voltage */
		3059	SetFrequency(5, true);
		3060	Sleep(10);
		3061	SoftTrigger();
		3062	while (IsBusy());
		3063	TransferWaves(0, 8);
		3064
		3065	for (i=0 ; i<8 ; i++) {
		3066	t = GetStopCell(0);
		3067	GetWave(0, i, waveform, false, t, 0, false);
		3068	for (j=0 ; j<1024; j++)
		3069	if (waveform[j] < -100 \|\| waveform[j] > 100) {
		3070	if (j<5) {
		3071	/* skip this cells */
		3072	} else {
		3073	printf("Cell error on channel %d, cell %d: %1.1lf mV instead 0 mV\n", i, j, waveform[j]);
		3074	return 0;
		3075	}
		3076	}
		3077	}
		3078
		3079	/* read and check at +0.5V calibration voltage */
		3080	EnableAcal(1, 0.5);
		3081	StartDomino();
		3082	SoftTrigger();
		3083	while (IsBusy());
		3084	TransferWaves(0, 8);
		3085
		3086	for (i=0 ; i<8 ; i++) {
		3087	t = GetStopCell(0);
		3088	GetWave(0, i, waveform, false, t, 0, false);
		3089	for (j=0 ; j<1024; j++)
		3090	if (waveform[j] < 350) {
		3091	if (j<5) {
		3092	/* skip this cell */
		3093	} else {
		3094	printf("Cell error on channel %d, cell %d: %1.1lf mV instead 400 mV\n", i, j, waveform[j]);
		3095	return 0;
		3096	}
		3097	}
		3098	}
		3099
		3100	/* read and check at -0.5V calibration voltage */
		3101	EnableAcal(1, -0.5);
		3102	StartDomino();
		3103	Sleep(10);
		3104	SoftTrigger();
		3105	while (IsBusy());
		3106	TransferWaves(0, 8);
		3107
		3108	for (i=0 ; i<8 ; i++) {
		3109	t = GetStopCell(0);
		3110	GetWave(0, i, waveform, false, t, 0, false);
		3111	for (j=0 ; j<1024; j++)
		3112	if (waveform[j] > -350) {
		3113	if (j<5) {
		3114	/* skip this cell */
		3115	} else {
		3116	printf("Cell error on channel %d, cell %d: %1.1lf mV instead -400mV\n", i, j, waveform[j]);
		3117	return 0;
		3118	}
		3119	}
		3120	}
		3121
		3122	/* check clock channel */
		3123	GetWave(0, 8, waveform, false, 0, 0);
		3124	min = max = mean = std = 0;
		3125	for (j=0 ; j<1024 ; j++) {
		3126	if (waveform[j] > max)
		3127	max = waveform[j];
		3128	if (waveform[j] < min)
		3129	min = waveform[j];
		3130	mean += waveform[j];
		3131	}
		3132	mean /= 1024.0;
		3133	for (j=0 ; j<1024 ; j++)
		3134	std += (waveform[j] - mean) * (waveform[j] - mean);
		3135	std = sqrt(std/1024);
		3136
		3137	if (max - min < 400) {
		3138	printf("Error on clock channel amplitude: %1.1lf mV\n", max-min);
		3139	return 0;
		3140	}
		3141
		3142	if (std < 100 \|\| std > 300) {
		3143	printf("Error on clock channel Std: %1.1lf mV\n", std);
		3144	return 0;
		3145	}
		3146
		3147	return 1;
		3148	}
		3149
		3150	/------------------------------------------------------------------/
		3151
		3152	void DRSBoard::SetVoltageOffset(double offset1, double offset2)
		3153	{
		3154	if (fDRSType == 3) {
		3155	SetDAC(fDAC_ROFS_1, 0.95 - offset1);
		3156	SetDAC(fDAC_ROFS_2, 0.95 - offset2);
		3157	} else if (fDRSType == 2)
		3158	SetDAC(fDAC_COFS, 0.9 - offset1);
		3159
		3160	// let DAC settle
		3161	Sleep(100);
		3162	}
		3163
		3164	/------------------------------------------------------------------/
		3165
		3166	int DRSBoard::SetInputRange(double center)
		3167	{
		3168	if (fBoardType == 5 \|\| fBoardType == 6 \|\| fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9) {
		3169	// DRS4 USB Evaluation Boards + Mezzanine Board
		3170
		3171	// only allow -0.5...0.5 to 0...1.0
		3172	if (center < 0 \|\| center > 0.5)
		3173	return 0;
		3174
		3175	// remember range
		3176	fRange = center;
		3177
		3178	// correct for sampling cell charge injection
		3179	center *= 1.125;
		3180
		3181	// set readout offset
		3182	fROFS = 1.6 - center;
		3183	SetDAC(fDAC_ROFS_1, fROFS);
		3184	}
		3185
		3186	return 1;
		3187	}
		3188
		3189	/------------------------------------------------------------------/
		3190
		3191	int DRSBoard::SetExternalClockFrequency(double frequencyMHz)
		3192	{
		3193	// Set the frequency of the external clock
		3194	fExternalClockFrequency = frequencyMHz;
		3195	return 0;
		3196	}
		3197
		3198	/------------------------------------------------------------------/
		3199
		3200	double DRSBoard::GetExternalClockFrequency()
		3201	{
		3202	// Return the frequency of the external clock
		3203	return fExternalClockFrequency;
		3204	}
		3205
		3206	/------------------------------------------------------------------/
		3207
		3208	int DRSBoard::SetMultiBuffer(int flag)
		3209	{
		3210	if (fHasMultiBuffer) {
		3211	// Enable/disable multi-buffering
		3212	fMultiBuffer = flag;
		3213	if (flag)
		3214	fCtrlBits \|= BIT_MULTI_BUFFER;
		3215	else
		3216	fCtrlBits &= ~BIT_MULTI_BUFFER;
		3217
		3218	if (flag) {
		3219	if (fBoardType == 6)
		3220	fNMultiBuffer = 3; // 3 buffers for VME board
		3221	} else
		3222	fNMultiBuffer = 0;
		3223
		3224	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		3225	}
		3226	return 1;
		3227	}
		3228
		3229	/------------------------------------------------------------------/
		3230
		3231	void DRSBoard::ResetMultiBuffer(void)
		3232	{
		3233	Reinit(); // set WP=0
		3234	fReadPointer = 0;
		3235	}
		3236
		3237	/------------------------------------------------------------------/
		3238
		3239	int DRSBoard::GetMultiBufferRP(void)
		3240	{
		3241	return fReadPointer;
		3242	}
		3243
		3244	/------------------------------------------------------------------/
		3245
		3246	int DRSBoard::SetMultiBufferRP(unsigned short rp)
		3247	{
		3248	if (fHasMultiBuffer) {
		3249	fReadPointer = rp;
		3250	Write(T_CTRL, REG_READ_POINTER, &rp, 2);
		3251	}
		3252	return 1;
		3253	}
		3254
		3255	/------------------------------------------------------------------/
		3256
		3257	int DRSBoard::GetMultiBufferWP(void)
		3258	{
		3259	unsigned short wp = 0;
		3260
		3261	if (fHasMultiBuffer)
		3262	Read(T_STATUS, &wp, REG_WRITE_POINTER, 2);
		3263	else
		3264	wp = 0;
		3265	return wp;
		3266	}
		3267
		3268	/------------------------------------------------------------------/
		3269
		3270	void DRSBoard::IncrementMultiBufferRP()
		3271	{
		3272	if (fHasMultiBuffer && fMultiBuffer)
		3273	SetMultiBufferRP((fReadPointer + 1) % fNMultiBuffer);
		3274	}
		3275
		3276	/------------------------------------------------------------------/
		3277
		3278	int DRSBoard::TransferWaves(int numberOfChannels)
		3279	{
		3280	return TransferWaves(fWaveforms, numberOfChannels);
		3281	}
		3282
		3283	/------------------------------------------------------------------/
		3284
		3285	int DRSBoard::TransferWaves(unsigned char *p, int numberOfChannels)
		3286	{
		3287	return TransferWaves(p, 0, numberOfChannels - 1);
		3288	}
		3289
		3290	/------------------------------------------------------------------/
		3291
		3292	int DRSBoard::TransferWaves(int firstChannel, int lastChannel)
		3293	{
		3294	int offset;
		3295
		3296	if (fTransport == TR_USB)
		3297	offset = firstChannel * sizeof(short int) * kNumberOfBins;
		3298	else
		3299	offset = 0; //in VME and USB2, always start from zero
		3300
		3301	return TransferWaves(fWaveforms + offset, firstChannel, lastChannel);
		3302	}
		3303
		3304	/------------------------------------------------------------------/
		3305
		3306	int DRSBoard::TransferWaves(unsigned char *p, int firstChannel, int lastChannel)
		3307	{
		3308	// Transfer all waveforms at once from VME or USB to location
		3309	int n, i, offset, n_requested, n_bins;
		3310	unsigned int dw;
		3311	unsigned short w;
		3312	unsigned char *ptr;
		3313
		3314	if (lastChannel >= fNumberOfChips * fNumberOfChannels)
		3315	lastChannel = fNumberOfChips * fNumberOfChannels - 1;
		3316	if (lastChannel < 0) {
		3317	printf("Error: Invalid channel index %d\n", lastChannel);
		3318	return 0;
		3319	}
		3320
		3321	if (firstChannel < 0 \|\| firstChannel > fNumberOfChips * fNumberOfChannels) {
		3322	printf("Error: Invalid channel index %d\n", firstChannel);
		3323	return 0;
		3324	}
		3325
		3326	if (fTransport == TR_VME) {
		3327	/* in VME, always transfer all waveforms, since channels sit 'next' to each other */
		3328	firstChannel = 0;
		3329	lastChannel = fNumberOfChips * fNumberOfChannels - 1;
		3330	if (fReadoutChannelConfig == 4)
		3331	lastChannel = fNumberOfChips * 5 - 1; // special mode to read only even channels + clock
		3332	}
		3333
		3334	else if (fTransport == TR_USB2) {
		3335	/* USB2 FPGA contains 9 (Eval) or 10 (Mezz) channels */
		3336	firstChannel = 0;
		3337	if (fBoardType == 5 \|\| fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9)
		3338	lastChannel = 8;
		3339	else if (fBoardType == 6)
		3340	lastChannel = 9;
		3341	}
		3342
		3343	else if (fTransport == TR_USB) {
		3344	/* USB1 FPGA contains only 16 channels */
		3345	if (lastChannel > 15)
		3346	lastChannel = 15;
		3347	}
		3348
		3349	n_bins = fDecimation ? kNumberOfBins/2 : kNumberOfBins;
		3350	n_requested = (lastChannel - firstChannel + 1) * sizeof(short int) * n_bins;
		3351	offset = firstChannel * sizeof(short int) * n_bins;
		3352
		3353	if (fBoardType == 6 && fFirmwareVersion >= 17147)
		3354	n_requested += 16; // add trailer four chips
		3355
		3356	if ((fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9) && fFirmwareVersion >= 17147)
		3357	n_requested += 4; // add trailer one chip
		3358
		3359	if (fMultiBuffer)
		3360	offset += n_requested * fReadPointer;
		3361
		3362	n = Read(T_RAM, p, offset, n_requested);
		3363
		3364	if (fMultiBuffer)
		3365	IncrementMultiBufferRP();
		3366
		3367	if (n != n_requested) {
		3368	printf("Error: only %d bytes read instead of %d\n", n, n_requested);
		3369	return n;
		3370	}
		3371
		3372	// read trigger cells
		3373	if (fDRSType == 4) {
		3374	if (fBoardType == 5 \|\| fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9) {
		3375	if ((fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9) && fFirmwareVersion >= 17147) {
		3376	// new code reading trailer
		3377	ptr = p + n_requested - 4;
		3378	fStopCell[0] = ((unsigned short )(ptr));
		3379	fStopWSR[0] = *(ptr + 2);
		3380	} else {
		3381	// old code reading status register
		3382	Read(T_STATUS, fStopCell, REG_STOP_CELL0, 2);
		3383	Read(T_STATUS, &w, REG_STOP_WSR0, 2);
		3384	fStopWSR[0] = (w >> 8) & 0xFFFF;
		3385	}
		3386	} else {
		3387
		3388	if (fBoardType == 6) {
		3389	// new code reading trailer
		3390	ptr = p + n_requested - 16;
		3391	for (i=0 ; i<4 ; i++) {
		3392	fStopCell[i] = ((unsigned short )(ptr + i*2));
		3393	fStopWSR[i] = *(ptr + 8 + i);
		3394	}
		3395	fTriggerBus = ((unsigned short )(ptr + 12));
		3396	} else {
		3397	// old code reading registers
		3398	Read(T_STATUS, &dw, REG_STOP_CELL0, 4);
		3399	fStopCell[0] = (dw >> 16) & 0xFFFF;
		3400	fStopCell[1] = (dw >> 0) & 0xFFFF;
		3401	Read(T_STATUS, &dw, REG_STOP_CELL2, 4);
		3402	fStopCell[2] = (dw >> 16) & 0xFFFF;
		3403	fStopCell[3] = (dw >> 0) & 0xFFFF;
		3404
		3405	Read(T_STATUS, &dw, REG_STOP_WSR0, 4);
		3406	fStopWSR[0] = (dw >> 24) & 0xFF;
		3407	fStopWSR[1] = (dw >> 16) & 0xFF;
		3408	fStopWSR[2] = (dw >> 8) & 0xFF;
		3409	fStopWSR[3] = (dw >> 0) & 0xFF;
		3410
		3411	Read(T_STATUS, &fTriggerBus, REG_TRIGGER_BUS, 2);
		3412	}
		3413	}
		3414	}
		3415
		3416	return n;
		3417	}
		3418
		3419	/------------------------------------------------------------------/
		3420
		3421	int DRSBoard::DecodeWave(unsigned int chipIndex, unsigned char channel, unsigned short *waveform)
		3422	{
		3423	return DecodeWave(fWaveforms, chipIndex, channel, waveform);
		3424	}
		3425
		3426	/------------------------------------------------------------------/
		3427
		3428	int DRSBoard::DecodeWave(unsigned char *waveforms, unsigned int chipIndex, unsigned char channel,
		3429	unsigned short *waveform)
		3430	{
		3431	// Get waveform
		3432	int i, offset=0, ind, n_bins;
		3433
		3434	/* check valid parameters */
		3435	assert((int)channel < fNumberOfChannels);
		3436	assert((int)chipIndex < fNumberOfChips);
		3437
		3438	/* remap channel */
		3439	if (fBoardType == 1) {
		3440	if (channel < 8)
		3441	channel = 7 - channel;
		3442	else
		3443	channel = 16 - channel;
		3444	} else if (fBoardType == 6) {
		3445	if (fReadoutChannelConfig == 7) {
		3446	if (channel < 8)
		3447	channel = 7-channel;
		3448	} else if (fReadoutChannelConfig == 4) {
		3449	if (channel == 8)
		3450	channel = 4;
		3451	else
		3452	channel = 3 - channel/2;
		3453	} else {
		3454	channel = channel / 2;
		3455	if (channel != 4)
		3456	channel = 3-channel;
		3457	}
		3458	} /* else
		3459	channel = channel; */
		3460
		3461	// Read channel
		3462	if (fTransport == TR_USB) {
		3463	offset = kNumberOfBins * 2 * (chipIndex * 16 + channel);
		3464	for (i = 0; i < kNumberOfBins; i++) {
		3465	// 12-bit data
		3466	waveform[i] = ((waveforms[i * 2 + 1 + offset] & 0x0f) << 8) + waveforms[i * 2 + offset];
		3467	}
		3468	} else if (fTransport == TR_USB2) {
		3469
		3470	if (fBoardType == 5 \|\| fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9)
		3471	// see dpram_map_eval1.xls
		3472	offset = kNumberOfBins * 2 * (chipIndex * 16 + channel);
		3473	else if (fBoardType == 6) {
		3474	// see dpram_map_mezz1.xls mode 0-3
		3475	offset = (kNumberOfBins * 4) * (channel % 9) + 2 * (chipIndex/2);
		3476	}
		3477	for (i = 0; i < kNumberOfBins; i++) {
		3478	// 16-bit data
		3479	if (fBoardType == 5 \|\| fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9)
		3480	waveform[i] = ((waveforms[i * 2 + 1 + offset] & 0xff) << 8) + waveforms[i * 2 + offset];
		3481	else if (fBoardType == 6)
		3482	waveform[i] = ((waveforms[i * 4 + 1 + offset] & 0xff) << 8) + waveforms[i * 4 + offset];
		3483	}
		3484
		3485	} else if (fTransport == TR_VME) {
		3486
		3487	if (fBoardType == 6) {
		3488	n_bins = fDecimation ? kNumberOfBins/2 : kNumberOfBins;
		3489	if (fReadoutChannelConfig == 7) // see dpram_map_mezz1.xls mode 7
		3490	offset = (n_bins * 4) * (channel % 9 + 9(chipIndex % 2)) + 2 (chipIndex/2);
		3491	else if (fReadoutChannelConfig == 4) // see dpram_map_mezz1.xls mode 4
		3492	offset = (n_bins * 4) * (channel % 5 + 5(chipIndex % 2)) + 2 (chipIndex/2);
		3493	for (i = 0; i < n_bins; i++)
		3494	waveform[i] = ((waveforms[i * 4 + 1 + offset] & 0xff) << 8) + waveforms[i * 4 + offset];
		3495	} else {
		3496	offset = (kNumberOfBins * 4) * channel;
		3497	for (i = 0; i < kNumberOfBins; i++) {
		3498	ind = i * 4 + offset;
		3499	if (chipIndex == 0)
		3500	// lower 12 bit
		3501	waveform[i] = ((waveforms[ind + 1] & 0x0f) << 8) \| waveforms[ind];
		3502	else
		3503	// upper 12 bit
		3504	waveform[i] = (waveforms[ind + 2] << 4) \| (waveforms[ind + 1] >> 4);
		3505	}
		3506	}
		3507	} else {
		3508	printf("Error: invalid transport %d\n", fTransport);
		3509	return kInvalidTransport;
		3510	}
		3511	return kSuccess;
		3512	}
		3513
		3514	/------------------------------------------------------------------/
		3515
		3516	int DRSBoard::GetWave(unsigned int chipIndex, unsigned char channel, float *waveform)
		3517	{
		3518	return GetWave(chipIndex, channel, waveform, true, fStopCell[chipIndex], -1, false, 0, true);
		3519	}
		3520
		3521	/------------------------------------------------------------------/
		3522
		3523	int DRSBoard::GetWave(unsigned int chipIndex, unsigned char channel, short *waveform, bool responseCalib,
		3524	int triggerCell, int wsr, bool adjustToClock, float threshold, bool offsetCalib)
		3525	{
		3526	return GetWave(fWaveforms, chipIndex, channel, waveform, responseCalib, triggerCell, wsr, adjustToClock,
		3527	threshold, offsetCalib);
		3528	}
		3529
		3530	/------------------------------------------------------------------/
		3531
		3532	int DRSBoard::GetWave(unsigned int chipIndex, unsigned char channel, float *waveform, bool responseCalib,
		3533	int triggerCell, int wsr, bool adjustToClock, float threshold, bool offsetCalib)
		3534	{
		3535	return GetWave(fWaveforms, chipIndex, channel, waveform, responseCalib, triggerCell, wsr, adjustToClock, threshold,
		3536	offsetCalib);
		3537	}
		3538
		3539	/------------------------------------------------------------------/
		3540
		3541	int DRSBoard::GetWave(unsigned char *waveforms, unsigned int chipIndex, unsigned char channel,
		3542	float *waveform, bool responseCalib, int triggerCell, int wsr, bool adjustToClock,
		3543	float threshold, bool offsetCalib)
		3544	{
		3545	int ret, i;
		3546	short waveS[2*kNumberOfBins];
		3547	ret =
		3548	GetWave(waveforms, chipIndex, channel, waveS, responseCalib, triggerCell, wsr, adjustToClock, threshold,
		3549	offsetCalib);
		3550	if (responseCalib)
		3551	for (i = 0; i < fChannelDepth ; i++)
		3552	waveform[i] = static_cast < float >(static_cast <short> (waveS[i]) * GetPrecision());
		3553	else {
		3554	for (i = 0; i < fChannelDepth ; i++) {
		3555	if (fBoardType == 4 \|\| fBoardType == 5 \|\| fBoardType == 6 \|\| fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9) {
		3556	waveform[i] = static_cast < float >(waveS[i] * GetPrecision());
		3557	} else
		3558	waveform[i] = static_cast < float >(waveS[i]);
		3559	}
		3560	}
		3561	return ret;
		3562	}
		3563
		3564	/------------------------------------------------------------------/
		3565
		3566	int DRSBoard::GetWave(unsigned char *waveforms, unsigned int chipIndex, unsigned char channel,
		3567	short *waveform, bool responseCalib, int triggerCell, int wsr, bool adjustToClock,
		3568	float threshold, bool offsetCalib)
		3569	{
		3570	unsigned short adcWaveform[kNumberOfBins];
		3571	int i, ret;
		3572
		3573	if (fChannelCascading == 1 \|\| channel == 8) {
		3574	/* single channel configuration */
		3575	ret = DecodeWave(waveforms, chipIndex, channel, adcWaveform);
		3576	if (ret != kSuccess)
		3577	return ret;
		3578
		3579	ret = CalibrateWaveform(chipIndex, channel, adcWaveform, waveform, responseCalib,
		3580	triggerCell, adjustToClock, threshold, offsetCalib);
		3581
		3582	return ret;
		3583	} else if (fChannelCascading == 2) {
		3584	/* double channel configuration */
		3585	short wf1[kNumberOfBins];
		3586	short wf2[kNumberOfBins];
		3587
		3588	// first half
		3589	ret = DecodeWave(waveforms, chipIndex, 2*channel, adcWaveform);
		3590	if (ret != kSuccess)
		3591	return ret;
		3592
		3593	ret = CalibrateWaveform(chipIndex, 2*channel, adcWaveform, wf1, responseCalib,
		3594	triggerCell, adjustToClock, threshold, offsetCalib);
		3595
		3596	// second half
		3597	ret = DecodeWave(waveforms, chipIndex, 2*channel+1, adcWaveform);
		3598	if (ret != kSuccess)
		3599	return ret;
		3600
		3601	ret = CalibrateWaveform(chipIndex, 2*channel+1, adcWaveform, wf2, responseCalib,
		3602	triggerCell, adjustToClock, threshold, offsetCalib);
		3603
		3604
		3605	// combine two halfs correctly, see 2048_mode.ppt
		3606	if (fBoardType == 5 \|\| fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9) {
		3607	if ((wsr == 0 && triggerCell < 767) \|\|
		3608	(wsr == 1 && triggerCell >= 767)) {
		3609	for (i=0 ; i<kNumberOfBins-triggerCell ; i++)
		3610	waveform[i] = wf1[i];
		3611	for (; i<kNumberOfBins; i++)
		3612	waveform[i] = wf2[i];
		3613	for (i=0 ; i<kNumberOfBins-triggerCell ; i++)
		3614	waveform[i+kNumberOfBins] = wf2[i];
		3615	for (; i<kNumberOfBins; i++)
		3616	waveform[i+kNumberOfBins] = wf1[i];
		3617	} else {
		3618	for (i=0 ; i<kNumberOfBins-triggerCell ; i++)
		3619	waveform[i] = wf2[i];
		3620	for (; i<kNumberOfBins; i++)
		3621	waveform[i] = wf1[i];
		3622	for (i=0 ; i<kNumberOfBins-triggerCell ; i++)
		3623	waveform[i+kNumberOfBins] = wf1[i];
		3624	for (; i<kNumberOfBins; i++)
		3625	waveform[i+kNumberOfBins] = wf2[i];
		3626	}
		3627	} else {
		3628	if (wsr == 1) {
		3629	if (fDecimation) {
		3630	for (i=0 ; i<kNumberOfBins/2-triggerCell/2 ; i++)
		3631	waveform[i] = wf1[i];
		3632	for (; i<kNumberOfBins/2; i++)
		3633	waveform[i] = wf2[i];
		3634	for (i=0 ; i<kNumberOfBins/2-triggerCell/2 ; i++)
		3635	waveform[i+kNumberOfBins/2] = wf2[i];
		3636	for (; i<kNumberOfBins/2; i++)
		3637	waveform[i+kNumberOfBins/2] = wf1[i];
		3638	} else {
		3639	for (i=0 ; i<kNumberOfBins-triggerCell ; i++)
		3640	waveform[i] = wf1[i];
		3641	for (; i<kNumberOfBins; i++)
		3642	waveform[i] = wf2[i];
		3643	for (i=0 ; i<kNumberOfBins-triggerCell ; i++)
		3644	waveform[i+kNumberOfBins] = wf2[i];
		3645	for (; i<kNumberOfBins; i++)
		3646	waveform[i+kNumberOfBins] = wf1[i];
		3647	}
		3648	} else {
		3649	if (fDecimation) {
		3650	for (i=0 ; i<kNumberOfBins/2-triggerCell/2 ; i++)
		3651	waveform[i] = wf2[i];
		3652	for (; i<kNumberOfBins/2; i++)
		3653	waveform[i] = wf1[i];
		3654	for (i=0 ; i<kNumberOfBins/2-triggerCell/2 ; i++)
		3655	waveform[i+kNumberOfBins/2] = wf1[i];
		3656	for (; i<kNumberOfBins/2; i++)
		3657	waveform[i+kNumberOfBins/2] = wf2[i];
		3658	} else {
		3659	for (i=0 ; i<kNumberOfBins-triggerCell ; i++)
		3660	waveform[i] = wf2[i];
		3661	for (; i<kNumberOfBins; i++)
		3662	waveform[i] = wf1[i];
		3663	for (i=0 ; i<kNumberOfBins-triggerCell ; i++)
		3664	waveform[i+kNumberOfBins] = wf1[i];
		3665	for (; i<kNumberOfBins; i++)
		3666	waveform[i+kNumberOfBins] = wf2[i];
		3667	}
		3668	}
		3669	}
		3670
		3671	return ret;
		3672	} else
		3673	assert(!"Not implemented");
		3674
		3675	return 0;
		3676	}
		3677
		3678	/------------------------------------------------------------------/
		3679
		3680	int DRSBoard::GetRawWave(unsigned int chipIndex, unsigned char channel, unsigned short *waveform,
		3681	bool adjustToClock)
		3682	{
		3683	return GetRawWave(fWaveforms, chipIndex, channel, waveform, adjustToClock);
		3684	}
		3685
		3686	/------------------------------------------------------------------/
		3687
		3688	int DRSBoard::GetRawWave(unsigned char *waveforms, unsigned int chipIndex, unsigned char channel,
		3689	unsigned short *waveform, bool adjustToClock)
		3690	{
		3691	int i, status, tc;
		3692	unsigned short wf[kNumberOfBins];
		3693
		3694	status = DecodeWave(waveforms, chipIndex, channel, wf);
		3695
		3696	if (adjustToClock) {
		3697	tc = GetTriggerCell(chipIndex);
		3698	for (i = 0 ; i < kNumberOfBins; i++)
		3699	waveform[(i + tc) % kNumberOfBins] = wf[i];
		3700	} else {
		3701	for (i = 0 ; i < kNumberOfBins; i++)
		3702	waveform[i] = wf[i];
		3703	}
		3704
		3705	return status;
		3706	}
		3707
		3708	/------------------------------------------------------------------/
		3709
		3710	int DRSBoard::CalibrateWaveform(unsigned int chipIndex, unsigned char channel, unsigned short *adcWaveform,
		3711	short *waveform, bool responseCalib,
		3712	int triggerCell, bool adjustToClock, float threshold, bool offsetCalib)
		3713	{
		3714	int j, n_bins, skip;
		3715	double value;
		3716	short left, right;
		3717
		3718	// calibrate waveform
		3719	if (responseCalib && fVoltageCalibrationValid) {
		3720	if (GetDRSType() == 4) {
		3721	// if Mezz though USB2 -> select correct calibration channel
		3722	if (fBoardType == 6 && (fReadoutChannelConfig == 0 \|\| fReadoutChannelConfig == 2) &&
		3723	channel != 8)
		3724	channel++;
		3725
		3726	// Channel readout mode #4 -> select correct calibration channel
		3727	if (fBoardType == 6 && fReadoutChannelConfig == 4 && channel % 2 == 0 && channel != 8)
		3728	channel++;
		3729
		3730	n_bins = fDecimation ? kNumberOfBins/2 : kNumberOfBins;
		3731	skip = fDecimation ? 2 : 1;
		3732	for (j = 0; j < n_bins; j++) {
		3733	value = adcWaveform[j] - fCellOffset[channel+chipIndex9][(jskip + triggerCell) % kNumberOfBins];
		3734	value = value / fCellGain[channel+chipIndex9][(jskip + triggerCell) % kNumberOfBins];
		3735	if (offsetCalib && channel != 8)
		3736	value = value - fCellOffset2[channel+chipIndex9][jskip] + 32768;
		3737
		3738	/* convert to units of 0.1 mV */
		3739	value = value / 65536.0 * 1000 * 10;
		3740
		3741	/* apply clipping */
		3742	if (channel != 8) {
		3743	if (adcWaveform[j] >= 0xFFF0 \|\| value > (fRange * 1000 + 500) * 10)
		3744	value = (fRange * 1000 + 500) * 10;
		3745	if (adcWaveform[j] < 0x0010 \|\| value < (fRange * 1000 - 500) * 10)
		3746	value = (fRange * 1000 - 500) * 10;
		3747	}
		3748
		3749	if (adjustToClock)
		3750	waveform[(j + triggerCell) % kNumberOfBins] = (short) (value + 0.5);
		3751	else
		3752	waveform[j] = (short) (value + 0.5);
		3753	}
		3754
		3755	// check for stuck pixels and replace by average of neighbors
		3756	for (j = 0 ; j < n_bins; j++) {
		3757	if (adjustToClock) {
		3758	if (fCellOffset[channel+chipIndex9][jskip] == 0) {
		3759	left = waveform[(j-1+kNumberOfBins) % kNumberOfBins];
		3760	right = waveform[(j+1) % kNumberOfBins];
		3761	waveform[j] = (short) ((left+right)/2);
		3762	}
		3763	} else {
		3764	if (fCellOffset[channel+chipIndex9][(jskip + triggerCell) % kNumberOfBins] == 0) {
		3765	left = waveform[(j-1+kNumberOfBins) % kNumberOfBins];
		3766	right = waveform[(j+1) % kNumberOfBins];
		3767	waveform[j] = (short) ((left+right)/2);
		3768	}
		3769	}
		3770	}
		3771
		3772	} else {
		3773	if (!fResponseCalibration->
		3774	Calibrate(chipIndex, channel % 10, adcWaveform, waveform, triggerCell, threshold, offsetCalib))
		3775	return kZeroSuppression; // return immediately if below threshold
		3776	}
		3777	} else {
		3778	if (GetDRSType() == 4) {
		3779	// if Mezz though USB2 -> select correct calibration channel
		3780	if (fBoardType == 6 && (fReadoutChannelConfig == 0 \|\| fReadoutChannelConfig == 2) &&
		3781	channel != 8)
		3782	channel++;
		3783	for (j = 0 ; j < kNumberOfBins; j++) {
		3784	value = adcWaveform[j];
		3785
		3786	/* convert to units of 0.1 mV */
		3787	value = (value - 32768) / 65536.0 * 1000 * 10;
		3788
		3789	/* correct for range */
		3790	value += fRange * 1000 * 10;
		3791
		3792	if (adjustToClock)
		3793	waveform[(j + triggerCell) % kNumberOfBins] = (short) (value + 0.5);
		3794	else
		3795	waveform[j] = (short) (value + 0.5);
		3796	}
		3797	} else {
		3798	for (j = 0; j < kNumberOfBins; j++) {
		3799	if (adjustToClock) {
		3800	// rotate waveform such that waveform[0] corresponds to bin #0 on the chip
		3801	waveform[j] = adcWaveform[(kNumberOfBins-triggerCell+j) % kNumberOfBins];
		3802	} else {
		3803	waveform[j] = adcWaveform[j];
		3804	}
		3805	}
		3806	}
		3807	}
		3808
		3809	// fix bad cells for single turn mode
		3810	if (GetDRSType() == 2) {
		3811	if (fDominoMode == 0 && triggerCell == -1) {
		3812	waveform[0] = 2 * waveform[1] - waveform[2];
		3813	short m1 = (waveform[kNumberOfBins - 5] + waveform[kNumberOfBins - 6]) / 2;
		3814	short m2 = (waveform[kNumberOfBins - 6] + waveform[kNumberOfBins - 7]) / 2;
		3815	waveform[kNumberOfBins - 4] = m1 - 1 * (m2 - m1);
		3816	waveform[kNumberOfBins - 3] = m1 - 2 * (m2 - m1);
		3817	waveform[kNumberOfBins - 2] = m1 - 3 * (m2 - m1);
		3818	waveform[kNumberOfBins - 1] = m1 - 4 * (m2 - m1);
		3819	}
		3820	}
		3821
		3822	return kSuccess;
		3823	}
		3824
		3825	/------------------------------------------------------------------/
		3826
		3827	int DRSBoard::GetStretchedTime(float time, float measurement, int numberOfMeasurements, float period)
		3828	{
		3829	int j;
		3830	if (*time >= measurement[numberOfMeasurements - 1]) {
		3831	*time -= measurement[numberOfMeasurements - 1];
		3832	return 1;
		3833	}
		3834	if (*time < measurement[0]) {
		3835	time = time - measurement[0] - (numberOfMeasurements - 1) * period / 2;
		3836	return 1;
		3837	}
		3838	for (j = 0; j < numberOfMeasurements - 1; j++) {
		3839	if (time > measurement[j] && time <= measurement[j + 1]) {
		3840	*time =
		3841	(period / 2) / (measurement[j + 1] - measurement[j]) * (*time - measurement[j + 1]) -
		3842	(numberOfMeasurements - 2 - j) * period / 2;
		3843	return 1;
		3844	}
		3845	}
		3846	return 0;
		3847	}
		3848
		3849	/------------------------------------------------------------------/
		3850
		3851	int DRSBoard::GetTriggerCell(unsigned int chipIndex)
		3852	{
		3853	if (fDRSType == 4)
		3854	return GetStopCell(chipIndex);
		3855
		3856	return GetTriggerCell(fWaveforms, chipIndex);
		3857	}
		3858
		3859	/------------------------------------------------------------------/
		3860
		3861	int DRSBoard::GetTriggerCell(unsigned char *waveforms, unsigned int chipIndex)
		3862	{
		3863	int j, triggerCell;
		3864	bool calib;
		3865	unsigned short baseLevel = 1000;
		3866	unsigned short triggerChannel[1024];
		3867
		3868	if (fDRSType == 4)
		3869	return GetStopCell(chipIndex);
		3870
		3871	GetRawWave(waveforms, chipIndex, 8, triggerChannel);
		3872	calib = fResponseCalibration->SubtractADCOffset(chipIndex, 8, triggerChannel, triggerChannel, baseLevel);
		3873
		3874	triggerCell = -1;
		3875	for (j = 0; j < kNumberOfBins; j++) {
		3876	if (calib) {
		3877	if (triggerChannel[j] <= baseLevel + 200
		3878	&& triggerChannel[(j + 1) % kNumberOfBins] > baseLevel + 200) {
		3879	triggerCell = j;
		3880	break;
		3881	}
		3882	} else {
		3883	if (fDRSType == 3) {
		3884	if (triggerChannel[j] <= 2000 && triggerChannel[(j + 1) % kNumberOfBins] > 2000) {
		3885	triggerCell = j;
		3886	break;
		3887	}
		3888	} else {
		3889	if (triggerChannel[j] >= 2000 && triggerChannel[(j + 1) % kNumberOfBins] < 2000) {
		3890	triggerCell = j;
		3891	break;
		3892	}
		3893	}
		3894	}
		3895	}
		3896	if (triggerCell == -1) {
		3897	return kInvalidTriggerSignal;
		3898	}
		3899	fStopCell[0] = triggerCell;
		3900	return triggerCell;
		3901	}
		3902
		3903	/------------------------------------------------------------------/
		3904
		3905	int DRSBoard::GetStopCell(unsigned int chipIndex)
		3906	{
		3907	return fStopCell[chipIndex];
		3908	}
		3909
		3910	/------------------------------------------------------------------/
		3911
		3912	unsigned char DRSBoard::GetStopWSR(unsigned int chipIndex)
		3913	{
		3914	return fStopWSR[chipIndex];
		3915	}
		3916
		3917	/------------------------------------------------------------------/
		3918
		3919	void DRSBoard::TestDAC(int channel)
		3920	{
		3921	// Test DAC
		3922	int status;
		3923
		3924	do {
		3925	status = SetDAC(channel, 0);
		3926	Sleep(1000);
		3927	status = SetDAC(channel, 0.5);
		3928	Sleep(1000);
		3929	status = SetDAC(channel, 1);
		3930	Sleep(1000);
		3931	status = SetDAC(channel, 1.5);
		3932	Sleep(1000);
		3933	status = SetDAC(channel, 2);
		3934	Sleep(1000);
		3935	status = SetDAC(channel, 2.5);
		3936	Sleep(1000);
		3937	} while (status);
		3938	}
		3939
		3940	/------------------------------------------------------------------/
		3941
		3942	void DRSBoard::MeasureSpeed()
		3943	{
		3944	// Measure domino sampling speed
		3945	FILE *f;
		3946	double vdr, vds, freq;
		3947
		3948	f = fopen("speed.txt", "wt");
		3949	fprintf(f, "\t");
		3950	printf("\t");
		3951	for (vdr = 0.5; vdr <= 2.501; vdr += 0.05) {
		3952	fprintf(f, "%1.2lf\t", vdr);
		3953	printf("%1.2lf\t", vdr);
		3954	}
		3955	fprintf(f, "\n");
		3956	printf("\n");
		3957
		3958	for (vds = 0.5; vds <= 2.501; vds += 0.05) {
		3959	fprintf(f, "%1.2lf\t", vds);
		3960	printf("%1.2lf\t", vds);
		3961
		3962	SetDAC(fDAC_DSA, vds);
		3963	StartDomino();
		3964	Sleep(1000);
		3965	ReadFrequency(0, &freq);
		3966
		3967	fprintf(f, "%1.3lf\t", freq);
		3968	printf("%1.3lf\t", freq);
		3969
		3970	fprintf(f, "\n");
		3971	printf("\n");
		3972	fflush(f);
		3973	}
		3974	}
		3975
		3976	/------------------------------------------------------------------/
		3977
		3978	void DRSBoard::InteractSpeed()
		3979	{
		3980	int status, i;
		3981	double freq, vds;
		3982
		3983	do {
		3984	printf("DS: ");
		3985	scanf("%lf", &vds);
		3986	if (vds == 0)
		3987	break;
		3988
		3989	SetDAC(fDAC_DSA, vds);
		3990	SetDAC(fDAC_DSB, vds);
		3991
		3992	StartDomino();
		3993	for (i = 0; i < 4; i++) {
		3994	Sleep(1000);
		3995
		3996	status = ReadFrequency(0, &freq);
		3997	if (!status)
		3998	break;
		3999	printf("%1.6lf GHz\n", freq);
		4000	}
		4001
		4002	/* turn BOARD_LED off */
		4003	SetLED(0);
		4004
		4005	} while (1);
		4006	}
		4007
		4008	/------------------------------------------------------------------/
		4009
		4010	void DRSBoard::MonitorFrequency()
		4011	{
		4012	// Monitor domino sampling frequency
		4013	int status;
		4014	unsigned int data;
		4015	double freq, dac;
		4016	FILE *f;
		4017	time_t now;
		4018	char str[256];
		4019
		4020	f = fopen("DRSBoard.log", "w");
		4021
		4022	do {
		4023	Sleep(1000);
		4024
		4025	status = ReadFrequency(0, &freq);
		4026	if (!status)
		4027	break;
		4028
		4029	data = 0;
		4030	if (fBoardType == 1)
		4031	Read(T_STATUS, &data, REG_RDAC3, 2);
		4032	else if (fBoardType == 2 \|\| fBoardType == 3)
		4033	Read(T_STATUS, &data, REG_RDAC1, 2);
		4034
		4035	dac = data / 65536.0 * 2.5;
		4036	printf("%1.6lf GHz, %1.4lf V\n", freq, dac);
		4037	time(&now);
		4038	strcpy(str, ctime(&now) + 11);
		4039	str[8] = 0;
		4040
		4041	fprintf(f, "%s %1.6lf GHz, %1.4lf V\n", str, freq, dac);
		4042	fflush(f);
		4043
		4044	} while (!drs_kbhit());
		4045
		4046	fclose(f);
		4047	}
		4048
		4049	/------------------------------------------------------------------/
		4050
		4051	int DRSBoard::TestShift(int n)
		4052	{
		4053	// Test shift register
		4054	unsigned char buffer[3];
		4055
		4056	memset(buffer, 0, sizeof(buffer));
		4057
		4058	#if 0
		4059	buffer[0] = CMD_TESTSHIFT;
		4060	buffer[1] = n;
		4061
		4062	status = msend_usb(buffer, 2);
		4063	if (status != 2)
		4064	return status;
		4065
		4066	status = mrecv_usb(buffer, sizeof(buffer));
		4067	if (status != 1)
		4068	return status;
		4069	#endif
		4070
		4071	if (buffer[0] == 1)
		4072	printf("Shift register %c works correctly\n", 'A' + n);
		4073	else if (buffer[0] == 2)
		4074	printf("SROUT%c does hot go high after reset\n", 'A' + n);
		4075	else if (buffer[0] == 3)
		4076	printf("SROUT%c does hot go low after 1024 clocks\n", 'A' + n);
		4077
		4078	return 1;
		4079	}
		4080
		4081	/------------------------------------------------------------------/
		4082
		4083	unsigned int DRSBoard::GetCtrlReg()
		4084	{
		4085	unsigned int status;
		4086
		4087	Read(T_CTRL, &status, REG_CTRL, 4);
		4088	return status;
		4089	}
		4090
		4091	/------------------------------------------------------------------/
		4092
		4093	unsigned short DRSBoard::GetConfigReg()
		4094	{
		4095	unsigned short status;
		4096
		4097	Read(T_CTRL, &status, REG_CONFIG, 2);
		4098	return status;
		4099	}
		4100
		4101	/------------------------------------------------------------------/
		4102
		4103	unsigned int DRSBoard::GetStatusReg()
		4104	{
		4105	unsigned int status;
		4106
		4107	Read(T_STATUS, &status, REG_STATUS, 4);
		4108	return status;
		4109	}
		4110
		4111	/------------------------------------------------------------------/
		4112
		4113	int DRSBoard::EnableTcal(int freq, int level, int phase)
		4114	{
		4115	fTcalFreq = freq;
		4116	fTcalLevel = level;
		4117	fTcalPhase = phase;
		4118
		4119	if (fBoardType == 6) {
		4120	ConfigureLMK(fNominalFrequency, false, freq, phase);
		4121	} else {
		4122	if (fBoardType == 9) {
		4123	// Enable clock a switch channel multiplexers
		4124	if (freq) {
		4125	fCtrlBits \|= (BIT_TCAL_EN \| BIT_ACAL_EN);
		4126	} else
		4127	fCtrlBits &= ~(BIT_TCAL_EN \| BIT_ACAL_EN);
		4128
		4129	} else {
		4130	// Enable clock channel
		4131	if (freq)
		4132	fCtrlBits \|= BIT_TCAL_EN;
		4133	else
		4134	fCtrlBits &= ~(BIT_TCAL_EN \| BIT_TCAL_SOURCE);
		4135
		4136	// Set output level, needed for gain calibration
		4137	if (fDRSType == 4) {
		4138	if (level)
		4139	fCtrlBits \|= BIT_NEG_TRIGGER;
		4140	else
		4141	fCtrlBits &= ~BIT_NEG_TRIGGER;
		4142	}
		4143	}
		4144
		4145	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		4146	}
		4147
		4148	return 1;
		4149	}
		4150
		4151	/------------------------------------------------------------------/
		4152
		4153	int DRSBoard::SelectClockSource(int source)
		4154	{
		4155	fTcalSource = source;
		4156
		4157	// Select clock source:
		4158	// EVAL1: synchronous (0) or asynchronous (1) (2nd quartz)
		4159	if (fBoardType <= 8) {
		4160	if (source)
		4161	fCtrlBits \|= BIT_TCAL_SOURCE;
		4162	else
		4163	fCtrlBits &= ~BIT_TCAL_SOURCE;
		4164
		4165	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		4166	}
		4167
		4168	return 1;
		4169	}
		4170
		4171	/------------------------------------------------------------------/
		4172
		4173	int DRSBoard::SetRefclk(int source)
		4174	{
		4175	// Select reference clock source to internal FPGA (0) or external P2 (1)
		4176	if (fBoardType == 6) {
		4177	if (source)
		4178	fCtrlBits \|= BIT_REFCLK_SOURCE;
		4179	else
		4180	fCtrlBits &= ~BIT_REFCLK_SOURCE;
		4181	} else if (fBoardType == 8 \|\| fBoardType == 9) {
		4182	if (source)
		4183	fCtrlBits \|= BIT_REFCLK_EXT;
		4184	else
		4185	fCtrlBits &= ~BIT_REFCLK_EXT;
		4186	}
		4187
		4188	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		4189	fRefclk = source;
		4190
		4191	return 1;
		4192	}
		4193
		4194	/------------------------------------------------------------------/
		4195
		4196	int DRSBoard::EnableAcal(int mode, double voltage)
		4197	{
		4198	double t1, t2;
		4199
		4200	fAcalMode = mode;
		4201	fAcalVolt = voltage;
		4202
		4203	if (mode == 0) {
		4204	/* turn calibration off */
		4205	SetCalibTiming(0, 0);
		4206	if (fBoardType == 5 \|\| fBoardType == 6) {
		4207	/* turn voltages off (50 Ohm analog switch!) */
		4208	SetDAC(fDAC_CALP, 0);
		4209	SetDAC(fDAC_CALN, 0);
		4210	}
		4211	if (fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9)
		4212	SetCalibVoltage(0);
		4213
		4214	fCtrlBits &= ~BIT_ACAL_EN;
		4215	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		4216	} else if (mode == 1) {
		4217	/* static calibration */
		4218	SetCalibVoltage(voltage);
		4219	SetCalibTiming(0, 0);
		4220	fCtrlBits \|= BIT_ACAL_EN;
		4221	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		4222	} else if (mode == 2) {
		4223	/* first part calibration:
		4224	stop domino wave after 1.2 revolutions
		4225	turn on calibration voltage after 0.1 revolutions */
		4226
		4227	/* ensure circulating domino wave */
		4228	SetDominoMode(1);
		4229
		4230	/* set calibration voltage but do not turn it on now */
		4231	SetCalibVoltage(voltage);
		4232	fCtrlBits &= ~BIT_ACAL_EN;
		4233	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		4234
		4235	/* calculate duration of DENABLE signal as 1.2 revolutions */
		4236	t1 = 1 / fNominalFrequency * 1024 * 1.2; // ns
		4237	t1 = static_cast < int >((t1 - 30) / 30 + 1); // 30 ns offset, 30 ns units, rounded up
		4238	t2 = 1 / fNominalFrequency * 1024 * 0.1; // ns
		4239	t2 = static_cast < int >((t2 - 30) / 30 + 1); // 30 ns offset, 30 ns units, rounded up
		4240	SetCalibTiming(static_cast < int >(t1), static_cast < int >(t2));
		4241
		4242	} else if (mode == 3) {
		4243	/* second part calibration:
		4244	stop domino wave after 1.05 revolutions */
		4245
		4246	/* ensure circulating domino wave */
		4247	SetDominoMode(1);
		4248
		4249	/* turn on and let settle calibration voltage */
		4250	SetCalibVoltage(voltage);
		4251	fCtrlBits \|= BIT_ACAL_EN;
		4252	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		4253
		4254	/* calculate duration of DENABLE signal as 1.1 revolutions */
		4255	t1 = 1 / fNominalFrequency * 1024 * 1.05; // ns
		4256	t1 = static_cast < int >((t1 - 30) / 30 + 1); // 30 ns offset, 30 ns units, rounded up
		4257	SetCalibTiming(static_cast < int >(t1), 0);
		4258	}
		4259
		4260	return 1;
		4261	}
		4262
		4263	/------------------------------------------------------------------/
		4264
		4265	int DRSBoard::SetCalibTiming(int t_enable, int t_cal)
		4266	{
		4267	unsigned short d;
		4268
		4269	if (fDRSType == 2) {
		4270	d = t_cal \| (t_enable << 8);
		4271	Write(T_CTRL, REG_CALIB_TIMING, &d, 2);
		4272	}
		4273
		4274	if (fDRSType == 3) {
		4275	d = t_cal;
		4276	Write(T_CTRL, REG_CALIB_TIMING, &d, 2);
		4277	}
		4278
		4279	return 1;
		4280	}
		4281
		4282	/------------------------------------------------------------------/
		4283
		4284	int DRSBoard::SetCalibVoltage(double value)
		4285	{
		4286	// Set Calibration Voltage
		4287	if (fBoardType == 5 \|\| fBoardType == 6 \|\| fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9) {
		4288	if (fBoardType == 5)
		4289	value = value * (1+fNominalFrequency/65); // rough correction factor for input current
		4290	if (fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9)
		4291	value = value * (1+fNominalFrequency/47); // rough correction factor for input current
		4292	SetDAC(fDAC_CALP, fCommonMode + value / 2);
		4293	SetDAC(fDAC_CALN, fCommonMode - value / 2);
		4294	} else
		4295	SetDAC(fDAC_ACALIB, value);
		4296	return 1;
		4297	}
		4298
		4299	/------------------------------------------------------------------/
		4300
		4301	int DRSBoard::StartClearCycle()
		4302	{
		4303	/* clear cycle is necessary for DRS4 to reduce noise */
		4304
		4305	fbkAcalVolt = fAcalVolt;
		4306	fbkAcalMode = fAcalMode;
		4307	fbkTcalFreq = fTcalFreq;
		4308	fbkTcalLevel = fTcalLevel;
		4309
		4310	/* switch all inputs to zero */
		4311	EnableAcal(1, 0);
		4312
		4313	/* start, stop and readout of zero */
		4314	StartDomino();
		4315	SoftTrigger();
		4316
		4317	return 1;
		4318	}
		4319
		4320	/------------------------------------------------------------------/
		4321
		4322	int DRSBoard::FinishClearCycle()
		4323	{
		4324	while (IsBusy());
		4325
		4326	/* restore old values */
		4327	EnableAcal(fbkAcalMode, fbkAcalVolt);
		4328
		4329	return 1;
		4330	}
		4331
		4332	/------------------------------------------------------------------/
		4333
		4334	double DRSBoard::GetTemperature()
		4335	{
		4336	// Read Out Temperature Sensor
		4337	unsigned char buffer[2];
		4338	unsigned short d;
		4339	double temperature;
		4340
		4341	Read(T_STATUS, buffer, REG_TEMPERATURE, 2);
		4342
		4343	d = (static_cast < unsigned int >(buffer[1]) << 8) +buffer[0];
		4344	temperature = ((d >> 3) & 0x0FFF) * 0.0625;
		4345
		4346	return temperature;
		4347	}
		4348
		4349	/------------------------------------------------------------------/
		4350
		4351	int DRSBoard::Is2048ModeCapable()
		4352	{
		4353	unsigned int status;
		4354
		4355	if (fFirmwareVersion < 21305)
		4356	return 0;
		4357
		4358	// Read pin J44 and return 1 if 2048 mode has been soldered
		4359	Read(T_STATUS, &status, REG_STATUS, 4);
		4360	if ((status & BIT_2048_MODE))
		4361	return 0;
		4362	return 1;
		4363	}
		4364
		4365	/------------------------------------------------------------------/
		4366
		4367	int DRSBoard::GetTriggerBus()
		4368	{
		4369	unsigned size, d;
		4370
		4371	if (fBoardType == 6 && fTransport == TR_VME) {
		4372	if (fReadoutChannelConfig == 4)
		4373	size = (20 * sizeof(short int) * (fDecimation ? kNumberOfBins/2 : kNumberOfBins) + 16);
		4374	else
		4375	size = (36 * sizeof(short int) * (fDecimation ? kNumberOfBins/2 : kNumberOfBins) + 16);
		4376
		4377	Read(T_RAM, &d, size * fReadPointer + size - 16 + 12, 4);
		4378	fTriggerBus = (unsigned short)d;
		4379	} else {
		4380	Read(T_STATUS, &fTriggerBus, REG_TRIGGER_BUS, 2);
		4381	}
		4382	return static_cast < int >(fTriggerBus);
		4383	}
		4384
		4385
		4386	/------------------------------------------------------------------/
		4387
		4388	unsigned int DRSBoard::GetScaler(int channel)
		4389	{
		4390	int reg = 0;
		4391	unsigned d;
		4392
		4393	if (fBoardType < 9 \|\| fFirmwareVersion < 21000 \|\| fTransport != TR_USB2)
		4394	return 0;
		4395
		4396	switch (channel ) {
		4397	case 0: reg = REG_SCALER0; break;
		4398	case 1: reg = REG_SCALER1; break;
		4399	case 2: reg = REG_SCALER2; break;
		4400	case 3: reg = REG_SCALER3; break;
		4401	case 4: reg = REG_SCALER4; break;
		4402	case 5: reg = REG_SCALER5; break;
		4403	}
		4404
		4405	Read(T_STATUS, &d, reg, 4);
		4406
		4407	return static_cast < unsigned int >(d * 10); // measurement clock is 10 Hz
		4408	}
		4409
		4410
		4411	/------------------------------------------------------------------/
		4412
		4413	int DRSBoard::SetBoardSerialNumber(unsigned short serialNumber)
		4414	{
		4415	unsigned char buf[32768];
		4416
		4417	unsigned short dac;
		4418
		4419	if (fDRSType < 4) {
		4420	// read current DAC register
		4421	Read(T_CTRL, &dac, REG_DAC0, 2);
		4422
		4423	// put serial in DAC register
		4424	Write(T_CTRL, REG_DAC0, &serialNumber, 2);
		4425
		4426	// execute flash
		4427	fCtrlBits \|= BIT_EEPROM_WRITE_TRIG;
		4428	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		4429	fCtrlBits &= ~BIT_EEPROM_WRITE_TRIG;
		4430
		4431	// wait 6ms per word
		4432	Sleep(20);
		4433
		4434	// write back old DAC registers
		4435	Write(T_CTRL, REG_DAC0, &dac, 2);
		4436
		4437	// read back serial number
		4438	ReadSerialNumber();
		4439
		4440	} else if (fDRSType == 4) {
		4441	/* merge serial number into eeprom page #0 */
		4442	ReadEEPROM(0, buf, sizeof(buf));
		4443	buf[0] = serialNumber & 0xFF;
		4444	buf[1] = serialNumber >> 8;
		4445	WriteEEPROM(0, buf, sizeof(buf));
		4446
		4447	/* erase DPRAM */
		4448	memset(buf, 0, sizeof(buf));
		4449	Write(T_RAM, 0, buf, sizeof(buf));
		4450
		4451	/* read back EEPROM */
		4452	ReadEEPROM(0, buf, sizeof(buf));
		4453
		4454	/* check if correctly set */
		4455	if (((buf[1] << 8) \| buf[0]) != serialNumber)
		4456	return 0;
		4457
		4458	fBoardSerialNumber = serialNumber;
		4459	}
		4460
		4461	return 1;
		4462	}
		4463
		4464	/------------------------------------------------------------------/
		4465
		4466	int DRSBoard::ReadEEPROM(unsigned short page, void *buffer, int size)
		4467	{
		4468	int i;
		4469	unsigned long status;
		4470	// write eeprom page number
		4471	if (fBoardType == 5 \|\| fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9)
		4472	Write(T_CTRL, REG_EEPROM_PAGE_EVAL, &page, 2);
		4473	else if (fBoardType == 6)
		4474	Write(T_CTRL, REG_EEPROM_PAGE_MEZZ, &page, 2);
		4475	else
		4476	return -1;
		4477
		4478	// execute eeprom read
		4479	fCtrlBits \|= BIT_EEPROM_READ_TRIG;
		4480	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		4481	fCtrlBits &= ~BIT_EEPROM_READ_TRIG;
		4482
		4483	// poll on serial_busy flag
		4484	for (i=0 ; i<100 ; i++) {
		4485	Read(T_STATUS, &status, REG_STATUS, 4);
		4486	if ((status & BIT_SERIAL_BUSY) == 0)
		4487	break;
		4488	Sleep(10);
		4489	}
		4490
		4491	return Read(T_RAM, buffer, 0, size);
		4492	}
		4493
		4494	/------------------------------------------------------------------/
		4495
		4496	int DRSBoard::WriteEEPROM(unsigned short page, void *buffer, int size)
		4497	{
		4498	int i;
		4499	unsigned long status;
		4500	unsigned char buf[32768];
		4501
		4502	// read previous page
		4503	ReadEEPROM(page, buf, sizeof(buf));
		4504
		4505	// combine with new page
		4506	memcpy(buf, buffer, size);
		4507
		4508	// write eeprom page number
		4509	if (fBoardType == 5 \|\| fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9)
		4510	Write(T_CTRL, REG_EEPROM_PAGE_EVAL, &page, 2);
		4511	else if (fBoardType == 6)
		4512	Write(T_CTRL, REG_EEPROM_PAGE_MEZZ, &page, 2);
		4513	else
		4514	return -1;
		4515
		4516	// write eeprom page to RAM
		4517	Write(T_RAM, 0, buf, size);
		4518
		4519	// execute eeprom write
		4520	fCtrlBits \|= BIT_EEPROM_WRITE_TRIG;
		4521	Write(T_CTRL, REG_CTRL, &fCtrlBits, 4);
		4522	fCtrlBits &= ~BIT_EEPROM_WRITE_TRIG;
		4523
		4524	// poll on serail_busy flag
		4525	for (i=0 ; i<500 ; i++) {
		4526	Read(T_STATUS, &status, REG_STATUS, 4);
		4527	if ((status & BIT_SERIAL_BUSY) == 0)
		4528	break;
		4529	Sleep(10);
		4530	}
		4531
		4532	return 1;
		4533	}
		4534
		4535	/------------------------------------------------------------------/
		4536
		4537	bool DRSBoard::IsTimingCalibrationValid()
		4538	{
		4539	return fabs(fNominalFrequency - fTimingCalibratedFrequency) < 0.001;
		4540	}
		4541
		4542	double DRSBoard::GetTrueFrequency()
		4543	{
		4544	int i;
		4545	double f;
		4546
		4547	if (IsTimingCalibrationValid()) {
		4548	/* calculate true frequency */
		4549	for (i=0,f=0 ; i<1024 ; i++)
		4550	f += fCellDT[0][0][i];
		4551	f = 1024.0 / f;
		4552	} else
		4553	f = fNominalFrequency;
		4554
		4555	return f;
		4556	}
		4557
		4558	/------------------------------------------------------------------/
		4559
		4560	int DRSBoard::GetTime(unsigned int chipIndex, int channelIndex, int tc, float *time, bool tcalibrated, bool rotated)
		4561	{
		4562	int i, scale, iend;
		4563	double gt0, gt;
		4564
		4565	/* for DRS2, please use function below */
		4566	if (fDRSType < 4)
		4567	return GetTime(chipIndex, channelIndex, fNominalFrequency, tc, time, tcalibrated, rotated);
		4568
		4569	scale = fDecimation ? 2 : 1;
		4570
		4571	if (!IsTimingCalibrationValid() \|\| !tcalibrated) {
		4572	double t0 = tc / fNominalFrequency;
		4573	for (i = 0; i < fChannelDepth; i++) {
		4574	if (rotated)
		4575	time[i] = static_cast < float >(((i*scale+tc) % kNumberOfBins) / fNominalFrequency - t0);
		4576	else
		4577	time[i] = static_cast < float >((i*scale) / fNominalFrequency);
		4578	if (time[i] < 0)
		4579	time[i] += static_cast < float > (kNumberOfBins / fNominalFrequency);
		4580	if (i*scale >= kNumberOfBins)
		4581	time[i] += static_cast < float > (kNumberOfBins / fNominalFrequency);
		4582	}
		4583	return 1;
		4584	}
		4585
		4586	time[0] = 0;
		4587	for (i=1 ; i<fChannelDepth ; i++) {
		4588	if (rotated)
		4589	time[i] = time[i-1] + (float)fCellDT[chipIndex][channelIndex][(i-1+tc) % kNumberOfBins];
		4590	else
		4591	time[i] = time[i-1] + (float)fCellDT[chipIndex][channelIndex][(i-1) % kNumberOfADCBins];
		4592	}
		4593
		4594	if (channelIndex > 0) {
		4595	// correct all channels to channel 0 (Daniel's method)
		4596	iend = tc >= 700 ? 700+1024 : 700;
		4597	for (i=tc,gt0=0 ; i<iend ; i++)
		4598	gt0 += fCellDT[chipIndex][0][i % 1024];
		4599
		4600	for (i=tc,gt=0 ; i<iend ; i++)
		4601	gt += fCellDT[chipIndex][channelIndex][i % 1024];
		4602
		4603	for (i=0 ; i<fChannelDepth ; i++)
		4604	time[i] += (float)(gt0 - gt);
		4605	}
		4606
		4607	return 1;
		4608	}
		4609
		4610	/------------------------------------------------------------------/
		4611
		4612	int DRSBoard::GetTimeCalibration(unsigned int chipIndex, int channelIndex, int mode, float *time, bool force)
		4613	{
		4614	int i;
		4615	float tint;
		4616
		4617	/* not implemented for DRS2 */
		4618	if (fDRSType < 4)
		4619	return -1;
		4620
		4621	if (!force && !IsTimingCalibrationValid()) {
		4622	for (i = 0; i < kNumberOfBins; i++)
		4623	time[i] = (float) (1/fNominalFrequency);
		4624	return 1;
		4625	}
		4626
		4627	if (mode == 0) {
		4628	/* differential nonlinearity */
		4629	for (i=0 ; i<kNumberOfBins ; i++)
		4630	time[i] = static_cast < float > (fCellDT[chipIndex][channelIndex][i]);
		4631	} else {
		4632	/* integral nonlinearity */
		4633	for (i=0,tint=0; i<kNumberOfBins ; i++) {
		4634	time[i] = static_cast < float > (tint - i/fNominalFrequency);
		4635	tint += (float)fCellDT[chipIndex][channelIndex][i];
		4636	}
		4637	}
		4638
		4639	return 1;
		4640	}
		4641
		4642	/------------------------------------------------------------------/
		4643
		4644	int DRSBoard::GetTime(unsigned int chipIndex, int channelIndex, double freqGHz, int tc, float *time, bool tcalibrated, bool rotated)
		4645	{
		4646	/* for DRS4, use function above */
		4647	if (fDRSType == 4)
		4648	return GetTime(chipIndex, channelIndex, tc, time, tcalibrated, rotated);
		4649
		4650	int i, irot;
		4651	DRSBoard::TimeData * init;
		4652	DRSBoard::TimeData::FrequencyData * freq;
		4653	int frequencyMHz = (int)(freqGHz*1000);
		4654
		4655	init = GetTimeCalibration(chipIndex);
		4656
		4657	if (init == NULL) {
		4658	for (i = 0; i < kNumberOfBins; i++)
		4659	time[i] = static_cast < float >(i / fNominalFrequency);
		4660	return 1;
		4661	}
		4662	freq = NULL;
		4663	for (i = 0; i < init->fNumberOfFrequencies; i++) {
		4664	if (init->fFrequency[i]->fFrequency == frequencyMHz) {
		4665	freq = init->fFrequency[i];
		4666	break;
		4667	}
		4668	}
		4669	if (freq == NULL) {
		4670	for (i = 0; i < kNumberOfBins; i++)
		4671	time[i] = static_cast < float >(i / fNominalFrequency);
		4672	return 1;
		4673	}
		4674	for (i = 0; i < kNumberOfBins; i++) {
		4675	irot = (fStopCell[chipIndex] + i) % kNumberOfBins;
		4676	if (fStopCell[chipIndex] + i < kNumberOfBins)
		4677	time[i] = static_cast < float >((freq->fBin[irot] - freq->fBin[fStopCell[chipIndex]]) / fNominalFrequency);
		4678	else
		4679	time[i] =
		4680	static_cast <
		4681	float
		4682	>((freq->fBin[irot] - freq->fBin[fStopCell[chipIndex]] + freq->fBin[kNumberOfBins - 1] - 2 * freq->fBin[0] +
		4683	freq->fBin[1]) / fNominalFrequency);
		4684	}
		4685	return 1;
		4686	}
		4687
		4688	/------------------------------------------------------------------/
		4689
		4690	bool DRSBoard::InitTimeCalibration(unsigned int chipIndex)
		4691	{
		4692	return GetTimeCalibration(chipIndex, true) != NULL;
		4693	}
		4694
		4695	/------------------------------------------------------------------/
		4696
		4697	DRSBoard::TimeData * DRSBoard::GetTimeCalibration(unsigned int chipIndex, bool reinit)
		4698	{
		4699	int i, l, index;
		4700	char *cstop;
		4701	char fileName[500];
		4702	char error[240];
		4703	PMXML_NODE node, rootNode, mainNode;
		4704
		4705	index = fNumberOfTimeData;
		4706	for (i = 0; i < fNumberOfTimeData; i++) {
		4707	if (fTimeData[i]->fChip == static_cast < int >(chipIndex)) {
		4708	if (!reinit)
		4709	return fTimeData[i];
		4710	else {
		4711	index = i;
		4712	break;
		4713	}
		4714	}
		4715	}
		4716
		4717	fTimeData[index] = new DRSBoard::TimeData();
		4718	DRSBoard::TimeData * init = fTimeData[index];
		4719
		4720	init->fChip = chipIndex;
		4721
		4722	for (i = 0; i < init->kMaxNumberOfFrequencies; i++) {
		4723	if (i <= 499 \|\| (i >= 501 && i <= 999) \|\| (i >= 1001 && i <= 1499) \|\| (i >= 1501 && i <= 1999) \|\|
		4724	(i >= 2001 && i <= 2499) \|\| i >= 2501)
		4725	continue;
		4726	sprintf(fileName, "%s/board%d/TimeCalib_board%d_chip%d_%dMHz.xml", fCalibDirectory, fBoardSerialNumber,
		4727	fBoardSerialNumber, chipIndex, i);
		4728	rootNode = mxml_parse_file(fileName, error, sizeof(error), NULL);
		4729	if (rootNode == NULL)
		4730	continue;
		4731
		4732	init->fFrequency[init->fNumberOfFrequencies] = new DRSBoard::TimeData::FrequencyData();
		4733	init->fFrequency[init->fNumberOfFrequencies]->fFrequency = i;
		4734
		4735	mainNode = mxml_find_node(rootNode, "/DRSTimeCalibration");
		4736
		4737	for (l = 0; l < kNumberOfBins; l++) {
		4738	node = mxml_subnode(mainNode, l + 2);
		4739	init->fFrequency[init->fNumberOfFrequencies]->fBin[l] = strtod(mxml_get_value(node), &cstop);
		4740	}
		4741	mxml_free_tree(rootNode);
		4742	init->fNumberOfFrequencies++;
		4743	}
		4744	if (init->fNumberOfFrequencies == 0) {
		4745	printf("Board %d --> Could not find time calibration file\n", GetBoardSerialNumber());
		4746	}
		4747
		4748	if (index == fNumberOfTimeData)
		4749	fNumberOfTimeData++;
		4750
		4751	return fTimeData[index];
		4752	}
		4753
		4754	/------------------------------------------------------------------/
		4755
		4756	void DRSBoard::SetCalibrationDirectory(const char *calibrationDirectoryPath)
		4757	{
		4758	strncpy(fCalibDirectory, calibrationDirectoryPath, strlen(calibrationDirectoryPath));
		4759	fCalibDirectory[strlen(calibrationDirectoryPath)] = 0;
		4760	};
		4761
		4762	/------------------------------------------------------------------/
		4763
		4764	void DRSBoard::GetCalibrationDirectory(char *calibrationDirectoryPath)
		4765	{
		4766	strncpy(calibrationDirectoryPath, fCalibDirectory, strlen(fCalibDirectory));
		4767	calibrationDirectoryPath[strlen(fCalibDirectory)] = 0;
		4768	};
		4769
		4770	/------------------------------------------------------------------/
		4771
		4772	void DRSBoard::LinearRegression(double x, double y, int n, double a, double b)
		4773	{
		4774	int i;
		4775	double sx, sxx, sy, sxy;
		4776
		4777	sx = sxx = sy = sxy = 0;
		4778	for (i = 0; i < n; i++) {
		4779	sx += x[i];
		4780	sxx += x[i] * x[i];
		4781	sy += y[i];
		4782	sxy += x[i] * y[i];
		4783	}
		4784
		4785	a = (n sxy - sx * sy) / (n * sxx - sx * sx);
		4786	b = (sy - a * sx) / n;
		4787	}
		4788
		4789	/------------------------------------------------------------------/
		4790
		4791	void DRSBoard::ReadSingleWaveform(int nChip, int nChan,
		4792	unsigned short wf[kNumberOfChipsMax][kNumberOfChannelsMax][kNumberOfBins],
		4793	bool rotated)
		4794	{
		4795	int i, j, k, tc;
		4796
		4797	StartDomino();
		4798	SoftTrigger();
		4799	while (IsBusy());
		4800	TransferWaves();
		4801
		4802	for (i=0 ; i<nChip ; i++) {
		4803	tc = GetTriggerCell(i);
		4804
		4805	for (j=0 ; j<nChan ; j++) {
		4806	GetRawWave(i, j, wf[i][j], rotated);
		4807	if (!rotated) {
		4808	for (k=0 ; k<kNumberOfBins ; k++) {
		4809	/* do primary offset calibration */
		4810	wf[i][j][k] = wf[i][j][k] - fCellOffset[j+i*9][(k + tc) % kNumberOfBins] + 32768;
		4811	}
		4812	}
		4813	}
		4814	}
		4815	}
		4816
		4817	static unsigned short swf[kNumberOfChipsMax][kNumberOfChannelsMax][kNumberOfBins];
		4818	static float center[kNumberOfChipsMax][kNumberOfChannelsMax][kNumberOfBins];
		4819
		4820	int DRSBoard::AverageWaveforms(DRSCallback *pcb, int nChip, int nChan,
		4821	int prog1, int prog2, unsigned short *awf, int n, bool rotated)
		4822	{
		4823	int i, j, k, l, prog, old_prog = 0;
		4824	float cm;
		4825
		4826	if (pcb != NULL)
		4827	pcb->Progress(prog1);
		4828
		4829	memset(center, 0, sizeof(center));
		4830
		4831	for (i=0 ; i<n; i++) {
		4832	ReadSingleWaveform(nChip, nChan, swf, rotated);
		4833
		4834	for (j=0 ; j<nChip ; j++) {
		4835	for (k=0 ; k<nChan ; k++) {
		4836	if (i > 5) {
		4837	/* calculate and subtract common mode */
		4838	for (l=0,cm=0 ; l<kNumberOfBins ; l++)
		4839	cm += swf[j][k][l] - 32768;
		4840	cm /= kNumberOfBins;
		4841	for (l=0 ; l<kNumberOfBins ; l++)
		4842	center[j][k][l] += swf[j][k][l]- cm;
		4843	}
		4844	}
		4845	}
		4846
		4847	prog = (int)(((double)i/n)*(prog2-prog1)+prog1);
		4848	if (prog > old_prog) {
		4849	old_prog = prog;
		4850	if (pcb != NULL)
		4851	pcb->Progress(prog);
		4852	}
		4853	}
		4854
		4855	for (i=0 ; i<nChip ; i++)
		4856	for (j=0 ; j<nChan ; j++)
		4857	for (k=0 ; k<kNumberOfBins ; k++)
		4858	awf[(inChan+j)kNumberOfBins+k] = (unsigned short)(center[i][j][k]/(n-6) + 0.5);
		4859
		4860	return 1;
		4861	}
		4862
		4863	int DRSBoard::RobustAverageWaveforms(DRSCallback *pcb, int nChip, int nChan,
		4864	int prog1, int prog2, unsigned short *awf, int n, bool rotated)
		4865	{
		4866	int i, j, k, l, prog, old_prog = 0;
		4867
		4868	if (pcb != NULL)
		4869	pcb->Progress(prog1);
		4870
		4871	Averager *ave = new Averager(nChip, nChan, kNumberOfBins, 200);
		4872
		4873	/* fill histograms */
		4874	for (i=0 ; i<n ; i++) {
		4875	ReadSingleWaveform(nChip, nChan, swf, rotated);
		4876	for (j=0 ; j<nChip ; j++)
		4877	for (k=0 ; k<nChan ; k++)
		4878	for (l=0 ; l<kNumberOfBins ; l++)
		4879	ave->Add(j, k, l, swf[j][k][l]);
		4880
		4881	/* update progress bar */
		4882	prog = (int)(((double)(i+10)/(n+10))*(prog2-prog1)+prog1);
		4883	if (prog > old_prog) {
		4884	old_prog = prog;
		4885	if (pcb != NULL)
		4886	pcb->Progress(prog);
		4887	}
		4888	}
		4889
		4890	/*
		4891	FILE *fh = fopen("calib.csv", "wt");
		4892	for (i=40 ; i<60 ; i++) {
		4893	for (j=0 ; j<WFH_SIZE ; j++)
		4894	fprintf(fh, "%d;", wfh[0][0][i][j]);
		4895	fprintf(fh, "\n");
		4896	}
		4897	fclose(fh);
		4898	*/
		4899
		4900	for (i=0 ; i<nChip ; i++)
		4901	for (j=0 ; j<nChan ; j++)
		4902	for (k=0 ; k<kNumberOfBins ; k++)
		4903	awf[(inChan+j)kNumberOfBins+k] = (unsigned short)ave->RobustAverage(100, i, j, k);
		4904
		4905	ave->SaveNormalizedDistribution("wv.csv", 0, 100);
		4906
		4907	/*
		4908	FILE *fh = fopen("calib.csv", "wt");
		4909	for (i=40 ; i<60 ; i++) {
		4910	fprintf(fh, "%d;", icenter[0][0][0] + (i - WFH_SIZE/2)*16);
		4911	fprintf(fh, "%d;", wfh[0][0][0][i]);
		4912	if (i == 50)
		4913	fprintf(fh, "%d;", awf[0]);
		4914	fprintf(fh, "\n");
		4915	}
		4916	fclose(fh);
		4917	*/
		4918
		4919	if (pcb != NULL)
		4920	pcb->Progress(prog2);
		4921
		4922	delete ave;
		4923
		4924	return 1;
		4925	}
		4926
		4927	/------------------------------------------------------------------/
		4928
		4929	int idx[4][10] = {
		4930	{ 0, 2, 4, 6, 8, 18, 20, 22, 24, 26 },
		4931	{ 1, 3, 5, 7, 39, 19, 21, 23, 25, 39 },
		4932	{ 9, 11, 13, 15, 17, 27, 29, 31, 33, 35 },
		4933	{ 10, 12, 14, 16, 39, 28, 30, 32, 34, 39 },
		4934	};
		4935
		4936	#define F1(x) ((int) (84.0/24 * (x)))
		4937	#define F2(x) ((int) (92.0/8 * (x)))
		4938
		4939	static unsigned short wft[kNumberOfChipsMaxkNumberOfChannelsMaxkNumberOfChipsMax][1024],
		4940	wf1[kNumberOfChipsMaxkNumberOfChannelsMaxkNumberOfChipsMax][1024],
		4941	wf2[kNumberOfChipsMaxkNumberOfChannelsMaxkNumberOfChipsMax][1024],
		4942	wf3[kNumberOfChipsMaxkNumberOfChannelsMaxkNumberOfChipsMax][1024];
		4943
		4944	int DRSBoard::CalibrateVolt(DRSCallback *pcb)
		4945	{
		4946	int i, j, nChan, timingChan, chip, config, p, clkon, refclk, trg1, trg2, n_stuck, readchn, casc;
		4947	double f, r;
		4948	unsigned short buf[1024*16]; // 32 kB
		4949
		4950	f = fNominalFrequency;
		4951	r = fRange;
		4952	clkon = (GetCtrlReg() & BIT_TCAL_EN) > 0;
		4953	refclk = (GetCtrlReg() & BIT_REFCLK_SOURCE) > 0;
		4954	trg1 = fTriggerEnable1;
		4955	trg2 = fTriggerEnable2;
		4956	readchn = fNumberOfReadoutChannels;
		4957	casc = fChannelCascading;
		4958
		4959	Init();
		4960	fNominalFrequency = f;
		4961	SetRefclk(refclk);
		4962	SetFrequency(fNominalFrequency, true);
		4963	SetDominoMode(1);
		4964	SetDominoActive(1);
		4965	SetReadoutMode(1);
		4966	SetInputRange(r);
		4967	if (fBoardType == 5 \|\| fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9)
		4968	SelectClockSource(0);
		4969	else if (fBoardType == 6)
		4970	SetRefclk(refclk);
		4971	EnableTrigger(0, 0);
		4972	if (readchn == 5)
		4973	SetChannelConfig(4, 8, 8); // even channel readout mode
		4974
		4975	// WSROUT toggling causes some noise, so calibrate that out
		4976	if (casc == 2) {
		4977	if (fTransport == TR_USB2)
		4978	SetChannelConfig(0, 8, 4);
		4979	else
		4980	SetChannelConfig(7, 8, 4);
		4981	}
		4982
		4983	StartDomino();
		4984
		4985	nChan = 0;
		4986	timingChan = 0;
		4987
		4988	if (fBoardType == 5 \|\| fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9) {
		4989	if (fBoardType == 9) {
		4990	nChan = 8;
		4991	timingChan = -1;
		4992	} else {
		4993	nChan = 9;
		4994	timingChan = 8;
		4995	}
		4996
		4997	/* measure offset */
		4998	if (fBoardType == 5)
		4999	EnableAcal(0, 0); // no inputs signal is allowed during calibration!
		5000	else
		5001	EnableAcal(1, 0); // disconnect analog inputs
		5002	EnableTcal(0, 0);
		5003	Sleep(100);
		5004	RobustAverageWaveforms(pcb, 1, nChan, 0, 25, wf1[0], 200, true);
		5005
		5006	/* measure gain at upper range */
		5007	EnableAcal(1, fRange+0.4);
		5008	EnableTcal(0, 1);
		5009	Sleep(100);
		5010	RobustAverageWaveforms(pcb, 1, nChan, 25, 50, wf2[0], 200, true);
		5011
		5012	} else if (fBoardType == 6) {
		5013	if (fTransport == TR_USB2) {
		5014	nChan = 36;
		5015	timingChan = 8;
		5016	memset(wf1, 0, sizeof(wf1));
		5017	memset(wf2, 0, sizeof(wf2));
		5018	memset(wf3, 0, sizeof(wf3));
		5019	for (config=p=0 ; config<4 ; config++) {
		5020	SetChannelConfig(config, 8, 8);
		5021
		5022	/* measure offset */
		5023	EnableAcal(1, 0);
		5024	EnableTcal(0, 0);
		5025	Sleep(100);
		5026	RobustAverageWaveforms(pcb, 0, 10, F1(p), F1(p+1), wft[0], 500, true); p++;
		5027	for (i=0 ; i<5 ; i++)
		5028	memcpy(wf1[idx[config][i]], wft[i2], sizeof(float)kNumberOfBins);
		5029	RobustAverageWaveforms(pcb, 2, 10, F1(p), F1(p+1), wft[0], 500, true); p++;
		5030	for (i=0 ; i<5 ; i++)
		5031	memcpy(wf1[idx[config][i+5]], wft[i2], sizeof(float)kNumberOfBins);
		5032
		5033	/* measure gain at +400 mV */
		5034	EnableAcal(1, 0.4);
		5035	EnableTcal(0, 0);
		5036	Sleep(100);
		5037	RobustAverageWaveforms(pcb, 0, 8, F1(p), F1(p+1), wft[0], 500, true); p++;
		5038	for (i=0 ; i<4 ; i++)
		5039	memcpy(wf2[idx[config][i]], wft[i2], sizeof(float)kNumberOfBins);
		5040	RobustAverageWaveforms(pcb, 2, 8, F1(p), F1(p+1), wft[0], 500, true); p++;
		5041	for (i=0 ; i<4 ; i++)
		5042	memcpy(wf2[idx[config][i+5]], wft[i2], sizeof(float)kNumberOfBins);
		5043
		5044	/* measure gain at -400 mV */
		5045	EnableAcal(1, -0.4);
		5046	EnableTcal(0, 1);
		5047	Sleep(100);
		5048	RobustAverageWaveforms(pcb, 0, 8, F1(p), F1(p+1), wft[0], 500, true); p++;
		5049	for (i=0 ; i<4 ; i++)
		5050	memcpy(wf3[idx[config][i]], wft[i], sizeof(float)*kNumberOfBins);
		5051	RobustAverageWaveforms(pcb, 2, 8, F1(p), F1(p+1), wft[0], 500, true); p++;
		5052	for (i=0 ; i<4 ; i++)
		5053	memcpy(wf3[idx[config][i+5]], wft[i], sizeof(float)*kNumberOfBins);
		5054	}
		5055	} else {
		5056	nChan = 36;
		5057	timingChan = 8;
		5058
		5059	/* measure offset */
		5060	EnableAcal(0, 0); // no inputs signal is allowed during calibration!
		5061	EnableTcal(0, 0);
		5062	Sleep(100);
		5063	RobustAverageWaveforms(pcb, 4, 9, 0, 25, wf1[0], 500, true);
		5064
		5065	/* measure gain at upper range */
		5066	EnableAcal(1, fRange+0.4);
		5067	EnableTcal(0, 0);
		5068	Sleep(100);
		5069	RobustAverageWaveforms(pcb, 4, 9, 25, 50, wf2[0], 500, true);
		5070	}
		5071	}
		5072
		5073	/* convert offsets and gains to 16-bit values */
		5074	memset(fCellOffset, 0, sizeof(fCellOffset));
		5075	n_stuck = 0;
		5076	for (i=0 ; i<nChan ; i++) {
		5077	for (j=0 ; j<kNumberOfBins; j++) {
		5078	if (i % 9 == timingChan) {
		5079	/* calculate offset and gain for timing channel */
		5080	if (fBoardType == 5 \|\| fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9) {
		5081	/* we have a +325mV and a -325mV value */
		5082	fCellOffset[i][j] = (unsigned short) ((wf1[i][j]+wf2[i][j])/2+0.5);
		5083	fCellGain[i][j] = (wf2[i][j] - wf1[i][j])/65536.0*1000 / 650.0;
		5084	} else {
		5085	/* only have offset */
		5086	fCellOffset[i][j] = wf1[i][j];
		5087	fCellGain[i][j] = 1;
		5088	}
		5089	} else {
		5090	/* calculate offset and gain for data channel */
		5091	fCellOffset[i][j] = wf1[i][j];
		5092	if (fCellOffset[i][j] < 100) {
		5093	// mark stuck pixel
		5094	n_stuck ++;
		5095	fCellOffset[i][j] = 0;
		5096	fCellGain[i][j] = 1;
		5097	} else
		5098	fCellGain[i][j] = (wf2[i][j] - fCellOffset[i][j])/65536.01000 / ((0.4+fRange)1000);
		5099	}
		5100
		5101	/* check gain */
		5102	if (fCellGain[i][j] < 0.5 \|\| fCellGain[i][j] > 1.1) {
		5103	if ((fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9) && i % 2 == 1) {
		5104	/* channels are not connected, so don't print error */
		5105	} else {
		5106	printf("Gain of %6.3lf for channel %2d, cell %4d out of range 0.5 ... 1.1\n",
		5107	fCellGain[i][j], i, j);
		5108	}
		5109	fCellGain[i][j] = 1;
		5110	}
		5111	}
		5112	}
		5113
		5114	/*
		5115	FILE *fh = fopen("calib.txt", "wt");
		5116	for (i=0 ; i<nChan ; i++) {
		5117	fprintf(fh, "CH%02d:", i);
		5118	for (j=0 ; j<20 ; j++)
		5119	fprintf(fh, " %5d", fCellOffset[i][j]-32768);
		5120	fprintf(fh, "\n");
		5121	}
		5122	fclose(fh);
		5123	*/
		5124
		5125	/* perform secondary calibration */
		5126	if (fBoardType == 5 \|\| fBoardType == 7 \|\| fBoardType == 8 \|\| fBoardType == 9) {
		5127	nChan = 9;
		5128	timingChan = 8;
		5129
		5130	/* measure offset */
		5131	if (fBoardType == 5)
		5132	EnableAcal(0, 0); // no inputs signal is allowed during calibration!
		5133	else
		5134	EnableAcal(1, 0); // disconnect analog inputs
		5135	EnableTcal(0, 0);
		5136	Sleep(100);
		5137	AverageWaveforms(pcb, 1, 9, 50, 90, wf1[0], 500, false);
		5138	} else if (fBoardType == 6 && fTransport == TR_VME) {
		5139	nChan = 36;
		5140	timingChan = 8;
		5141
		5142	/* measure offset */
		5143	EnableAcal(0, 0); // no inputs signal is allowed during calibration!
		5144	EnableTcal(0, 0);
		5145	Sleep(100);
		5146	AverageWaveforms(pcb, 4, 9, 50, 75, wf1[0], 500, false);
		5147	}
		5148
		5149	/* convert offset to 16-bit values */
		5150	memset(fCellOffset2, 0, sizeof(fCellOffset2));
		5151	for (i=0 ; i<nChan ; i++)
		5152	for (j=0 ; j<kNumberOfBins; j++)
		5153	if (i % 9 != timingChan)
		5154	fCellOffset2[i][j] = wf1[i][j];
		5155
		5156	/*
		5157	FILE *fh = fopen("calib.txt", "wt");
		5158	for (i=0 ; i<nChan ; i++) {
		5159	for (j=0 ; j<kNumberOfBins; j++)
		5160	fprintf(fh, "%5d: %5d %5d\n", j, fCellOffset2[0][j]-32768, fCellOffset2[1][j]-32768);
		5161	fprintf(fh, "\n");
		5162	}
		5163	fclose(fh);
		5164	*/
		5165
		5166	if (fBoardType == 9) {
		5167	/* write calibration CH0-CH7 to EEPROM page 1 */
		5168	for (i=0 ; i<8 ; i++)
		5169	for (j=0 ; j<1024; j++) {
		5170	buf[(i1024+j)2] = fCellOffset[i][j];
		5171	buf[(i1024+j)2+1] = (unsigned short) ((fCellGain[i][j] - 0.7) / 0.4 * 65535);
		5172	}
		5173	WriteEEPROM(1, buf, 1024*32);
		5174	if (pcb != NULL)
		5175	pcb->Progress(93);
		5176
		5177
		5178	/* write secondary calibration to EEPROM page 2 */
		5179	ReadEEPROM(2, buf, 1024*32);
		5180	for (i=0 ; i<8 ; i++)
		5181	for (j=0 ; j<1024; j++)
		5182	buf[(i1024+j)2] = fCellOffset2[i][j];
		5183	WriteEEPROM(2, buf, 1024*32);
		5184	if (pcb != NULL)
		5185	pcb->Progress(96);
		5186
		5187	/* update page # 0 */
		5188	ReadEEPROM(0, buf, 4096); // 0-0x0FFF
		5189	/* write calibration method */
		5190	buf[2] = (buf[2] & 0xFF00) \| VCALIB_METHOD;
		5191	/* write temperature and range */
		5192	buf[10] = ((unsigned short) (GetTemperature() * 2 + 0.5) << 8) \| ((signed char)(fRange * 100));
		5193	buf[11] = 1; // EEPROM page #1+2
		5194	WriteEEPROM(0, buf, 4096);
		5195	fCellCalibratedRange = fRange;
		5196	if (pcb != NULL)
		5197	pcb->Progress(100);
		5198
		5199
		5200	} else if (fBoardType == 5 \|\| fBoardType == 7 \|\| fBoardType == 8) {
		5201	/* write calibration CH0-CH7 to EEPROM page 1 */
		5202	for (i=0 ; i<8 ; i++)
		5203	for (j=0 ; j<1024; j++) {
		5204	buf[(i1024+j)2] = fCellOffset[i][j];
		5205	buf[(i1024+j)2+1] = (unsigned short) ((fCellGain[i][j] - 0.7) / 0.4 * 65535);
		5206	}
		5207	WriteEEPROM(1, buf, 1024*32);
		5208
		5209	/* write calibration CH8 and secondary calibration to EEPROM page 2 */
		5210	for (j=0 ; j<1024; j++) {
		5211	buf[j*2] = fCellOffset[8][j];
		5212	buf[j2+1] = (unsigned short) ((fCellGain[8][j] - 0.7) / 0.4 65535);
		5213	}
		5214	for (i=0 ; i<4 ; i++)
		5215	for (j=0 ; j<1024; j++) {
		5216	buf[21024+(i1024+j)2] = fCellOffset2[i2][j];
		5217	buf[21024+(i1024+j)2+1] = fCellOffset2[i2+1][j];
		5218	}
		5219	WriteEEPROM(2, buf, 102454);
		5220
		5221	/* write calibration method and range */
		5222	ReadEEPROM(0, buf, 2048); // 0-0x0FFF
		5223	buf[2] = VCALIB_METHOD_V4 \| ((signed char)(fRange * 100)) << 8;
		5224	WriteEEPROM(0, buf, 2048);
		5225	fCellCalibratedRange = fRange;
		5226
		5227	} else if (fBoardType == 6) {
		5228	for (chip=0 ; chip<4 ; chip++) {
		5229	/* write calibration of A0 to A7 to EEPROM page 1
		5230	B0 to B7 to EEPROM page 2 and so on */
		5231	for (i=0 ; i<8 ; i++)
		5232	for (j=0 ; j<1024; j++) {
		5233	buf[(i1024+j)2] = fCellOffset[i+chip*9][j];
		5234	buf[(i1024+j)2+1] = (unsigned short) ((fCellGain[i+chip9][j] - 0.7) / 0.4 65535);
		5235	}
		5236	WriteEEPROM(1+chip, buf, 1024*32);
		5237	if (pcb != NULL)
		5238	pcb->Progress(75+chip*4);
		5239	}
		5240
		5241	/* write calibration A/B/C/D/CLK to EEPROM page 5 */
		5242	ReadEEPROM(5, buf, 102444);
		5243	for (chip=0 ; chip<4 ; chip++) {
		5244	for (j=0 ; j<1024; j++) {
		5245	buf[j2+chip0x0800] = fCellOffset[8+chip*9][j];
		5246	buf[j2+1+chip0x0800] = (unsigned short) ((fCellGain[8+chip9][j] - 0.7) / 0.4 65535);
		5247	}
		5248	}
		5249	WriteEEPROM(5, buf, 102444);
		5250	if (pcb != NULL)
		5251	pcb->Progress(90);
		5252
		5253	/* write secondary calibration to EEPROM page 7 and 8 */
		5254	for (i=0 ; i<8 ; i++) {
		5255	for (j=0 ; j<1024; j++) {
		5256	buf[i0x800 + j2] = fCellOffset2[i][j];
		5257	buf[i0x800 + j2+1] = fCellOffset2[i+9][j];
		5258	}
		5259	}
		5260	WriteEEPROM(7, buf, 1024*32);
		5261	if (pcb != NULL)
		5262	pcb->Progress(94);
		5263
		5264	for (i=0 ; i<8 ; i++) {
		5265	for (j=0 ; j<1024; j++) {
		5266	buf[i0x800 + j2] = fCellOffset2[i+18][j];
		5267	buf[i0x800 + j2+1] = fCellOffset2[i+27][j];
		5268	}
		5269	}
		5270	WriteEEPROM(8, buf, 1024*32);
		5271	if (pcb != NULL)
		5272	pcb->Progress(98);
		5273
		5274	/* write calibration method and range */
		5275	ReadEEPROM(0, buf, 2048); // 0-0x0FFF
		5276	buf[2] = VCALIB_METHOD \| ((signed char)(fRange * 100)) << 8;
		5277	WriteEEPROM(0, buf, 2048);
		5278	fCellCalibratedRange = fRange;
		5279	if (pcb != NULL)
		5280	pcb->Progress(100);
		5281	}
		5282
		5283	if (n_stuck)
		5284	printf("\nFound %d stuck pixels on this board\n", n_stuck);
		5285
		5286	fVoltageCalibrationValid = true;
		5287
		5288	/* remove calibration voltage */
		5289	EnableAcal(0, 0);
		5290	EnableTcal(clkon, 0);
		5291	EnableTrigger(trg1, trg2);
		5292
		5293	return 1;
		5294	}
		5295
		5296	/------------------------------------------------------------------/
		5297
		5298	int DRSBoard::AnalyzeSlope(Averager *ave, int iIter, int nIter, int channel, float wf[kNumberOfBins], int tCell,
		5299	double cellDV[kNumberOfBins], double cellDT[kNumberOfBins])
		5300	{
		5301	int i;
		5302	float dv, llim, ulim;
		5303	double sum, dtCell;
		5304
		5305	if (fNominalFrequency > 3) {
		5306	llim = -100;
		5307	ulim = 100;
		5308	} else {
		5309	llim = -300;
		5310	ulim = 300;
		5311	}
		5312
		5313	// rising edges ----
		5314
		5315	// skip first cells after trigger cell
		5316	for (i=tCell+5 ; i<tCell+kNumberOfBins-5 ; i++) {
		5317	// test slope between previous and next cell to allow for negative cell width
		5318	if (wf[(i+kNumberOfBins-1) % kNumberOfBins] < wf[(i+2) % kNumberOfBins] &&
		5319	wf[i % kNumberOfBins] > llim &&
		5320	wf[(i+1) % kNumberOfBins] < ulim) {
		5321
		5322	// calculate delta_v
		5323	dv = wf[(i+1) % kNumberOfBins] - wf[i % kNumberOfBins];
		5324
		5325	// average delta_v
		5326	ave->Add(0, channel, i % kNumberOfBins, dv);
		5327	}
		5328	}
		5329
		5330	// falling edges ----
		5331
		5332	// skip first cells after trigger cell
		5333	for (i=tCell+5 ; i<tCell+kNumberOfBins-5 ; i++) {
		5334	// test slope between previous and next cell to allow for negative cell width
		5335	if (wf[(i+kNumberOfBins-1) % kNumberOfBins] > wf[(i+2) % kNumberOfBins] &&
		5336	wf[i % kNumberOfBins] < ulim &&
		5337	wf[(i+1) % kNumberOfBins] > llim) {
		5338
		5339	// calcualte delta_v
		5340	dv = wf[(i+1) % kNumberOfBins] - wf[i % kNumberOfBins];
		5341
		5342	ave->Add(0, channel, i % kNumberOfBins, -dv);
		5343	}
		5344	}
		5345
		5346	// calculate calibration every 100 events
		5347	if ((iIter + 1) % 100 == 0) {
		5348	// average over all 1024 dU
		5349	sum = 0;
		5350	for (i=0 ; i<kNumberOfBins ; i++) {
		5351
		5352	if (fBoardType == 8)
		5353	cellDV[i] = ave->Median(0, channel, i);
		5354	else {
		5355	// use empirically found limits for averaging
		5356	if (fNominalFrequency >= 4)
		5357	cellDV[i] = ave->RobustAverage(3, 0, channel, i);
		5358	else if (fNominalFrequency >= 3)
		5359	cellDV[i] = ave->RobustAverage(6, 0, channel, i);
		5360	else
		5361	cellDV[i] = ave->Median(0, channel, i);
		5362	}
		5363
		5364	sum += cellDV[i];
		5365	}
		5366
		5367	sum /= kNumberOfBins;
		5368	dtCell = (float)1/fNominalFrequency;
		5369
		5370	// here comes the central calculation, dT = dV/average * dt_cell
		5371	for (i=0 ; i<kNumberOfBins ; i++)
		5372	cellDT[i] = cellDV[i] / sum * dtCell;
		5373	}
		5374
		5375	return 1;
		5376	}
		5377
		5378	/------------------------------------------------------------------/
		5379
		5380	int DRSBoard::AnalyzePeriod(Averager *ave, int iIter, int nIter, int channel, float wf[kNumberOfBins], int tCell,
		5381	double cellDV[kNumberOfBins], double cellDT[kNumberOfBins])
		5382	{
		5383	int i, i1, i2, j, nzx, zeroXing[1000], edge, n_correct, nest;
		5384	double damping, zeroLevel, tPeriod, corr, dv, dv_limit, corr_limit;
		5385
		5386	/* calculate zero level */
		5387	for (i=0,zeroLevel=0 ; i<1024 ; i++)
		5388	zeroLevel += wf[i];
		5389	zeroLevel /= 1024;
		5390
		5391	/* correct for zero common mode */
		5392	for (i=0 ; i<1024 ; i++)
		5393	wf[i] -= (float)zeroLevel;
		5394
		5395	/* estimate damping factor */
		5396	if (fBoardType == 9)
		5397	damping = 0.01;
		5398	else
		5399	damping = fNominalFrequency / nIter * 2 ;
		5400
		5401	/* estimate number of zero crossings */
		5402	nest = (int) (1/fNominalFrequency1024 / (1/fTCALFrequency1000));
		5403
		5404	if (fNominalFrequency >= 4)
		5405	dv_limit = 4;
		5406	else if (fNominalFrequency >= 3)
		5407	dv_limit = 6;
		5408	else
		5409	dv_limit = 10000;
		5410
		5411	for (edge = 0 ; edge < 2 ; edge ++) {
		5412
		5413	/* find edge zero crossing with wrap-around */
		5414	for (i=tCell+5,nzx=0 ; i<tCell+1023-5 && nzx < (int)(sizeof(zeroXing)/sizeof(int)) ; i++) {
		5415	dv = fabs(wf[(i+1) % 1024] - wf[i % 1024]);
		5416
		5417	if (edge == 0) {
		5418	if (wf[(i+1) % 1024] < 0 && wf[i % 1024] > 0) { // falling edge
		5419	if (fBoardType != 9 \|\| fabs(dv-cellDV[i % 1024]) < dv_limit) // only if DV is not more the dv_limit away from average
		5420	zeroXing[nzx++] = i % 1024;
		5421	}
		5422	} else {
		5423	if (wf[(i+1) % 1024] > 0 && wf[i % 1024] < 0) { // rising edge
		5424	if (fBoardType != 9 \|\| fabs(dv-cellDV[i % 1024]) < dv_limit)
		5425	zeroXing[nzx++] = i % 1024;
		5426	}
		5427	}
		5428	}
		5429
		5430	/* abort if uncorrect number of edges is found */
		5431	if (abs(nest - nzx) > nest / 3)
		5432	return 0;
		5433
		5434	for (i=n_correct=0 ; i<nzx-1 ; i++) {
		5435	i1 = zeroXing[i];
		5436	i2 = zeroXing[i+1];
		5437	if (i1 == 1023 \|\| i2 == 1023)
		5438	continue;
		5439
		5440	if (wf[(i1 + 1) % 1024] == 0 \|\| wf[i2 % 1024] == 0)
		5441	continue;
		5442
		5443	/* first partial cell */
		5444	tPeriod = cellDT[i1]*(1/(1-wf[i1]/wf[(i1 + 1) % 1024]));
		5445
		5446	/* full cells between i1 and i2 */
		5447	if (i2 < i1)
		5448	i2 += 1024;
		5449
		5450	for (j=i1+1 ; j<i2 ; j++)
		5451	tPeriod += cellDT[j % 1024];
		5452
		5453	/* second partial cell */
		5454	tPeriod += cellDT[i2 % 1024]*(1/(1-wf[(i2+1) % 1024]/wf[i2 % 1024]));
		5455
		5456	/* calculate correction to nominal period as a fraction */
		5457	corr = (1/fTCALFrequency*1000) / tPeriod;
		5458
		5459	/* skip very large corrections (noise) */
		5460	if (fBoardType == 9 && fNominalFrequency >= 2)
		5461	corr_limit = 0.001;
		5462	else if (fBoardType == 9)
		5463	corr_limit = 0.004;
		5464	else
		5465	corr_limit = 0.01;
		5466
		5467	if (fBoardType == 9 && fabs(1-corr) > corr_limit)
		5468	continue;
		5469
		5470	/* remeber number of valid corrections */
		5471	n_correct++;
		5472
		5473	/* apply damping factor */
		5474	corr = (corr-1)*damping + 1;
		5475
		5476	/* apply from i1 to i2-1 inclusive */
		5477	if (i1 == i2)
		5478	continue;
		5479
		5480	/* distribute correciton equally into bins inside the region ... */
		5481	for (j=i1 ; j<=i2 ; j++)
		5482	cellDT[j % 1024] *= corr;
		5483
		5484	/* test correction */
		5485	tPeriod = cellDT[i1]*(1/(1-wf[i1]/wf[(i1 + 1) % 1024]));
		5486	for (j=i1+1 ; j<i2 ; j++)
		5487	tPeriod += cellDT[j % 1024];
		5488	tPeriod += cellDT[i2]*(1/(1-wf[(i2+1) % 1024]/wf[i2]));
		5489	}
		5490
		5491	if (n_correct < nzx/3)
		5492	return 0;
		5493	}
		5494
		5495	return 1;
		5496	}
		5497
		5498	/------------------------------------------------------------------/
		5499
		5500
		5501	int DRSBoard::CalibrateTiming(DRSCallback *pcb)
		5502	{
		5503	int index, status, error, tCell, i, j, c, chip, mode, nIterPeriod, nIterSlope, clkon, phase, refclk, trg1, trg2, n_error, channel;
		5504	double f, range, tTrue, tRounded, dT, t1[8], t2[8], cellDV[kNumberOfChipsMax*kNumberOfChannelsMax][kNumberOfBins];
		5505	unsigned short buf[1024*16]; // 32 kB
		5506	float wf[1024];
		5507	Averager *ave = NULL;
		5508
		5509	nIterPeriod = 5000;
		5510	nIterSlope = 5000;
		5511	n_error = 0;
		5512	refclk = 0;
		5513	f = fNominalFrequency;
		5514	range = fRange;
		5515	clkon = (GetCtrlReg() & BIT_TCAL_EN) > 0;
		5516	if (fBoardType == 6)
		5517	refclk = (GetCtrlReg() & BIT_REFCLK_SOURCE) > 0;
		5518	trg1 = fTriggerEnable1;
		5519	trg2 = fTriggerEnable2;
		5520
		5521	Init();
		5522	fNominalFrequency = f;
		5523	fTimingCalibratedFrequency = 0;
		5524	if (fBoardType == 6) // don't set refclk for evaluation boards
		5525	SetRefclk(refclk);
		5526	SetFrequency(fNominalFrequency, true);
		5527	if (fBoardType == 5 \|\| fBoardType == 7 \|\| fBoardType == 8)
		5528	fTCALFrequency = 132; // 132 MHz for EVAL1, for MEZZ this is set by ConfigureLMK
		5529	else if (fBoardType == 9)
		5530	fTCALFrequency = 100;
		5531	SetDominoMode(1);
		5532	SetDominoActive(1);
		5533	SetReadoutMode(1);
		5534	EnableTrigger(0, 0);
		5535	if (fBoardType == 5 \|\| fBoardType == 7) {
		5536	EnableTcal(1, 0, 0);
		5537	SelectClockSource(1); // 2nd quartz
		5538	} else if (fBoardType == 8) {
		5539	nIterSlope = 0;
		5540	nIterPeriod = 1500;
		5541	EnableTcal(1, 0, 0);
		5542	SelectClockSource(1); // 2nd quartz
		5543	ave = new Averager(1, 1, 1024, 500); // one chip, 1 channel @ 1024 bins
		5544	} else if (fBoardType == 9) {
		5545	EnableTcal(1);
		5546	nIterSlope = 500;
		5547	nIterPeriod = 500;
		5548	ave = new Averager(1, 9, 1024, 500); // one chip, 9 channels @ 1024 bins
		5549	}
		5550	StartDomino();
		5551
		5552	/* initialize time array */
		5553	for (i=0 ; i<1024 ; i++)
		5554	for (chip=0 ; chip<4 ; chip++)
		5555	for (channel = 0 ; channel < 8 ; channel++) {
		5556	fCellDT[chip][channel][i] = (float)1/fNominalFrequency; // [ns]
		5557	}
		5558
		5559	error = 0;
		5560
		5561	for (index = 0 ; index < nIterSlope+nIterPeriod ; index++) {
		5562	if (index % 10 == 0)
		5563	if (pcb)
		5564	pcb->Progress(100*index/(nIterSlope+nIterPeriod));
		5565
		5566	if (fTransport == TR_VME) {
		5567	SoftTrigger();
		5568	while (IsBusy());
		5569
		5570	/* select random phase */
		5571	phase = (rand() % 30) - 15;
		5572	if (phase == 0)
		5573	phase = 15;
		5574	EnableTcal(1, 0, phase);
		5575
		5576	StartDomino();
		5577	TransferWaves();
		5578
		5579	for (chip=0 ; chip<4 ; chip++) {
		5580	tCell = GetStopCell(chip);
		5581	GetWave(chip, 8, wf, true, tCell, 0, true);
		5582	status = AnalyzePeriod(ave, index, nIterPeriod, 0, wf, tCell, cellDV[chip], fCellDT[chip][0]);
		5583
		5584	if (!status)
		5585	n_error++;
		5586
		5587	if (n_error > nIterPeriod / 10) {
		5588	error = 1;
		5589	break;
		5590	}
		5591	}
		5592	} else {
		5593	if (fBoardType == 5 \|\| fBoardType == 7 \|\| fBoardType == 8) { // DRS4 Evaluation board: 1 Chip
		5594	SoftTrigger();
		5595	while (IsBusy());
		5596
		5597	StartDomino();
		5598	TransferWaves();
		5599
		5600	tCell = GetStopCell(0);
		5601	GetWave(0, 8, wf, true, tCell, 0, true);
		5602
		5603	if (index < nIterSlope)
		5604	status = AnalyzeSlope(ave, index, nIterSlope, 0, wf, tCell, cellDV[0], fCellDT[0][0]);
		5605	else
		5606	status = AnalyzePeriod(ave, index, nIterPeriod, 0, wf, tCell, cellDV[0], fCellDT[0][0]);
		5607
		5608	if (!status)
		5609	n_error++;
		5610
		5611	if (n_error > nIterPeriod / 10) {
		5612	error = 1;
		5613	break;
		5614	}
		5615	} else if (fBoardType == 9) { // DRS4 Evaluation board V5: all channels from one chip
		5616	SoftTrigger();
		5617	while (IsBusy());
		5618
		5619	StartDomino();
		5620	TransferWaves();
		5621
		5622	// calibrate all channels individually
		5623	for (channel = 0 ; channel < 8 ; channel+=2) {
		5624	tCell = GetStopCell(0);
		5625	GetWave(0, channel, wf, true, tCell, 0, true);
		5626
		5627	if (index < nIterSlope)
		5628	status = AnalyzeSlope(ave, index, nIterSlope, channel, wf, tCell, cellDV[channel], fCellDT[0][channel]);
		5629	else
		5630	status = AnalyzePeriod(ave, index, nIterPeriod, channel, wf, tCell, cellDV[channel], fCellDT[0][channel]);
		5631
		5632	if (!status)
		5633	n_error++;
		5634
		5635	if (n_error > nIterPeriod / 2) {
		5636	error = 1;
		5637	break;
		5638	}
		5639	}
		5640	if (!status)
		5641	break;
		5642
		5643	} else { // DRS4 Mezzanine board: 4 Chips
		5644	for (mode=0 ; mode<2 ; mode++) {
		5645	SetChannelConfig(mode*2, 8, 8);
		5646	SoftTrigger();
		5647	while (IsBusy());
		5648
		5649	/* select random phase */
		5650	phase = (rand() % 30) - 15;
		5651	if (phase == 0)
		5652	phase = 15;
		5653	EnableTcal(1, 0, phase);
		5654
		5655	StartDomino();
		5656	TransferWaves();
		5657
		5658	for (chip=0 ; chip<4 ; chip+=2) {
		5659	tCell = GetStopCell(chip+mode);
		5660	GetWave(chip+mode, 8, wf, true, tCell, 0, true);
		5661	status = AnalyzePeriod(ave, index, nIterPeriod, 0, wf, tCell, cellDV[chip+mode], fCellDT[chip+mode][0]);
		5662
		5663	if (!status) {
		5664	error = 1;
		5665	break;
		5666	}
		5667	}
		5668	if (!status)
		5669	break;
		5670
		5671	}
		5672	}
		5673	}
		5674	}
		5675
		5676	if (pcb)
		5677	pcb->Progress(100);
		5678
		5679	// DRS4 Evaluation board V5: copy even channels to odd channels (usually not connected)
		5680	if (fBoardType == 9) {
		5681	for (channel = 0 ; channel < 8 ; channel+=2)
		5682	memcpy(fCellDT[0][channel+1], fCellDT[0][channel], sizeof(unsigned short)*1024);
		5683	}
		5684
		5685	// use following lines to save calibration into an ASCII file
		5686	#if 0
		5687	FILE *fh;
		5688
		5689	fh = fopen("cellt.csv", "wt");
		5690	if (!fh)
		5691	printf("Cannot open file \"cellt.csv\"\n");
		5692	else {
		5693	fprintf(fh, "index,dt_ch1,dt_ch2,dt_ch3,dt_ch4\n");
		5694	for (i=0 ; i<1024 ; i++)
		5695	fprintf(fh, "%4d,%5.3lf,%5.3lf,%5.3lf,%5.3lf\n", i, fCellDT[0][0][i], fCellDT[0][2][i], fCellDT[0][4][i], fCellDT[0][6][i]);
		5696	fclose(fh);
		5697	}
		5698	#endif
		5699
		5700	if (fBoardType == 5 \|\| fBoardType == 7 \|\| fBoardType == 8) {
		5701	/* write timing calibration to EEPROM page 0 */
		5702	ReadEEPROM(0, buf, sizeof(buf));
		5703	for (i=0,t1[0]=0 ; i<1024; i++)
		5704	buf[i2+1] = (unsigned short) (fCellDT[0][0][i] 10000 + 0.5);
		5705
		5706	/* write calibration method and frequency */
		5707	buf[4] = TCALIB_METHOD_V4;
		5708	buf[6] = (unsigned short)(fNominalFrequency*1000+0.5);
		5709
		5710	fTimingCalibratedFrequency = fNominalFrequency;
		5711	WriteEEPROM(0, buf, sizeof(buf));
		5712
		5713	// copy calibration to all channels
		5714	for (i=1 ; i<8 ; i++)
		5715	for (j=0 ; j<1024; j++)
		5716	fCellDT[0][i][j] = fCellDT[0][0][j];
		5717
		5718	} else if (fBoardType == 9) {
		5719
		5720	/* write timing calibration to EEPROM page 2 */
		5721	ReadEEPROM(2, buf, sizeof(buf));
		5722	for (i=0 ; i<8 ; i++) {
		5723	tTrue = 0; // true cellT
		5724	tRounded = 0; // rounded cellT
		5725	for (j=0 ; j<1024; j++) {
		5726	tTrue += fCellDT[0][i][j];
		5727	dT = tTrue - tRounded;
		5728	// shift by 1 ns to allow negative widths
		5729	dT = (unsigned short) (dT*10000+1000+0.5);
		5730	tRounded += (dT - 1000) / 10000.0;
		5731	buf[(i1024+j)2+1] = (unsigned short) dT;
		5732	}
		5733	}
		5734	WriteEEPROM(2, buf, sizeof(buf));
		5735
		5736	/* write calibration method and frequency to EEPROM page 0 */
		5737	ReadEEPROM(0, buf, sizeof(buf));
		5738	buf[4] = 1; // number of calibrations
		5739	buf[2] = (TCALIB_METHOD << 8) \| (buf[2] & 0xFF); // calibration method
		5740	float fl = (float) fNominalFrequency;
		5741	memcpy(&buf[8], &fl, sizeof(float)); // exact freqeuncy
		5742
		5743	fTimingCalibratedFrequency = fNominalFrequency;
		5744	WriteEEPROM(0, buf, sizeof(buf));
		5745
		5746	} else {
		5747
		5748	/* write timing calibration to EEPROM page 6 */
		5749	ReadEEPROM(6, buf, sizeof(buf));
		5750	for (c=0 ; c<4 ; c++)
		5751	t1[c] = 0;
		5752	for (i=0 ; i<1024; i++) {
		5753	for (c=0 ; c<4 ; c++) {
		5754	t2[c] = fCellDT[0][c][i] - t1[c];
		5755	t2[c] = (unsigned short) (t2[c] * 10000 + 0.5);
		5756	t1[c] += t2[c] / 10000.0;
		5757	}
		5758	buf[i*2] = (unsigned short) t2[0];
		5759	buf[i*2+1] = (unsigned short) t2[1];
		5760	buf[i*2+0x800] = (unsigned short) t2[2];
		5761	buf[i*2+0x800+1] = (unsigned short) t2[3];
		5762	}
		5763	WriteEEPROM(6, buf, sizeof(buf));
		5764
		5765	/* write calibration method and frequency */
		5766	ReadEEPROM(0, buf, 16);
		5767	buf[4] = TCALIB_METHOD;
		5768	buf[6] = (unsigned short) (fNominalFrequency * 1000 + 0.5);
		5769	fTimingCalibratedFrequency = buf[6] / 1000.0;
		5770	WriteEEPROM(0, buf, 16);
		5771	}
		5772
		5773	if (ave)
		5774	delete ave;
		5775
		5776	/* remove calibration voltage */
		5777	EnableAcal(0, 0);
		5778	EnableTcal(clkon, 0);
		5779	SetInputRange(range);
		5780	EnableTrigger(trg1, trg2);
		5781
		5782	if (error)
		5783	return 0;
		5784
		5785	return 1;
		5786	}
		5787
		5788
		5789	/------------------------------------------------------------------/
		5790
		5791
		5792	void DRSBoard::RemoveSymmetricSpikes(short **wf, int nwf,
		5793	short diffThreshold, int spikeWidth,
		5794	short maxPeakToPeak, short spikeVoltage,
		5795	int nTimeRegionThreshold)
		5796	{
		5797	// Remove a specific kind of spike on DRS4.
		5798	// This spike has some features,
		5799	// - Common on all the channels on a chip
		5800	// - Constant heigh and width
		5801	// - Two spikes per channel
		5802	// - Symmetric to cell #0.
		5803	//
		5804	// This is not general purpose spike-removing function.
		5805	//
		5806	// wf : Waveform data. cell#0 must be at bin0,
		5807	// and number of bins must be kNumberOfBins.
		5808	// nwf : Number of channels which "wf" holds.
		5809	// diffThreshold : Amplitude threshold to find peak
		5810	// spikeWidth : Width of spike
		5811	// maxPeakToPeak : When peak-to-peak is larger than this, the channel
		5812	// is not used to find spikes.
		5813	// spikeVoltage : Amplitude of spikes. When it is 0, it is calculated in this function
		5814	// from voltage difference from neighboring bins.
		5815	// nTimeRegionThreshold : Requirement of number of time regions having spike at common position.
		5816	// Total number of time regions is 2*"nwf".
		5817
		5818	if (!wf \|\| !nwf \|\| !diffThreshold \|\| !spikeWidth) {
		5819	return;
		5820	}
		5821
		5822	int ibin, jbin, kbin;
		5823	double v;
		5824	int nbin;
		5825	int iwf;
		5826	short maximum, minimum;
		5827	int spikeCount[kNumberOfBins / 2];
		5828	int spikeCountSum[kNumberOfBins / 2] = {0};
		5829	bool largePulse[kNumberOfChannelsMax * 2] = {0};
		5830	const short diffThreshold2 = diffThreshold + diffThreshold;
		5831
		5832	const short maxShort = 0xFFFF>>1;
		5833	const short minShort = -maxShort - 1;
		5834
		5835	// search spike
		5836	for (iwf = 0; iwf < nwf; iwf++) {
		5837	// first half
		5838	memset(spikeCount, 0, sizeof(spikeCount));
		5839	maximum = minShort;
		5840	minimum = maxShort;
		5841	for (ibin = 0; ibin < kNumberOfBins / 2; ibin++) {
		5842	jbin = ibin;
		5843	maximum = max(maximum, wf[iwf][jbin]);
		5844	minimum = min(minimum, wf[iwf][jbin]);
		5845	if (jbin - 1 >= 0 && jbin + spikeWidth < kNumberOfBins) {
		5846	v = 0;
		5847	nbin = 0;
		5848	for (kbin = 0; kbin < spikeWidth; kbin++) {
		5849	v += wf[iwf][jbin + kbin];
		5850	nbin++;
		5851	}
		5852	if ((nbin == 2 && v - (wf[iwf][jbin - 1] + wf[iwf][jbin + spikeWidth]) > diffThreshold2) \|\|
		5853	(nbin != 2 && nbin && v / nbin - (wf[iwf][jbin - 1] + wf[iwf][jbin + spikeWidth]) / 2 > diffThreshold)) {
		5854	spikeCount[ibin]++;
		5855	}
		5856	}
		5857	}
		5858	if (maximum != minShort && minimum != maxShort &&
		5859	(!maxPeakToPeak \|\| maximum - minimum < maxPeakToPeak)) {
		5860	for (ibin = 0; ibin < kNumberOfBins / 2; ibin++) {
		5861	spikeCountSum[ibin] += spikeCount[ibin];
		5862	}
		5863	largePulse[iwf] = false;
		5864	#if 0 /* this part can be enabled to skip checking other channels */
		5865	if (maximum != minShort && minimum != maxShort &&
		5866	maximum - minimum < diffThreshold) {
		5867	return;
		5868	}
		5869	#endif
		5870	} else {
		5871	largePulse[iwf] = true;
		5872	}
		5873
		5874	// second half
		5875	memset(spikeCount, 0, sizeof(spikeCount));
		5876	maximum = minShort;
		5877	minimum = maxShort;
		5878	for (ibin = 0; ibin < kNumberOfBins / 2; ibin++) {
		5879	jbin = kNumberOfBins - 1 - ibin;
		5880	maximum = max(maximum, wf[iwf][jbin]);
		5881	minimum = min(minimum, wf[iwf][jbin]);
		5882	if (jbin + 1 < kNumberOfBins && jbin - spikeWidth >= 0) {
		5883	v = 0;
		5884	nbin = 0;
		5885	for (kbin = 0; kbin < spikeWidth; kbin++) {
		5886	v += wf[iwf][jbin - kbin];
		5887	nbin++;
		5888	}
		5889	if ((nbin == 2 && v - (wf[iwf][jbin + 1] + wf[iwf][jbin - spikeWidth]) > diffThreshold2) \|\|
		5890	(nbin != 2 && nbin && v / nbin - (wf[iwf][jbin + 1] + wf[iwf][jbin - spikeWidth]) / 2 > diffThreshold)) {
		5891	spikeCount[ibin]++;
		5892	}
		5893	}
		5894	}
		5895	if (maximum != minShort && minimum != maxShort &&
		5896	maximum - minimum < maxPeakToPeak) {
		5897	for (ibin = 0; ibin < kNumberOfBins / 2; ibin++) {
		5898	spikeCountSum[ibin] += spikeCount[ibin];
		5899	}
		5900	largePulse[iwf + nwf] = false;
		5901	#if 0 /* this part can be enabled to skip checking other channels */
		5902	if (maximum != minShort && minimum != maxShort &&
		5903	maximum - minimum < diffThreshold) {
		5904	return;
		5905	}
		5906	#endif
		5907	} else {
		5908	largePulse[iwf + nwf] = true;
		5909	}
		5910	}
		5911
		5912	// Find common spike
		5913	int commonSpikeBin = -1;
		5914	int commonSpikeMax = -1;
		5915	for (ibin = 0; ibin < kNumberOfBins / 2; ibin++) {
		5916	if (commonSpikeMax < spikeCountSum[ibin]) {
		5917	commonSpikeMax = spikeCountSum[ibin];
		5918	commonSpikeBin = ibin;
		5919	}
		5920	}
		5921
		5922	if (spikeCountSum[commonSpikeBin] >= nTimeRegionThreshold) {
		5923	if (spikeVoltage == 0) {
		5924	// Estimate spike amplitude
		5925	double baseline = 0;
		5926	int nBaseline = 0;
		5927	double peakAmplitude = 0;
		5928	int nPeakAmplitude = 0;
		5929	for (iwf = 0; iwf < nwf; iwf++) {
		5930	// first half
		5931	if (!largePulse[iwf]) {
		5932	// baseline
		5933	if ((jbin = commonSpikeBin - 1) >= 0 && jbin < kNumberOfBins) {
		5934	baseline += wf[iwf][jbin];
		5935	nBaseline++;
		5936	}
		5937	if ((jbin = commonSpikeBin + spikeWidth + 1) >= 0 && jbin < kNumberOfBins) {
		5938	baseline += wf[iwf][jbin];
		5939	nBaseline++;
		5940	}
		5941	// spike
		5942	for (ibin = 0; ibin < spikeWidth; ibin++) {
		5943	if ((jbin = commonSpikeBin + ibin) >= 0 && jbin < kNumberOfBins) {
		5944	peakAmplitude += wf[iwf][jbin];
		5945	nPeakAmplitude++;
		5946	}
		5947	}
		5948	}
		5949
		5950	// second half
		5951	if (!largePulse[iwf + nwf]) {
		5952	// baseline
		5953	if ((jbin = kNumberOfBins - 1 - commonSpikeBin + 1) >= 0 && jbin < kNumberOfBins) {
		5954	baseline += wf[iwf][jbin];
		5955	nBaseline++;
		5956	}
		5957	if ((jbin = kNumberOfBins - 1 - commonSpikeBin - spikeWidth - 1) >= 0 && jbin < kNumberOfBins) {
		5958	baseline += wf[iwf][jbin];
		5959	nBaseline++;
		5960	}
		5961	// spike
		5962	for (ibin = 0; ibin < spikeWidth; ibin++) {
		5963	if ((jbin = kNumberOfBins - 1 - commonSpikeBin - ibin) >= 0 && jbin < kNumberOfBins) {
		5964	peakAmplitude += wf[iwf][jbin];
		5965	nPeakAmplitude++;
		5966	}
		5967	}
		5968	}
		5969	}
		5970	if (nBaseline && nPeakAmplitude) {
		5971	baseline /= nBaseline;
		5972	peakAmplitude /= nPeakAmplitude;
		5973	spikeVoltage = static_cast<short>(peakAmplitude - baseline);
		5974	} else {
		5975	spikeVoltage = 0;
		5976	}
		5977	}
		5978
		5979	// Remove spike
		5980	if (spikeVoltage > 0) {
		5981	for (iwf = 0; iwf < nwf; iwf++) {
		5982	for (ibin = 0; ibin < spikeWidth; ibin++) {
		5983	if ((jbin = commonSpikeBin + ibin) >= 0 && jbin < kNumberOfBins) {
		5984	wf[iwf][jbin] -= spikeVoltage;
		5985	}
		5986	if ((jbin = kNumberOfBins - 1 - commonSpikeBin - ibin) >= 0 && jbin < kNumberOfBins) {
		5987	wf[iwf][jbin] -= spikeVoltage;
		5988	}
		5989	}
		5990	}
		5991	}
		5992	}
		5993	}
		5994
		5995	/------------------------------------------------------------------/
		5996
		5997	void ResponseCalibration::SetCalibrationParameters(int numberOfPointsLowVolt, int numberOfPoints,
		5998	int numberOfMode2Bins, int numberOfSamples,
		5999	int numberOfGridPoints, int numberOfXConstPoints,
		6000	int numberOfXConstGridPoints, double triggerFrequency,
		6001	int showStatistics)
		6002	{
		6003	DeleteFields();
		6004	InitFields(numberOfPointsLowVolt, numberOfPoints, numberOfMode2Bins, numberOfSamples, numberOfGridPoints,
		6005	numberOfXConstPoints, numberOfXConstGridPoints, triggerFrequency, showStatistics);
		6006	}
		6007
		6008	/------------------------------------------------------------------/
		6009
		6010	void ResponseCalibration::ResetCalibration()
		6011	{
		6012	int i;
		6013	for (i = 0; i < kNumberOfChipsMax; i++)
		6014	fCalibrationData[i]->fRead = false;
		6015	fCurrentPoint = 0;
		6016	fCurrentLowVoltPoint = 0;
		6017	fCurrentSample = 0;
		6018	fCurrentFitChannel = 0;
		6019	fCurrentFitBin = 0;
		6020	fRecorded = false;
		6021	fFitted = false;
		6022	fOffset = false;
		6023	};
		6024
		6025	/------------------------------------------------------------------/
		6026
		6027	bool ResponseCalibration::WriteCalibration(unsigned int chipIndex)
		6028	{
		6029	if (!fOffset)
		6030	return false;
		6031	if (fBoard->GetDRSType() == 3)
		6032	return WriteCalibrationV4(chipIndex);
		6033	else
		6034	return WriteCalibrationV3(chipIndex);
		6035	}
		6036
		6037	/------------------------------------------------------------------/
		6038
		6039	bool ResponseCalibration::WriteCalibrationV3(unsigned int chipIndex)
		6040	{
		6041	if (!fOffset)
		6042	return false;
		6043
		6044	int ii, j, k;
		6045	char str[1000];
		6046	char strt[1000];
		6047	short tempShort;
		6048	CalibrationData *data = fCalibrationData[chipIndex];
		6049	CalibrationData::CalibrationDataChannel * chn;
		6050
		6051	// Open File
		6052	fBoard->GetCalibrationDirectory(strt);
		6053	sprintf(str, "%s/board%d", strt, fBoard->GetBoardSerialNumber());
		6054	if (MakeDir(str) == -1) {
		6055	printf("Error: Cannot create directory \"%s\"\n", str);
		6056	return false;
		6057	}
		6058	sprintf(str, "%s/board%d/ResponseCalib_board%d_chip%d_%dMHz.bin", strt, fBoard->GetBoardSerialNumber(),
		6059	fBoard->GetBoardSerialNumber(), chipIndex, static_cast < int >(fBoard->GetNominalFrequency() * 1000));
		6060	fCalibFile = fopen(str, "wb");
		6061	if (fCalibFile == NULL) {
		6062	printf("Error: Cannot write to file \"%s\"\n", str);
		6063	return false;
		6064	}
		6065	// Write File
		6066	fwrite(&data->fNumberOfGridPoints, 1, 1, fCalibFile);
		6067	tempShort = static_cast < short >(data->fStartTemperature) * 10;
		6068	fwrite(&tempShort, 2, 1, fCalibFile);
		6069	tempShort = static_cast < short >(data->fEndTemperature) * 10;
		6070	fwrite(&tempShort, 2, 1, fCalibFile);
		6071	fwrite(&data->fMin, 4, 1, fCalibFile);
		6072	fwrite(&data->fMax, 4, 1, fCalibFile);
		6073	fwrite(&data->fNumberOfLimitGroups, 1, 1, fCalibFile);
		6074
		6075	for (ii = 0; ii < kNumberOfCalibChannelsV3; ii++) {
		6076	chn = data->fChannel[ii];
		6077	for (j = 0; j < kNumberOfBins; j++) {
		6078	fwrite(&chn->fLimitGroup[j], 1, 1, fCalibFile);
		6079	fwrite(&chn->fLookUpOffset[j], 2, 1, fCalibFile);
		6080	fwrite(&chn->fNumberOfLookUpPoints[j], 1, 1, fCalibFile);
		6081	for (k = 0; k < chn->fNumberOfLookUpPoints[j]; k++) {
		6082	fwrite(&chn->fLookUp[j][k], 1, 1, fCalibFile);
		6083	}
		6084	for (k = 0; k < data->fNumberOfGridPoints; k++) {
		6085	fwrite(&chn->fData[j][k], 2, 1, fCalibFile);
		6086	}
		6087	fwrite(&chn->fOffsetADC[j], 2, 1, fCalibFile);
		6088	fwrite(&chn->fOffset[j], 2, 1, fCalibFile);
		6089	}
		6090	}
		6091	fclose(fCalibFile);
		6092
		6093	printf("Calibration successfully written to\n\"%s\"\n", str);
		6094	return true;
		6095	}
		6096
		6097	/------------------------------------------------------------------/
		6098
		6099	bool ResponseCalibration::WriteCalibrationV4(unsigned int chipIndex)
		6100	{
		6101	if (!fOffset)
		6102	return false;
		6103
		6104	int ii, j;
		6105	char str[1000];
		6106	char strt[1000];
		6107	CalibrationData *data = fCalibrationData[chipIndex];
		6108	CalibrationData::CalibrationDataChannel * chn;
		6109
		6110	// Open File
		6111	fBoard->GetCalibrationDirectory(strt);
		6112	sprintf(str, "%s/board%d", strt, fBoard->GetBoardSerialNumber());
		6113	if (MakeDir(str) == -1) {
		6114	printf("Error: Cannot create directory \"%s\"\n", str);
		6115	return false;
		6116	}
		6117	sprintf(str, "%s/board%d/ResponseCalib_board%d_chip%d_%dMHz.bin", strt, fBoard->GetBoardSerialNumber(),
		6118	fBoard->GetBoardSerialNumber(), chipIndex, static_cast < int >(fBoard->GetNominalFrequency() * 1000));
		6119	fCalibFile = fopen(str, "wb");
		6120	if (fCalibFile == NULL) {
		6121	printf("Error: Cannot write to file \"%s\"\n", str);
		6122	return false;
		6123	}
		6124	// Write File
		6125	for (ii = 0; ii < kNumberOfCalibChannelsV4; ii++) {
		6126	chn = data->fChannel[ii];
		6127	for (j = 0; j < kNumberOfBins; j++) {
		6128	fwrite(&chn->fOffset[j], 2, 1, fCalibFile);
		6129	fwrite(&chn->fGain[j], 2, 1, fCalibFile);
		6130	}
		6131	}
		6132	fclose(fCalibFile);
		6133
		6134	printf("Calibration successfully written to\n\"%s\"\n", str);
		6135	return true;
		6136	}
		6137
		6138	/------------------------------------------------------------------/
		6139
		6140	void ResponseCalibration::CalibrationTrigger(int mode, double voltage)
		6141	{
		6142	fBoard->Reinit();
		6143	fBoard->EnableAcal(mode, voltage);
		6144	fBoard->StartDomino();
		6145	fBoard->SoftTrigger();
		6146	while (fBoard->IsBusy()) {
		6147	}
		6148	}
		6149
		6150	/------------------------------------------------------------------/
		6151
		6152	void ResponseCalibration::CalibrationStart(double voltage)
		6153	{
		6154	fBoard->SetDominoMode(1);
		6155	fBoard->EnableAcal(0, voltage);
		6156	fBoard->StartDomino();
		6157	fBoard->IsBusy();
		6158	fBoard->IsBusy();
		6159	fBoard->IsBusy();
		6160	}
		6161
		6162	/------------------------------------------------------------------/
		6163
		6164	bool ResponseCalibration::RecordCalibrationPoints(int chipNumber)
		6165	{
		6166	if (!fInitialized)
		6167	return true;
		6168	if (fBoard->GetDRSType() == 3)
		6169	return RecordCalibrationPointsV4(chipNumber);
		6170	else
		6171	return RecordCalibrationPointsV3(chipNumber);
		6172	}
		6173
		6174	/------------------------------------------------------------------/
		6175
		6176	bool ResponseCalibration::RecordCalibrationPointsV3(int chipNumber)
		6177	{
		6178	int j, k, ii;
		6179	int notdone, nsample;
		6180	double voltage;
		6181	float mean;
		6182	const double minVolt = 0.006;
		6183	const double xpos[50] =
		6184	{ 0.010, 0.027, 0.052, 0.074, 0.096, 0.117, 0.136, 0.155, 0.173, 0.191, 0.208, 0.226, 0.243, 0.260,
		6185	0.277, 0.294, 0.310,
		6186	0.325, 0.342, 0.358, 0.374, 0.390, 0.406, 0.422, 0.439, 0.457, 0.477, 0.497, 0.520, 0.546, 0.577, 0.611,
		6187	0.656, 0.710,
		6188	0.772, 0.842, 0.916,
		6189	0.995, 1.075, 1.157, 1.240, 1.323, 1.407, 1.490, 1.575, 1.659, 1.744, 1.829, 1.914, 2.000
		6190	};
		6191
		6192	// Initialisations
		6193	if (fCurrentLowVoltPoint == 0) {
		6194	fBoard->SetDAC(fBoard->fDAC_CLKOFS, 0);
		6195	// Record Temperature
		6196	fCalibrationData[chipNumber]->fStartTemperature = static_cast < float >(fBoard->GetTemperature());
		6197	}
		6198	// Record current Voltage
		6199	if (fCurrentLowVoltPoint < fNumberOfPointsLowVolt)
		6200	voltage =
		6201	(xpos[0] - minVolt) * fCurrentLowVoltPoint / static_cast <
		6202	double >(fNumberOfPointsLowVolt) + minVolt;
		6203	else
		6204	voltage = xpos[fCurrentPoint];
		6205	fBoard->SetCalibVoltage(voltage);
		6206	fResponseY[fCurrentPoint + fCurrentLowVoltPoint] = static_cast < float >(voltage) * 1000;
		6207
		6208	// Loop Over Number Of Samples For Statistics
		6209	for (j = 0; j < fNumberOfSamples; j++) {
		6210	// Read Out Second Part of the Waveform
		6211	CalibrationTrigger(3, voltage);
		6212	fBoard->TransferWaves();
		6213	for (ii = 0; ii < kNumberOfCalibChannelsV3; ii++) {
		6214	fBoard->GetRawWave(chipNumber, ii, fWaveFormMode3[ii][j]);
		6215	}
		6216	// Read Out First Part of the Waveform
		6217	CalibrationStart(voltage);
		6218	CalibrationTrigger(2, voltage);
		6219	fBoard->TransferWaves();
		6220	for (ii = 0; ii < kNumberOfCalibChannelsV3; ii++) {
		6221	fBoard->GetRawWave(chipNumber, ii, fWaveFormMode2[ii][j]);
		6222	}
		6223	CalibrationStart(voltage);
		6224	}
		6225	// Average Sample Points
		6226	for (ii = 0; ii < kNumberOfCalibChannelsV3; ii++) {
		6227	for (k = 0; k < kNumberOfBins; k++) {
		6228	fResponseX[ii][k][fCurrentPoint + fCurrentLowVoltPoint] = 0;
		6229	for (j = 0; j < fNumberOfSamples; j++) {
		6230	fSampleUsed[j] = 1;
		6231	if (k < fNumberOfMode2Bins)
		6232	fSamples[j] = fWaveFormMode2[ii][j][k];
		6233	else
		6234	fSamples[j] = fWaveFormMode3[ii][j][k];
		6235	fResponseX[ii][k][fCurrentPoint + fCurrentLowVoltPoint] += fSamples[j];
		6236	}
		6237	mean = fResponseX[ii][k][fCurrentPoint + fCurrentLowVoltPoint] / fNumberOfSamples;
		6238	notdone = 1;
		6239	nsample = fNumberOfSamples;
		6240	while (notdone) {
		6241	notdone = 0;
		6242	for (j = 0; j < fNumberOfSamples; j++) {
		6243	if (fSampleUsed[j] && abs(static_cast < int >(fSamples[j] - mean)) > 3) {
		6244	notdone = 1;
		6245	fSampleUsed[j] = 0;
		6246	nsample--;
		6247	fResponseX[ii][k][fCurrentPoint + fCurrentLowVoltPoint] -= fSamples[j];
		6248	mean = fResponseX[ii][k][fCurrentPoint + fCurrentLowVoltPoint] / nsample;
		6249	}
		6250	}
		6251	}
		6252	fResponseX[ii][k][fCurrentPoint + fCurrentLowVoltPoint] = mean;
		6253	}
		6254	}
		6255	if (fCurrentLowVoltPoint < fNumberOfPointsLowVolt)
		6256	fCurrentLowVoltPoint++;
		6257	else
		6258	fCurrentPoint++;
		6259
		6260	if (fCurrentPoint == fNumberOfPoints) {
		6261	fCalibrationData[chipNumber]->fEndTemperature = static_cast < float >(fBoard->GetTemperature());
		6262	fRecorded = true;
		6263	fFitted = false;
		6264	fOffset = false;
		6265	fCalibrationData[chipNumber]->fRead = false;
		6266	fCalibrationData[chipNumber]->fHasOffsetCalibration = false;
		6267	fBoard->SetCalibVoltage(0.0);
		6268	fBoard->EnableAcal(1, 0.0);
		6269	fBoard->SetDAC(fBoard->fDAC_CLKOFS, 0.0);
		6270	return true;
		6271	}
		6272
		6273	return false;
		6274	}
		6275
		6276	/------------------------------------------------------------------/
		6277
		6278	bool ResponseCalibration::RecordCalibrationPointsV4(int chipNumber)
		6279	{
		6280	int i, j, k, n;
		6281	double voltage, s, s2, average;
		6282
		6283	if (fCurrentPoint == 0) {
		6284	fBoard->SetDominoMode(1);
		6285	fBoard->EnableAcal(1, 0);
		6286	fBoard->SoftTrigger();
		6287	while (fBoard->IsBusy());
		6288	fBoard->StartDomino();
		6289	fCalibrationData[chipNumber]->fStartTemperature = static_cast < float >(fBoard->GetTemperature());
		6290	}
		6291	voltage = 1.0 * fCurrentPoint / (static_cast < double >(fNumberOfPoints) - 1) +0.1;
		6292	fBoard->SetCalibVoltage(voltage);
		6293	Sleep(10);
		6294	fBoard->SetCalibVoltage(voltage);
		6295	Sleep(10);
		6296
		6297	// One dummy cycle for unknown reasons
		6298	fBoard->SoftTrigger();
		6299	while (fBoard->IsBusy());
		6300	fBoard->StartDomino();
		6301	Sleep(50);
		6302	fBoard->TransferWaves();
		6303
		6304	// Loop over number of samples for statistics
		6305	for (i = 0; i < fNumberOfSamples; i++) {
		6306	if (fBoard->Debug()) {
		6307	printf("%02d:%02d\r", fNumberOfPoints - fCurrentPoint, fNumberOfSamples - i);
		6308	fflush(stdout);
		6309	}
		6310
		6311
		6312	fBoard->SoftTrigger();
		6313	while (fBoard->IsBusy());
		6314	fBoard->StartDomino();
		6315	Sleep(50);
		6316	fBoard->TransferWaves();
		6317	for (j = 0; j < kNumberOfCalibChannelsV4; j++) {
		6318	fBoard->GetRawWave(chipNumber, j, fWaveFormMode3[j][i]);
		6319	}
		6320	}
		6321
		6322	// Calculate averages
		6323	for (i = 0; i < kNumberOfCalibChannelsV4; i++) {
		6324	for (k = 0; k < kNumberOfBins; k++) {
		6325	s = s2 = 0;
		6326
		6327	for (j = 0; j < fNumberOfSamples; j++) {
		6328	s += fWaveFormMode3[i][j][k];
		6329	s2 += fWaveFormMode3[i][j][k] * fWaveFormMode3[i][j][k];
		6330	}
		6331	n = fNumberOfSamples;
		6332	average = s / n;
		6333
		6334	fResponseX[i][k][fCurrentPoint] = static_cast < float >(average);
		6335	}
		6336	}
		6337
		6338	fCurrentPoint++;
		6339	if (fCurrentPoint == fNumberOfPoints) {
		6340	fCalibrationData[chipNumber]->fEndTemperature = static_cast < float >(fBoard->GetTemperature());
		6341	fRecorded = true;
		6342	return true;
		6343	}
		6344
		6345	return false;
		6346	}
		6347
		6348	/------------------------------------------------------------------/
		6349
		6350	bool ResponseCalibration::FitCalibrationPoints(int chipNumber)
		6351	{
		6352	if (!fRecorded \|\| fFitted)
		6353	return true;
		6354	if (fBoard->GetDRSType() == 3)
		6355	return FitCalibrationPointsV4(chipNumber);
		6356	else
		6357	return FitCalibrationPointsV3(chipNumber);
		6358	}
		6359
		6360	/------------------------------------------------------------------/
		6361
		6362	bool ResponseCalibration::FitCalibrationPointsV3(int chipNumber)
		6363	{
		6364	int i, j, k;
		6365	float x1, x2, y1, y2;
		6366	float uu;
		6367	float yc, yr;
		6368	float xminExt, xrangeExt;
		6369	float xmin, xrange;
		6370	float average, averageError, averageExt, averageErrorExt;
		6371	unsigned short i0, i1;
		6372
		6373	CalibrationData *data = fCalibrationData[chipNumber];
		6374	CalibrationData::CalibrationDataChannel * chn = data->fChannel[fCurrentFitChannel];
		6375
		6376	data->DeletePreCalculatedBSpline();
		6377
		6378	if (fCurrentFitBin == 0 && fCurrentFitChannel == 0) {
		6379	data->fNumberOfLimitGroups = 0;
		6380	data->fMin = 100000;
		6381	data->fMax = -100000;
		6382	for (i = 0; i < kNumberOfCalibChannelsV3; i++) {
		6383	for (j = 0; j < kNumberOfBins; j++) {
		6384	if (data->fMin > fResponseX[i][j][fNumberOfPointsLowVolt + fNumberOfPoints - 1])
		6385	data->fMin = fResponseX[i][j][fNumberOfPointsLowVolt + fNumberOfPoints - 1];
		6386	if (data->fMax < fResponseX[i][j][fNumberOfPointsLowVolt])
		6387	data->fMax = fResponseX[i][j][fNumberOfPointsLowVolt];
		6388	}
		6389	}
		6390	}
		6391	// Low Volt
		6392	i0 = static_cast < unsigned short >(fResponseX[fCurrentFitChannel][fCurrentFitBin][0]);
		6393	i1 = static_cast <
		6394	unsigned short >(fResponseX[fCurrentFitChannel][fCurrentFitBin][fNumberOfPointsLowVolt]) + 1;
		6395	chn->fLookUpOffset[fCurrentFitBin] = i0;
		6396	delete chn->fLookUp[fCurrentFitBin];
		6397	if (i0 - i1 + 1 < 2) {
		6398	chn->fNumberOfLookUpPoints[fCurrentFitBin] = 2;
		6399	chn->fLookUp[fCurrentFitBin] = new unsigned char[2];
		6400	chn->fLookUp[fCurrentFitBin][0] = 0;
		6401	chn->fLookUp[fCurrentFitBin][1] = 0;
		6402	} else {
		6403	chn->fNumberOfLookUpPoints[fCurrentFitBin] = i0 - i1 + 1;
		6404	chn->fLookUp[fCurrentFitBin] = new unsigned char[i0 - i1 + 1];
		6405	for (i = 0; i < i0 - i1 + 1; i++) {
		6406	for (j = 0; j < fNumberOfPointsLowVolt; j++) {
		6407	if (i0 - i >= fResponseX[fCurrentFitChannel][fCurrentFitBin][j + 1]) {
		6408	x1 = fResponseX[fCurrentFitChannel][fCurrentFitBin][j];
		6409	x2 = fResponseX[fCurrentFitChannel][fCurrentFitBin][j + 1];
		6410	y1 = fResponseY[j];
		6411	y2 = fResponseY[j + 1];
		6412	chn->fLookUp[fCurrentFitBin][i] =
		6413	static_cast < unsigned char >(((y2 - y1) * (i0 - i - x1) / (x2 - x1) + y1) / fPrecision);
		6414	break;
		6415	}
		6416	}
		6417	}
		6418	}
		6419
		6420	// Copy Points
		6421	for (i = 0; i < fNumberOfPoints; i++) {
		6422	fPntX[0][i] = fResponseX[fCurrentFitChannel][fCurrentFitBin][fNumberOfPointsLowVolt + i];
		6423	fPntY[0][i] = fResponseY[fNumberOfPointsLowVolt + i];
		6424	}
		6425	// Fit BSpline
		6426	for (i = 0; i < fNumberOfPoints; i++) {
		6427	fUValues[0][i] = static_cast < float >(1 - i / (fNumberOfPoints - 1.));
		6428	}
		6429	if (!Approx(fPntX[0], fUValues[0], fNumberOfPoints, fNumberOfGridPoints, fResX[fCurrentFitBin]))
		6430	return true;
		6431	if (!Approx(fPntY[0], fUValues[0], fNumberOfPoints, fNumberOfGridPoints, fRes[fCurrentFitBin]))
		6432	return true;
		6433
		6434	// X constant fit
		6435	for (k = 0; k < fNumberOfXConstPoints - 2; k++) {
		6436	fPntX[1][k + 1] =
		6437	GetValue(fResX[fCurrentFitBin],
		6438	static_cast < float >(1 - k / static_cast < float >(fNumberOfXConstPoints - 3)),
		6439	fNumberOfGridPoints);
		6440	fPntY[1][k + 1] =
		6441	GetValue(fRes[fCurrentFitBin],
		6442	static_cast < float >(1 - k / static_cast < float >(fNumberOfXConstPoints - 3)),
		6443	fNumberOfGridPoints);
		6444	}
		6445	xmin = fPntX[1][fNumberOfXConstPoints - 2];
		6446	xrange = fPntX[1][1] - xmin;
		6447
		6448	for (i = 0; i < fNumberOfXConstPoints - 2; i++) {
		6449	fUValues[1][i + 1] = (fPntX[1][i + 1] - xmin) / xrange;
		6450	}
		6451
		6452	if (!Approx
		6453	(&fPntY[1][1], &fUValues[1][1], fNumberOfXConstPoints - 2, fNumberOfXConstGridPoints, chn->fTempData))
		6454	return true;
		6455
		6456	// error statistics
		6457	if (fShowStatistics) {
		6458	for (i = 0; i < fNumberOfPoints; i++) {
		6459	uu = (fPntX[0][i] - xmin) / xrange;
		6460	yc = GetValue(chn->fTempData, uu, fNumberOfXConstGridPoints);
		6461	yr = fPntY[0][i];
		6462	fStatisticsApprox[i][fCurrentFitBin + fCurrentFitChannel * kNumberOfBins] = yc - yr;
		6463	}
		6464	}
		6465	// Add min and max point
		6466	chn->fLimitGroup[fCurrentFitBin] = 0;
		6467	while (xmin - kBSplineXMinOffset > data->fMin + kBSplineXMinOffset * chn->fLimitGroup[fCurrentFitBin]) {
		6468	chn->fLimitGroup[fCurrentFitBin]++;
		6469	}
		6470	if (data->fNumberOfLimitGroups <= chn->fLimitGroup[fCurrentFitBin])
		6471	data->fNumberOfLimitGroups = chn->fLimitGroup[fCurrentFitBin] + 1;
		6472	xminExt = data->fMin + kBSplineXMinOffset * chn->fLimitGroup[fCurrentFitBin];
		6473	xrangeExt = data->fMax - xminExt;
		6474
		6475	fPntX[1][0] = data->fMax;
		6476	uu = (fPntX[1][0] - xmin) / xrange;
		6477	fPntY[1][0] = GetValue(chn->fTempData, uu, fNumberOfXConstGridPoints);
		6478
		6479	fPntX[1][fNumberOfXConstPoints - 1] = xminExt;
		6480	uu = (fPntX[1][fNumberOfXConstPoints - 1] - xmin) / xrange;
		6481	fPntY[1][fNumberOfXConstPoints - 1] = GetValue(chn->fTempData, uu, fNumberOfXConstGridPoints);
		6482
		6483	for (i = 0; i < fNumberOfXConstPoints; i++) {
		6484	fUValues[1][i] = (fPntX[1][i] - xminExt) / xrangeExt;
		6485	}
		6486
		6487	if (!Approx(fPntY[1], fUValues[1], fNumberOfXConstPoints, fNumberOfXConstGridPoints, chn->fTempData))
		6488	return true;
		6489
		6490	// error statistics
		6491	if (fShowStatistics) {
		6492	for (i = 0; i < fNumberOfPoints; i++) {
		6493	uu = (fPntX[0][i] - xminExt) / xrangeExt;
		6494	yc = GetValue(chn->fTempData, uu, fNumberOfXConstGridPoints);
		6495	yr = fPntY[0][i];
		6496	fStatisticsApproxExt[i][fCurrentFitBin + fCurrentFitChannel * kNumberOfBins] = yc - yr;
		6497	}
		6498	}
		6499	for (i = 0; i < fNumberOfXConstGridPoints; i++) {
		6500	chn->fData[fCurrentFitBin][i] = static_cast < short >(chn->fTempData[i] / fPrecision);
		6501	}
		6502
		6503	// write end of file
		6504	fCurrentFitBin++;
		6505	if (fCurrentFitBin == kNumberOfBins) {
		6506	fCurrentFitChannel++;
		6507	fCurrentFitBin = 0;
		6508	}
		6509	if (fCurrentFitChannel == kNumberOfCalibChannelsV3) {
		6510	if (fShowStatistics) {
		6511	for (i = 0; i < fNumberOfPoints; i++) {
		6512	average = 0;
		6513	averageError = 0;
		6514	averageExt = 0;
		6515	averageErrorExt = 0;
		6516	for (j = 0; j < kNumberOfCalibChannelsV3 * kNumberOfBins; j++) {
		6517	average += fStatisticsApprox[i][j];
		6518	averageError += fStatisticsApprox[i][j] * fStatisticsApprox[i][j];
		6519	averageExt += fStatisticsApproxExt[i][j];
		6520	averageErrorExt += fStatisticsApproxExt[i][j] * fStatisticsApproxExt[i][j];
		6521	}
		6522	average /= kNumberOfCalibChannelsV3 * kNumberOfBins;
		6523	averageError =
		6524	sqrt((averageError -
		6525	average * average / kNumberOfCalibChannelsV3 * kNumberOfBins) /
		6526	(kNumberOfCalibChannelsV3 * kNumberOfBins - 1));
		6527	averageExt /= kNumberOfCalibChannelsV3 * kNumberOfBins;
		6528	averageErrorExt =
		6529	sqrt((averageErrorExt -
		6530	averageExt * averageExt / kNumberOfCalibChannelsV3 * kNumberOfBins) /
		6531	(kNumberOfCalibChannelsV3 * kNumberOfBins - 1));
		6532	printf("Error at %3.1f V : % 2.3f +- % 2.3f ; % 2.3f +- % 2.3f\n", fPntY[0][i], average,
		6533	averageError, averageExt, averageErrorExt);
		6534	}
		6535	}
		6536	fFitted = true;
		6537	fOffset = false;
		6538	fCalibrationData[chipNumber]->fRead = true;
		6539	fCalibrationData[chipNumber]->fHasOffsetCalibration = false;
		6540	data->PreCalculateBSpline();
		6541	return true;
		6542	}
		6543	return false;
		6544	}
		6545
		6546	/------------------------------------------------------------------/
		6547
		6548	bool ResponseCalibration::FitCalibrationPointsV4(int chipNumber)
		6549	{
		6550	if (!fRecorded \|\| fFitted)
		6551	return true;
		6552	int i;
		6553	double par[2];
		6554	static int error;
		6555
		6556	CalibrationData *data = fCalibrationData[chipNumber];
		6557	CalibrationData::CalibrationDataChannel * chn = data->fChannel[fCurrentFitChannel];
		6558
		6559	if (fCurrentFitBin == 0 && fCurrentFitChannel == 0) {
		6560	error = 0;
		6561	for (i = 0; i < fNumberOfPoints; i++)
		6562	fWWFit[i] = 1;
		6563	}
		6564
		6565	for (i = 0; i < fNumberOfPoints; i++) {
		6566	fXXFit[i] = 1.0 * i / (static_cast < double >(fNumberOfPoints) - 1) +0.1;
		6567	fYYFit[i] = fResponseX[fCurrentFitChannel][fCurrentFitBin][i];
		6568	if (fCurrentFitBin == 10 && fCurrentFitChannel == 1) {
		6569	fXXSave[i] = fXXFit[i];
		6570	fYYSave[i] = fYYFit[i];
		6571	}
		6572	}
		6573
		6574	// DRSBoard::LinearRegression(fXXFit, fYYFit, fNumberOfPoints, &par[1], &par[0]);
		6575	// exclude first two points (sometimes are on limit of FADC)
		6576	DRSBoard::LinearRegression(fXXFit + 2, fYYFit + 2, fNumberOfPoints - 2, &par[1], &par[0]);
		6577
		6578	chn->fOffset[fCurrentFitBin] = static_cast < unsigned short >(par[0] + 0.5);
		6579	chn->fGain[fCurrentFitBin] = static_cast < unsigned short >(par[1] + 0.5);
		6580
		6581	// Remember min/max of gain
		6582	if (fCurrentFitBin == 0 && fCurrentFitChannel == 0)
		6583	fGainMin = fGainMax = chn->fGain[0];
		6584	if (chn->fGain[fCurrentFitBin] < fGainMin)
		6585	fGainMin = chn->fGain[fCurrentFitBin];
		6586	if (chn->fGain[fCurrentFitBin] > fGainMax)
		6587	fGainMax = chn->fGain[fCurrentFitBin];
		6588
		6589	// abort if outside normal region
		6590	if (chn->fGain[fCurrentFitBin] / 4096.0 < 0.8 \|\| chn->fGain[fCurrentFitBin] / 4096.0 > 1) {
		6591	error++;
		6592
		6593	if (error < 20)
		6594	printf("Gain=%1.3lf for bin %d on channel %d on chip %d outside valid region\n",
		6595	chn->fGain[fCurrentFitBin] / 4096.0, fCurrentFitBin, fCurrentFitChannel, chipNumber);
		6596	}
		6597
		6598	if (fCurrentFitChannel == 1 && fCurrentFitBin == 10) {
		6599	for (i = 0; i < fNumberOfPoints; i++) {
		6600	fXXSave[i] = fXXFit[i];
		6601	fYYSave[i] = (fYYFit[i] - chn->fOffset[10]) / chn->fGain[10] - fXXFit[i];
		6602	}
		6603	}
		6604
		6605	fCurrentFitBin++;
		6606	if (fCurrentFitBin == kNumberOfBins) {
		6607	fCurrentFitChannel++;
		6608	fCurrentFitBin = 0;
		6609	}
		6610	if (fCurrentFitChannel == kNumberOfCalibChannelsV4) {
		6611
		6612	if (fBoard->Debug()) {
		6613	printf("Gain min=%1.3lf max=%1.3lf\n", fGainMin / 4096.0, fGainMax / 4096.0);
		6614	fflush(stdout);
		6615	}
		6616	// allow up to three bad bins
		6617	if (error > 3) {
		6618	printf("Aborting calibration!\n");
		6619	return true;
		6620	}
		6621
		6622	fFitted = true;
		6623	fOffset = false;
		6624	fCalibrationData[chipNumber]->fRead = true;
		6625	fCalibrationData[chipNumber]->fHasOffsetCalibration = false;
		6626	return true;
		6627	}
		6628
		6629	return false;
		6630	}
		6631
		6632	unsigned int millitime()
		6633	{
		6634	#ifdef _MSC_VER
		6635
		6636	return (int) GetTickCount();
		6637
		6638	#else
		6639	struct timeval tv;
		6640
		6641	gettimeofday(&tv, NULL);
		6642
		6643	return tv.tv_sec * 1000 + tv.tv_usec / 1000;
		6644	#endif
		6645	return 0;
		6646	}
		6647
		6648	/------------------------------------------------------------------/
		6649
		6650	bool ResponseCalibration::OffsetCalibration(int chipNumber)
		6651	{
		6652	if (!fFitted \|\| fOffset)
		6653	return true;
		6654	if (fBoard->GetDRSType() == 3)
		6655	return OffsetCalibrationV4(chipNumber);
		6656	else
		6657	return OffsetCalibrationV3(chipNumber);
		6658	}
		6659
		6660	/------------------------------------------------------------------/
		6661
		6662	bool ResponseCalibration::OffsetCalibrationV3(int chipNumber)
		6663	{
		6664	int k, ii, j;
		6665	int t1, t2;
		6666	float mean, error;
		6667	CalibrationData *data = fCalibrationData[chipNumber];
		6668	CalibrationData::CalibrationDataChannel * chn;
		6669
		6670	if (fCurrentSample == 0) {
		6671	data->fHasOffsetCalibration = false;
		6672	fBoard->SetCalibVoltage(0.0);
		6673	fBoard->EnableAcal(0, 0.0);
		6674	}
		6675	// Loop Over Number Of Samples For Statistics
		6676	t1 = millitime();
		6677	fBoard->SoftTrigger();
		6678	while (fBoard->IsBusy()) {
		6679	}
		6680	fBoard->TransferWaves();
		6681	for (ii = 0; ii < kNumberOfCalibChannelsV3; ii++) {
		6682	fBoard->GetRawWave(chipNumber, ii, fWaveFormOffsetADC[ii][fCurrentSample]);
		6683	fBoard->CalibrateWaveform(chipNumber, ii, fWaveFormOffsetADC[ii][fCurrentSample],
		6684	fWaveFormOffset[ii][fCurrentSample], true, false, false, 0, true);
		6685	}
		6686	fBoard->StartDomino();
		6687	fBoard->IsBusy();
		6688	fBoard->IsBusy();
		6689	fBoard->IsBusy();
		6690	t2 = millitime();
		6691	while (t2 - t1 < (1000 / fTriggerFrequency)) {
		6692	t2 = millitime();
		6693	}
		6694	fCurrentSample++;
		6695
		6696	if (fCurrentSample == fNumberOfSamples) {
		6697	// Average Sample Points
		6698	float *sample = new float[fNumberOfSamples];
		6699	for (ii = 0; ii < kNumberOfCalibChannelsV3; ii++) {
		6700	chn = data->fChannel[ii];
		6701	for (k = 0; k < kNumberOfBins; k++) {
		6702	for (j = 0; j < fNumberOfSamples; j++)
		6703	sample[j] = static_cast < float >(fWaveFormOffset[ii][j][k]);
		6704	Average(1, sample, fNumberOfSamples, mean, error, 2);
		6705	chn->fOffset[k] = static_cast < short >(mean);
		6706	for (j = 0; j < fNumberOfSamples; j++)
		6707	sample[j] = fWaveFormOffsetADC[ii][j][k];
		6708	Average(1, sample, fNumberOfSamples, mean, error, 2);
		6709	chn->fOffsetADC[k] = static_cast < unsigned short >(mean);
		6710	}
		6711	}
		6712	fOffset = true;
		6713	fCalibrationData[chipNumber]->fHasOffsetCalibration = true;
		6714	delete[] sample;
		6715	return true;
		6716	}
		6717
		6718	return false;
		6719	}
		6720
		6721	/------------------------------------------------------------------/
		6722
		6723	bool ResponseCalibration::OffsetCalibrationV4(int chipNumber)
		6724	{
		6725	int k, ii, j;
		6726	float mean, error;
		6727	CalibrationData *data = fCalibrationData[chipNumber];
		6728	CalibrationData::CalibrationDataChannel * chn;
		6729
		6730	/* switch DRS to input, hope that no real signal occurs */
		6731	if (fCurrentSample == 0) {
		6732	data->fHasOffsetCalibration = false;
		6733	fBoard->SetCalibVoltage(0.0);
		6734	fBoard->EnableAcal(0, 0.0);
		6735	/* one dummy trigger for unknown reasons */
		6736	fBoard->SoftTrigger();
		6737	while (fBoard->IsBusy());
		6738	fBoard->StartDomino();
		6739	Sleep(50);
		6740	}
		6741	// Loop Over Number Of Samples For Statistics
		6742	fBoard->SoftTrigger();
		6743	while (fBoard->IsBusy());
		6744	fBoard->TransferWaves();
		6745	for (ii = 0; ii < kNumberOfCalibChannelsV4; ii++)
		6746	fBoard->GetRawWave(chipNumber, ii, fWaveFormOffsetADC[ii][fCurrentSample]);
		6747
		6748	fBoard->StartDomino();
		6749	Sleep(50);
		6750	fCurrentSample++;
		6751
		6752	if (fBoard->Debug()) {
		6753	printf("%02d\r", fNumberOfSamples - fCurrentSample);
		6754	fflush(stdout);
		6755	}
		6756
		6757	if (fCurrentSample == fNumberOfSamples) {
		6758	// Average Sample Points
		6759	float *sample = new float[fNumberOfSamples];
		6760	for (ii = 0; ii < kNumberOfCalibChannelsV3; ii++) {
		6761	chn = data->fChannel[ii];
		6762	for (k = 0; k < kNumberOfBins; k++) {
		6763	for (j = 0; j < fNumberOfSamples; j++)
		6764	sample[j] = static_cast < float >(fWaveFormOffsetADC[ii][j][k]);
		6765	Average(1, sample, fNumberOfSamples, mean, error, 2);
		6766	chn->fOffset[k] = static_cast < unsigned short >(mean);
		6767	}
		6768	}
		6769	fOffset = true;
		6770	fCalibrationData[chipNumber]->fHasOffsetCalibration = true;
		6771	delete[] sample;
		6772	return true;
		6773	}
		6774
		6775	return false;
		6776	}
		6777
		6778	/------------------------------------------------------------------/
		6779
		6780	void ResponseCalibration::InitFields(int numberOfPointsLowVolt, int numberOfPoints, int numberOfMode2Bins,
		6781	int numberOfSamples, int numberOfGridPoints, int numberOfXConstPoints,
		6782	int numberOfXConstGridPoints, double triggerFrequency,
		6783	int showStatistics)
		6784	{
		6785	int ii, j, i;
		6786	fInitialized = true;
		6787	fNumberOfPointsLowVolt = numberOfPointsLowVolt;
		6788	fNumberOfPoints = numberOfPoints;
		6789	fNumberOfMode2Bins = numberOfMode2Bins;
		6790	fNumberOfSamples = numberOfSamples;
		6791	fNumberOfGridPoints = numberOfGridPoints;
		6792	fNumberOfXConstPoints = numberOfXConstPoints;
		6793	fNumberOfXConstGridPoints = numberOfXConstGridPoints;
		6794	fTriggerFrequency = triggerFrequency;
		6795	fShowStatistics = showStatistics;
		6796	fCurrentPoint = 0;
		6797	fCurrentSample = 0;
		6798	fCurrentFitChannel = 0;
		6799	fCurrentFitBin = 0;
		6800	for (ii = 0; ii < kNumberOfCalibChannelsV3; ii++) {
		6801	for (j = 0; j < kNumberOfBins; j++) {
		6802	fResponseX[ii][j] = new float[fNumberOfPoints + fNumberOfPointsLowVolt];
		6803	}
		6804	}
		6805	fResponseY = new float[fNumberOfPoints + fNumberOfPointsLowVolt];
		6806	for (ii = 0; ii < kNumberOfCalibChannelsV3; ii++) {
		6807	fWaveFormMode3[ii] = new unsigned short *[fNumberOfSamples];
		6808	fWaveFormMode2[ii] = new unsigned short *[fNumberOfSamples];
		6809	fWaveFormOffset[ii] = new short *[fNumberOfSamples];
		6810	fWaveFormOffsetADC[ii] = new unsigned short *[fNumberOfSamples];
		6811	for (i = 0; i < fNumberOfSamples; i++) {
		6812	fWaveFormMode3[ii][i] = new unsigned short[kNumberOfBins];
		6813	fWaveFormMode2[ii][i] = new unsigned short[kNumberOfBins];
		6814	fWaveFormOffset[ii][i] = new short[kNumberOfBins];
		6815	fWaveFormOffsetADC[ii][i] = new unsigned short[kNumberOfBins];
		6816	}
		6817	}
		6818	fSamples = new unsigned short[fNumberOfSamples];
		6819	fSampleUsed = new int[fNumberOfSamples];
		6820
		6821	for (j = 0; j < kNumberOfBins; j++) {
		6822	fRes[j] = new float[fNumberOfGridPoints];
		6823	fResX[j] = new float[fNumberOfGridPoints];
		6824	}
		6825	for (i = 0; i < 2; i++) {
		6826	fPntX[i] = new float[fNumberOfPoints * (1 - i) + fNumberOfXConstPoints * i];
		6827	fPntY[i] = new float[fNumberOfPoints * (1 - i) + fNumberOfXConstPoints * i];
		6828	fUValues[i] = new float[fNumberOfPoints * (1 - i) + fNumberOfXConstPoints * i];
		6829	}
		6830	fXXFit = new double[fNumberOfPoints];
		6831	fYYFit = new double[fNumberOfPoints];
		6832	fWWFit = new double[fNumberOfPoints];
		6833	fYYFitRes = new double[fNumberOfPoints];
		6834	fYYSave = new double[fNumberOfPoints];
		6835	fXXSave = new double[fNumberOfPoints];
		6836
		6837	fStatisticsApprox = new float *[fNumberOfPoints];
		6838	fStatisticsApproxExt = new float *[fNumberOfPoints];
		6839	for (i = 0; i < fNumberOfPoints; i++) {
		6840	fStatisticsApprox[i] = new float[kNumberOfCalibChannelsV3 * kNumberOfBins];
		6841	fStatisticsApproxExt[i] = new float[kNumberOfCalibChannelsV3 * kNumberOfBins];
		6842	}
		6843	for (i = 0; i < kNumberOfChipsMax; i++) {
		6844	fCalibrationData[i] = new CalibrationData(numberOfXConstGridPoints);
		6845	}
		6846	}
		6847
		6848	/------------------------------------------------------------------/
		6849
		6850	void ResponseCalibration::DeleteFields()
		6851	{
		6852	if (!fInitialized)
		6853	return;
		6854	fInitialized = false;
		6855	int ii, j, i;
		6856	for (ii = 0; ii < kNumberOfCalibChannelsV3; ii++) {
		6857	for (j = 0; j < kNumberOfBins; j++) {
		6858	delete fResponseX[ii][j];
		6859	}
		6860	}
		6861	delete fResponseY;
		6862	for (ii = 0; ii < kNumberOfCalibChannelsV3; ii++) {
		6863	for (i = 0; i < fNumberOfSamples; i++) {
		6864	if (fWaveFormMode3[ii] != NULL)
		6865	delete fWaveFormMode3[ii][i];
		6866	if (fWaveFormMode2[ii] != NULL)
		6867	delete fWaveFormMode2[ii][i];
		6868	if (fWaveFormOffset[ii] != NULL)
		6869	delete fWaveFormOffset[ii][i];
		6870	if (fWaveFormOffsetADC[ii] != NULL)
		6871	delete fWaveFormOffsetADC[ii][i];
		6872	}
		6873	delete fWaveFormMode3[ii];
		6874	delete fWaveFormMode2[ii];
		6875	delete fWaveFormOffset[ii];
		6876	delete fWaveFormOffsetADC[ii];
		6877	}
		6878	delete fSamples;
		6879	delete fSampleUsed;
		6880
		6881	for (j = 0; j < kNumberOfBins; j++) {
		6882	delete fRes[j];
		6883	delete fResX[j];
		6884	}
		6885	for (i = 0; i < 2; i++) {
		6886	delete fPntX[i];
		6887	delete fPntY[i];
		6888	delete fUValues[i];
		6889	}
		6890	delete fXXFit;
		6891	delete fYYFit;
		6892	delete fWWFit;
		6893	delete fYYFitRes;
		6894	delete fYYSave;
		6895	delete fXXSave;
		6896
		6897	for (i = 0; i < fNumberOfPoints; i++) {
		6898	delete fStatisticsApprox[i];
		6899	delete fStatisticsApproxExt[i];
		6900	}
		6901	delete fStatisticsApprox;
		6902	delete fStatisticsApproxExt;
		6903	for (i = 0; i < kNumberOfChipsMax; i++)
		6904	delete fCalibrationData[i];
		6905	}
		6906
		6907	/------------------------------------------------------------------/
		6908
		6909	double ResponseCalibration::GetTemperature(unsigned int chipIndex)
		6910	{
		6911	if (fCalibrationData[chipIndex] == NULL)
		6912	return 0;
		6913	if (!fCalibrationData[chipIndex]->fRead)
		6914	return 0;
		6915	return (fCalibrationData[chipIndex]->fStartTemperature + fCalibrationData[chipIndex]->fEndTemperature) / 2;
		6916	}
		6917
		6918	/------------------------------------------------------------------/
		6919
		6920	bool ResponseCalibration::Calibrate(unsigned int chipIndex, unsigned int channel, unsigned short *adcWaveform,
		6921	short *uWaveform, int triggerCell, float threshold, bool offsetCalib)
		6922	{
		6923	int i;
		6924	unsigned int NumberOfCalibChannels;
		6925	int hasOffset;
		6926	bool aboveThreshold;
		6927	float wave, v;
		6928	int j, irot;
		6929
		6930	CalibrationData *data = fCalibrationData[chipIndex];
		6931	CalibrationData::CalibrationDataChannel * chn;
		6932
		6933	if (fBoard->GetDRSType() == 3)
		6934	NumberOfCalibChannels = kNumberOfCalibChannelsV4;
		6935	else
		6936	NumberOfCalibChannels = kNumberOfCalibChannelsV3;
		6937
		6938	if (channel >= NumberOfCalibChannels \|\| data == NULL) {
		6939	for (i = 0; i < kNumberOfBins; i++) {
		6940	irot = i;
		6941	if (triggerCell > -1)
		6942	irot = (triggerCell + i) % kNumberOfBins;
		6943
		6944	uWaveform[i] = adcWaveform[irot];
		6945	}
		6946	return true;
		6947	}
		6948	if (!data->fRead) {
		6949	for (i = 0; i < kNumberOfBins; i++) {
		6950	uWaveform[i] = adcWaveform[i];
		6951	}
		6952	return true;
		6953	}
		6954
		6955	chn = data->fChannel[channel];
		6956
		6957	hasOffset = data->fHasOffsetCalibration;
		6958	aboveThreshold = (threshold == 0); // if threshold equal zero, always return true
		6959
		6960	short offset;
		6961
		6962	// Calibrate
		6963	for (i = 0; i < kNumberOfBins; i++) {
		6964	if (fBoard->GetDRSType() != 3) {
		6965	irot = i;
		6966	if (triggerCell > -1)
		6967	irot = (triggerCell + i) % kNumberOfBins;
		6968	offset = offsetCalib ? chn->fOffset[irot] : 0;
		6969	if (adcWaveform[irot] > chn->fLookUpOffset[irot]) {
		6970	uWaveform[i] =
		6971	((chn->fLookUp[irot][0] - chn->fLookUp[irot][1]) * (adcWaveform[irot] -
		6972	chn->fLookUpOffset[irot]) +
		6973	chn->fLookUp[irot][0]);
		6974	} else if (adcWaveform[irot] <= chn->fLookUpOffset[irot]
		6975	&& adcWaveform[irot] > chn->fLookUpOffset[irot] - chn->fNumberOfLookUpPoints[irot]) {
		6976	uWaveform[i] = chn->fLookUp[irot][chn->fLookUpOffset[irot] - adcWaveform[irot]];
		6977	} else {
		6978	wave = 0;
		6979	for (j = 0; j < kBSplineOrder; j++) {
		6980	wave +=
		6981	chn->fData[irot][data->fBSplineOffsetLookUp[adcWaveform[irot]][chn->fLimitGroup[irot]] + j]
		6982	* data->fBSplineLookUp[adcWaveform[irot]][chn->fLimitGroup[irot]][j];
		6983	}
		6984	uWaveform[i] = static_cast < short >(wave);
		6985	}
		6986	// Offset Calibration
		6987	if (hasOffset)
		6988	uWaveform[i] -= offset;
		6989	} else {
		6990	irot = i;
		6991	if (triggerCell > -1)
		6992	irot = (triggerCell + i) % kNumberOfBins;
		6993	#if 0 /* not enabled yet for DRS3 */
		6994	offset = offsetCalib ? chn->fOffset[irot] : 0;
		6995	#else
		6996	offset = chn->fOffset[irot];
		6997	#endif
		6998	v = static_cast < float >(adcWaveform[irot] - offset) / chn->fGain[irot];
		6999	uWaveform[i] = static_cast < short >(v * 1000 / GetPrecision() + 0.5);
		7000	}
		7001
		7002	// Check for Threshold
		7003	if (!aboveThreshold) {
		7004	if (uWaveform[i] >= threshold)
		7005	aboveThreshold = true;
		7006	}
		7007	}
		7008	return aboveThreshold;
		7009	}
		7010
		7011	/------------------------------------------------------------------/
		7012
		7013	bool ResponseCalibration::SubtractADCOffset(unsigned int chipIndex, unsigned int channel,
		7014	unsigned short *adcWaveform,
		7015	unsigned short *adcCalibratedWaveform,
		7016	unsigned short newBaseLevel)
		7017	{
		7018	int i;
		7019	unsigned int NumberOfCalibChannels;
		7020	CalibrationData *data = fCalibrationData[chipIndex];
		7021	CalibrationData::CalibrationDataChannel * chn;
		7022
		7023	if (fBoard->GetDRSType() == 3)
		7024	NumberOfCalibChannels = kNumberOfCalibChannelsV4;
		7025	else
		7026	NumberOfCalibChannels = kNumberOfCalibChannelsV3;
		7027
		7028	if (channel >= NumberOfCalibChannels \|\| data == NULL)
		7029	return false;
		7030	if (!data->fRead \|\| !data->fHasOffsetCalibration)
		7031	return false;
		7032
		7033	chn = data->fChannel[channel];
		7034	for (i = 0; i < kNumberOfBins; i++)
		7035	adcCalibratedWaveform[i] = adcWaveform[i] - chn->fOffsetADC[i] + newBaseLevel;
		7036	return true;
		7037	}
		7038
		7039
		7040	/------------------------------------------------------------------/
		7041
		7042	bool ResponseCalibration::ReadCalibration(unsigned int chipIndex)
		7043	{
		7044	if (fBoard->GetDRSType() == 3)
		7045	return ReadCalibrationV4(chipIndex);
		7046	else
		7047	return ReadCalibrationV3(chipIndex);
		7048	}
		7049
		7050	/------------------------------------------------------------------/
		7051
		7052	bool ResponseCalibration::ReadCalibrationV3(unsigned int chipIndex)
		7053	{
		7054	int k, l, m, num;
		7055	unsigned char ng;
		7056	short tempShort;
		7057	char fileName[2000];
		7058	FILE *fileHandle;
		7059	char calibDir[1000];
		7060
		7061	// Read Response Calibration
		7062	delete fCalibrationData[chipIndex];
		7063	fCalibrationData[chipIndex] = NULL;
		7064
		7065	fBoard->GetCalibrationDirectory(calibDir);
		7066	sprintf(fileName, "%s/board%d/ResponseCalib_board%d_chip%d_%dMHz.bin", calibDir,
		7067	fBoard->GetBoardSerialNumber(), fBoard->GetBoardSerialNumber(), chipIndex,
		7068	static_cast < int >(fBoard->GetNominalFrequency() * 1000));
		7069
		7070	fileHandle = fopen(fileName, "rb");
		7071	if (fileHandle == NULL) {
		7072	printf("Board %d --> Could not find response calibration file:\n", fBoard->GetBoardSerialNumber());
		7073	printf("%s\n", fileName);
		7074	return false;
		7075	}
		7076	// Number Of Grid Points
		7077	num = fread(&ng, 1, 1, fileHandle);
		7078	if (num != 1) {
		7079	printf("Error while reading response calibration file '%s'\n", fileName);
		7080	printf(" at 'NumberOfGridPoints'.\n");
		7081	return false;
		7082	}
		7083
		7084	fCalibrationData[chipIndex] = new CalibrationData(ng);
		7085	CalibrationData *data = fCalibrationData[chipIndex];
		7086	CalibrationData::CalibrationDataChannel * chn;
		7087	data->fRead = true;
		7088	data->fHasOffsetCalibration = 1;
		7089	data->DeletePreCalculatedBSpline();
		7090	fCalibrationValid[chipIndex] = true;
		7091
		7092	// Start Temperature
		7093	num = fread(&tempShort, 2, 1, fileHandle);
		7094	if (num != 1) {
		7095	printf("Error while reading response calibration file '%s'\n", fileName);
		7096	printf(" at 'StartTemperature'.\n");
		7097	return false;
		7098	}
		7099	data->fStartTemperature = static_cast < float >(tempShort) / 10;
		7100	// End Temperature
		7101	num = fread(&tempShort, 2, 1, fileHandle);
		7102	if (num != 1) {
		7103	printf("Error while reading response calibration file '%s'\n", fileName);
		7104	printf(" at 'EndTemperature'.\n");
		7105	return false;
		7106	}
		7107	data->fEndTemperature = static_cast < float >(tempShort) / 10;
		7108	if (fBoard->GetDRSType() != 3) {
		7109	// Min
		7110	num = fread(&data->fMin, 4, 1, fileHandle);
		7111	if (num != 1) {
		7112	printf("Error while reading response calibration file '%s'\n", fileName);
		7113	printf(" at 'Min'.\n");
		7114	return false;
		7115	}
		7116	// Max
		7117	num = fread(&data->fMax, 4, 1, fileHandle);
		7118	if (num != 1) {
		7119	printf("Error while reading response calibration file '%s'\n", fileName);
		7120	printf(" at 'Max'.\n");
		7121	return false;
		7122	}
		7123	// Number Of Limit Groups
		7124	num = fread(&data->fNumberOfLimitGroups, 1, 1, fileHandle);
		7125	if (num != 1) {
		7126	printf("Error while reading response calibration file '%s'\n", fileName);
		7127	printf(" at 'NumberOfLimitGroups'.\n");
		7128	return false;
		7129	}
		7130	}
		7131	// read channel
		7132	for (k = 0; k < kNumberOfCalibChannelsV3; k++) {
		7133	chn = data->fChannel[k];
		7134	for (l = 0; l < kNumberOfBins; l++) {
		7135	if (fBoard->GetDRSType() != 3) {
		7136	// Range Group
		7137	num = fread(&chn->fLimitGroup[l], 1, 1, fileHandle);
		7138	if (num != 1) {
		7139	printf("Error while reading response calibration file '%s'\n", fileName);
		7140	printf(" at 'RangeGroup' of channel %d bin %d.\n", k, l);
		7141	return false;
		7142	}
		7143	// Look Up Offset
		7144	num = fread(&chn->fLookUpOffset[l], 2, 1, fileHandle);
		7145	if (num != 1) {
		7146	printf("Error while reading response calibration file '%s'\n", fileName);
		7147	printf(" at 'LookUpOffset' of channel %d bin %d.\n", k, l);
		7148	return false;
		7149	}
		7150	// Number Of Look Up Points
		7151	num = fread(&chn->fNumberOfLookUpPoints[l], 1, 1, fileHandle);
		7152	if (num != 1) {
		7153	printf("Error while reading response calibration file '%s'\n", fileName);
		7154	printf(" at 'NumberOfLookUpPoints' of channel %d bin %d.\n", k, l);
		7155	return false;
		7156	}
		7157	// Look Up Points
		7158	delete chn->fLookUp[l];
		7159	chn->fLookUp[l] = new unsigned char[chn->fNumberOfLookUpPoints[l]];
		7160	for (m = 0; m < chn->fNumberOfLookUpPoints[l]; m++) {
		7161	num = fread(&chn->fLookUp[l][m], 1, 1, fileHandle);
		7162	if (num != 1) {
		7163	printf("Error while reading response calibration file '%s'\n", fileName);
		7164	printf(" at 'LookUp %d' of channel %d bin %d.\n", m, k, l);
		7165	return false;
		7166	}
		7167	}
		7168	// Points
		7169	for (m = 0; m < data->fNumberOfGridPoints; m++) {
		7170	num = fread(&chn->fData[l][m], 2, 1, fileHandle);
		7171	if (num != 1) {
		7172	printf("Error while reading response calibration file '%s'\n", fileName);
		7173	printf(" at 'Point %d' of channel %d bin %d.\n", m, k, l);
		7174	return false;
		7175	}
		7176	}
		7177	// ADC Offset
		7178	num = fread(&chn->fOffsetADC[l], 2, 1, fileHandle);
		7179	if (num != 1) {
		7180	printf("Error while reading response calibration file '%s'\n", fileName);
		7181	printf(" at 'ADC Offset' of channel %d bin %d.\n", k, l);
		7182	return false;
		7183	}
		7184	}
		7185	// Offset
		7186	num = fread(&chn->fOffset[l], 2, 1, fileHandle);
		7187	if (num != 1) {
		7188	printf("Error while reading response calibration file '%s'\n", fileName);
		7189	printf(" at 'Offset' of channel %d bin %d.\n", k, l);
		7190	return false;
		7191	}
		7192	if (fBoard->GetDRSType() == 3) {
		7193	// Gain
		7194	num = fread(&chn->fGain[l], 2, 1, fileHandle);
		7195	if (num != 1) {
		7196	printf("Error while reading response calibration file '%s'\n", fileName);
		7197	printf(" at 'Gain' of channel %d bin %d.\n", k, l);
		7198	return false;
		7199	}
		7200	}
		7201	}
		7202	}
		7203	fclose(fileHandle);
		7204
		7205	if (fBoard->GetDRSType() != 3) {
		7206	data->PreCalculateBSpline();
		7207	}
		7208
		7209	return true;
		7210	}
		7211
		7212	/------------------------------------------------------------------/
		7213
		7214	bool ResponseCalibration::ReadCalibrationV4(unsigned int chipIndex)
		7215	{
		7216	int k, l, num;
		7217	char fileName[2000];
		7218	FILE *fileHandle;
		7219	char calibDir[1000];
		7220
		7221	// Read Response Calibration
		7222
		7223	fBoard->GetCalibrationDirectory(calibDir);
		7224	sprintf(fileName, "%s/board%d/ResponseCalib_board%d_chip%d_%dMHz.bin", calibDir,
		7225	fBoard->GetBoardSerialNumber(), fBoard->GetBoardSerialNumber(), chipIndex,
		7226	static_cast < int >(fBoard->GetNominalFrequency() * 1000));
		7227
		7228	fileHandle = fopen(fileName, "rb");
		7229	if (fileHandle == NULL) {
		7230	printf("Board %d --> Could not find response calibration file:\n", fBoard->GetBoardSerialNumber());
		7231	printf("%s\n", fileName);
		7232	return false;
		7233	}
		7234
		7235	if (fInitialized)
		7236	delete fCalibrationData[chipIndex];
		7237	fCalibrationData[chipIndex] = new CalibrationData(1);
		7238	CalibrationData *data = fCalibrationData[chipIndex];
		7239	CalibrationData::CalibrationDataChannel * chn;
		7240	data->fRead = true;
		7241	data->fHasOffsetCalibration = 1;
		7242	fCalibrationValid[chipIndex] = true;
		7243	data->fStartTemperature = 0;
		7244	data->fEndTemperature = 0;
		7245
		7246	// read channel
		7247	for (k = 0; k < kNumberOfCalibChannelsV4; k++) {
		7248	chn = data->fChannel[k];
		7249	for (l = 0; l < kNumberOfBins; l++) {
		7250	// Offset
		7251	num = fread(&chn->fOffset[l], 2, 1, fileHandle);
		7252	if (num != 1) {
		7253	printf("Error while reading response calibration file '%s'\n", fileName);
		7254	printf(" at 'Offset' of channel %d bin %d.\n", k, l);
		7255	return false;
		7256	}
		7257	if (fBoard->GetDRSType() == 3) {
		7258	// Gain
		7259	num = fread(&chn->fGain[l], 2, 1, fileHandle);
		7260	if (num != 1) {
		7261	printf("Error while reading response calibration file '%s'\n", fileName);
		7262	printf(" at 'Gain' of channel %d bin %d.\n", k, l);
		7263	return false;
		7264	}
		7265	}
		7266	}
		7267	}
		7268
		7269	fclose(fileHandle);
		7270	return true;
		7271	}
		7272
		7273	/------------------------------------------------------------------/
		7274
		7275	float ResponseCalibration::GetValue(float *coefficients, float u, int n)
		7276	{
		7277	int j, ii;
		7278	float bsplines[4];
		7279	ii = CalibrationData::CalculateBSpline(n, u, bsplines);
		7280
		7281	float s = 0;
		7282	for (j = 0; j < kBSplineOrder; j++) {
		7283	s += coefficients[ii + j] * bsplines[j];
		7284	}
		7285	return s;
		7286	}
		7287
		7288	/------------------------------------------------------------------/
		7289
		7290	int ResponseCalibration::Approx(float p, float uu, int np, int nu, float *coef)
		7291	{
		7292	int i, iu, j;
		7293
		7294	const int mbloc = 50;
		7295	int ip = 0;
		7296	int ir = 0;
		7297	int mt = 0;
		7298	int ileft, irow;
		7299	float bu[kBSplineOrder];
		7300	float *matrix[kBSplineOrder + 2];
		7301	for (i = 0; i < kBSplineOrder + 2; i++)
		7302	matrix[i] = new float[mbloc + nu + 1];
		7303	for (iu = kBSplineOrder - 1; iu < nu; iu++) {
		7304	for (i = 0; i < np; i++) {
		7305	if (1 <= uu[i])
		7306	ileft = nu - 1;
		7307	else if (uu[i] < 0)
		7308	ileft = kBSplineOrder - 2;
		7309	else
		7310	ileft = kBSplineOrder - 1 + static_cast < int >(uu[i] * (nu - kBSplineOrder + 1));
		7311	if (ileft != iu)
		7312	continue;
		7313	irow = ir + mt;
		7314	mt++;
		7315	CalibrationData::CalculateBSpline(nu, uu[i], bu);
		7316	for (j = 0; j < kBSplineOrder; j++) {
		7317	matrix[j][irow] = bu[j];
		7318	}
		7319	matrix[kBSplineOrder][irow] = p[i];
		7320	if (mt < mbloc)
		7321	continue;
		7322	LeastSquaresAccumulation(matrix, kBSplineOrder, &ip, &ir, mt, iu - kBSplineOrder + 1);
		7323	mt = 0;
		7324	}
		7325	if (mt == 0)
		7326	continue;
		7327	LeastSquaresAccumulation(matrix, kBSplineOrder, &ip, &ir, mt, iu - kBSplineOrder + 1);
		7328	mt = 0;
		7329	}
		7330	if (!LeastSquaresSolving(matrix, kBSplineOrder, ip, ir, coef, nu)) {
		7331	for (i = 0; i < kBSplineOrder + 2; i++)
		7332	delete matrix[i];
		7333	return 0;
		7334	}
		7335
		7336	for (i = 0; i < kBSplineOrder + 2; i++)
		7337	delete matrix[i];
		7338	return 1;
		7339	}
		7340
		7341	/------------------------------------------------------------------/
		7342
		7343	void ResponseCalibration::LeastSquaresAccumulation(float *matrix, int nb, int ip, int *ir, int mt, int jt)
		7344	{
		7345	int i, j, l, mu, k, kh;
		7346	float rho;
		7347
		7348	if (mt <= 0)
		7349	return;
		7350	if (jt != *ip) {
		7351	if (jt > (*ir)) {
		7352	for (i = 0; i < mt; i++) {
		7353	for (j = 0; j < nb + 1; j++) {
		7354	matrix[j][jt + mt - i] = matrix[j][(*ir) + mt - i];
		7355	}
		7356	}
		7357	for (i = 0; i < jt - (*ir); i++) {
		7358	for (j = 0; j < nb + 1; j++) {
		7359	matrix[j][(*ir) + i] = 0;
		7360	}
		7361	}
		7362	*ir = jt;
		7363	}
		7364	mu = min(nb - 1, (ir) - (ip) - 1);
		7365	if (mu != 0) {
		7366	for (l = 0; l < mu; l++) {
		7367	k = min(l + 1, jt - (*ip));
		7368	for (i = l + 1; i < nb; i++) {
		7369	matrix[i - k][(ip) + l + 1] = matrix[i][(ip) + l + 1];
		7370	}
		7371	for (i = 0; i < k; i++) {
		7372	matrix[nb - i - 1][(*ip) + l + 1] = 0;
		7373	}
		7374	}
		7375	}
		7376	*ip = jt;
		7377	}
		7378	kh = min(nb + 1, (ir) + mt - (ip));
		7379
		7380	for (i = 0; i < kh; i++) {
		7381	Housholder(i, max(i + 1, (ir) - (ip)), (ir) + mt - (ip), matrix, i, (*ip), &rho, matrix, i + 1,
		7382	(*ip), 1, nb - i);
		7383	}
		7384
		7385	ir = (ip) + kh;
		7386	if (kh < nb + 1)
		7387	return;
		7388	for (i = 0; i < nb; i++) {
		7389	matrix[i][(*ir) - 1] = 0;
		7390	}
		7391	}
		7392
		7393	/------------------------------------------------------------------/
		7394
		7395	int ResponseCalibration::LeastSquaresSolving(float *matrix, int nb, int ip, int ir, float x, int n)
		7396	{
		7397	int i, j, l, ii;
		7398	float s, rsq;
		7399	for (j = 0; j < n; j++) {
		7400	x[j] = matrix[nb][j];
		7401	}
		7402	rsq = 0;
		7403	if (n <= ir - 1) {
		7404	for (j = n; j < ir; j++) {
		7405	rsq += pow(matrix[nb][j], 2);
		7406	}
		7407	}
		7408
		7409	for (ii = 0; ii < n; ii++) {
		7410	i = n - ii - 1;
		7411	s = 0;
		7412	l = max(0, i - ip);
		7413	if (i != n - 1) {
		7414	for (j = 1; j < min(n - i, nb); j++) {
		7415	s += matrix[j + l][i] * x[i + j];
		7416	}
		7417	}
		7418	if (matrix[l][i] == 0) {
		7419	printf("Error in LeastSquaresSolving.\n");
		7420	return 0;
		7421	}
		7422	x[i] = (x[i] - s) / matrix[l][i];
		7423	}
		7424	return 1;
		7425	}
		7426
		7427	/------------------------------------------------------------------/
		7428
		7429	void ResponseCalibration::Housholder(int lpivot, int l1, int m, float *u, int iU1, int iU2, float up,
		7430	float **c, int iC1, int iC2, int ice, int ncv)
		7431	{
		7432	int i, j, incr;
		7433	float tol = static_cast < float >(1e-20);
		7434	float tolb = static_cast < float >(1e-24);
		7435	float cl, clinv, sm, b;
		7436
		7437	if (lpivot < 0 \|\| lpivot >= l1 \|\| l1 > m - 1)
		7438	return;
		7439	cl = fabs(u[iU1][iU2 + lpivot]);
		7440
		7441	// Construct the transformation
		7442	for (j = l1 - 1; j < m; j++)
		7443	cl = max(fabsf(u[iU1][iU2 + j]), cl);
		7444	if (cl < tol)
		7445	return;
		7446	clinv = 1 / cl;
		7447	sm = pow(u[iU1][iU2 + lpivot] * clinv, 2);
		7448	for (j = l1; j < m; j++) {
		7449	sm = sm + pow(u[iU1][iU2 + j] * clinv, 2);
		7450	}
		7451	cl *= sqrt(sm);
		7452	if (u[iU1][iU2 + lpivot] > 0)
		7453	cl = -cl;
		7454	*up = u[iU1][iU2 + lpivot] - cl;
		7455	u[iU1][iU2 + lpivot] = cl;
		7456
		7457	if (ncv <= 0)
		7458	return;
		7459	b = (up) u[iU1][iU2 + lpivot];
		7460	if (fabs(b) < tolb)
		7461	return;
		7462	if (b >= 0)
		7463	return;
		7464	b = 1 / b;
		7465	incr = ice * (l1 - lpivot);
		7466	for (j = 0; j < ncv; j++) {
		7467	sm = c[iC1 + j][iC2 + lpivot] * (*up);
		7468	for (i = l1; i < m; i++) {
		7469	sm = sm + c[iC1 + j][iC2 + lpivot + incr + (i - l1) * ice] * u[iU1][iU2 + i];
		7470	}
		7471	if (sm == 0)
		7472	continue;
		7473	sm *= b;
		7474	c[iC1 + j][iC2 + lpivot] = c[iC1 + j][iC2 + lpivot] + sm * (*up);
		7475	for (i = l1; i < m; i++) {
		7476	c[iC1 + j][iC2 + lpivot + incr + (i - l1) * ice] =
		7477	c[iC1 + j][iC2 + lpivot + incr + (i - l1) * ice] + sm * u[iU1][iU2 + i];
		7478	}
		7479	}
		7480	}
		7481
		7482	/------------------------------------------------------------------/
		7483
		7484	int ResponseCalibration::MakeDir(const char *path)
		7485	{
		7486	struct stat buf;
		7487	if (stat(path, &buf)) {
		7488	#ifdef _MSC_VER
		7489	return mkdir(path);
		7490	#else
		7491	return mkdir(path, 0711);
		7492	#endif // R__UNIX
		7493	}
		7494	return 0;
		7495	}
		7496
		7497	/------------------------------------------------------------------/
		7498
		7499	ResponseCalibration::ResponseCalibration(DRSBoard * board)
		7500	: fBoard(board)
		7501	, fPrecision(0.1) // mV
		7502	, fInitialized(false)
		7503	, fRecorded(false)
		7504	, fFitted(false)
		7505	, fOffset(false)
		7506	, fNumberOfPointsLowVolt(0)
		7507	, fNumberOfPoints(0)
		7508	, fNumberOfMode2Bins(0)
		7509	, fNumberOfSamples(0)
		7510	, fNumberOfGridPoints(0)
		7511	, fNumberOfXConstPoints(0)
		7512	, fNumberOfXConstGridPoints(0)
		7513	, fTriggerFrequency(0)
		7514	, fShowStatistics(0)
		7515	, fCalibFile(0)
		7516	, fCurrentLowVoltPoint(0)
		7517	, fCurrentPoint(0)
		7518	, fCurrentSample(0)
		7519	, fCurrentFitChannel(0)
		7520	, fCurrentFitBin(0)
		7521	, fResponseY(0)
		7522	, fSamples(0)
		7523	, fSampleUsed(0)
		7524	, fXXFit(0)
		7525	, fYYFit(0)
		7526	, fWWFit(0)
		7527	, fYYFitRes(0)
		7528	, fYYSave(0)
		7529	, fXXSave(0)
		7530	, fStatisticsApprox(0)
		7531	, fStatisticsApproxExt(0)
		7532	{
		7533	int i;
		7534	// Initializing the Calibration Class
		7535	CalibrationData::fIntRevers[0] = 0;
		7536	for (i = 1; i < 2 * kBSplineOrder - 2; i++) {
		7537	CalibrationData::fIntRevers[i] = static_cast < float >(1.) / i;
		7538	}
		7539	for (i = 0; i < kNumberOfChipsMax; i++) {
		7540	fCalibrationData[i] = NULL;
		7541	}
		7542	// Initializing the Calibration Creation
		7543	fCalibrationValid[0] = false;
		7544	fCalibrationValid[1] = false;
		7545	}
		7546
		7547	/------------------------------------------------------------------/
		7548
		7549	ResponseCalibration::~ResponseCalibration()
		7550	{
		7551	// Delete the Calibration
		7552	for (int i=0 ; i<kNumberOfChipsMax ; i++)
		7553	delete fCalibrationData[i];
		7554
		7555	// Deleting the Calibration Creation
		7556	DeleteFields();
		7557	}
		7558
		7559	/------------------------------------------------------------------/
		7560
		7561	float ResponseCalibration::CalibrationData::fIntRevers[2 * kBSplineOrder - 2];
		7562	ResponseCalibration::CalibrationData::CalibrationData(int numberOfGridPoints)
		7563	:fRead(false)
		7564	, fNumberOfGridPoints(numberOfGridPoints)
		7565	, fHasOffsetCalibration(0)
		7566	, fStartTemperature(0)
		7567	, fEndTemperature(0)
		7568	, fMin(0)
		7569	, fMax(0)
		7570	, fNumberOfLimitGroups(0)
		7571	{
		7572	int i;
		7573	for (i = 0; i < kNumberOfCalibChannelsV3; i++) {
		7574	fChannel[i] = new CalibrationDataChannel(numberOfGridPoints);
		7575	}
		7576	for (i = 0; i < kNumberOfADCBins; i++) {
		7577	fBSplineOffsetLookUp[i] = NULL;
		7578	fBSplineLookUp[i] = NULL;
		7579	}
		7580	};
		7581
		7582	/------------------------------------------------------------------/
		7583
		7584	void ResponseCalibration::CalibrationData::PreCalculateBSpline()
		7585	{
		7586	int i, j;
		7587	float uu;
		7588	float xmin, xrange;
		7589	int nk = fNumberOfGridPoints - kBSplineOrder + 1;
		7590	for (i = 0; i < kNumberOfADCBins; i++) {
		7591	fBSplineLookUp[i] = new float *[fNumberOfLimitGroups];
		7592	fBSplineOffsetLookUp[i] = new int[fNumberOfLimitGroups];
		7593	for (j = 0; j < fNumberOfLimitGroups; j++) {
		7594	fBSplineLookUp[i][j] = new float[kBSplineOrder];
		7595	xmin = fMin + j * kBSplineXMinOffset;
		7596	xrange = fMax - xmin;
		7597	uu = (i - xmin) / xrange;
		7598	if (i < xmin) {
		7599	uu = 0;
		7600	}
		7601	if (i - xmin > xrange) {
		7602	uu = 1;
		7603	}
		7604	fBSplineOffsetLookUp[i][j] = static_cast < int >(uu * nk);
		7605	CalculateBSpline(fNumberOfGridPoints, uu, fBSplineLookUp[i][j]);
		7606	}
		7607	}
		7608	}
		7609
		7610	/------------------------------------------------------------------/
		7611
		7612	void ResponseCalibration::CalibrationData::DeletePreCalculatedBSpline()
		7613	{
		7614	int i, j;
		7615	for (i = 0; i < kNumberOfADCBins; i++) {
		7616	if (fBSplineLookUp[i] != NULL) {
		7617	for (j = 0; j < fNumberOfLimitGroups; j++)
		7618	delete fBSplineLookUp[i][j];
		7619	}
		7620	delete fBSplineLookUp[i];
		7621	delete fBSplineOffsetLookUp[i];
		7622	}
		7623	}
		7624
		7625	/------------------------------------------------------------------/
		7626
		7627	ResponseCalibration::CalibrationData::~CalibrationData()
		7628	{
		7629	int i, j;
		7630	for (i = 0; i < kNumberOfCalibChannelsV3; i++) {
		7631	delete fChannel[i];
		7632	}
		7633	for (i = 0; i < kNumberOfADCBins; i++) {
		7634	if (fBSplineLookUp[i] != NULL) {
		7635	for (j = 0; j < fNumberOfLimitGroups; j++) {
		7636	delete fBSplineLookUp[i][j];
		7637	}
		7638	}
		7639	delete fBSplineLookUp[i];
		7640	delete fBSplineOffsetLookUp[i];
		7641	}
		7642	};
		7643
		7644	/------------------------------------------------------------------/
		7645
		7646	int ResponseCalibration::CalibrationData::CalculateBSpline(int nGrid, float value, float *bsplines)
		7647	{
		7648	int minimum;
		7649	int maximum;
		7650	float xl;
		7651
		7652	int nk = nGrid - kBSplineOrder + 1;
		7653	float vl = value * nk;
		7654	int ivl = static_cast < int >(vl);
		7655
		7656	if (1 <= value) {
		7657	xl = vl - nk + 1;
		7658	minimum = 1 - nk;
		7659	} else if (value < 0) {
		7660	xl = vl;
		7661	minimum = 0;
		7662	} else {
		7663	xl = vl - ivl;
		7664	minimum = -ivl;
		7665	}
		7666	maximum = nk + minimum;
		7667
		7668	// printf("xl = %f\n",xl);
		7669	float vm, vmprev;
		7670	int jl, ju;
		7671	int nb = 0;
		7672
		7673	bsplines[0] = 1;
		7674	for (int i = 0; i < kBSplineOrder - 1; i++) {
		7675	vmprev = 0;
		7676	for (int j = 0; j < nb + 1; j++) {
		7677	jl = max(minimum, j - nb);
		7678	ju = min(maximum, j + 1);
		7679	vm = bsplines[j] * fIntRevers[ju - jl];
		7680	bsplines[j] = vm * (ju - xl) + vmprev;
		7681	vmprev = vm * (xl - jl);
		7682	}
		7683	nb++;
		7684	bsplines[nb] = vmprev;
		7685	}
		7686	return -minimum;
		7687	}
		7688
		7689	/------------------------------------------------------------------/
		7690
		7691	void ResponseCalibration::Average(int method, float *points, int numberOfPoints, float &mean, float &error,
		7692	float sigmaBoundary)
		7693	{
		7694	// Methods :
		7695	// 0 : Average
		7696	// 1 : Average inside sigmaBoundary*sigma
		7697	int i;
		7698	float sum = 0;
		7699	float sumSquare = 0;
		7700
		7701	if (method == 0 \|\| method == 1) {
		7702	for (i = 0; i < numberOfPoints; i++) {
		7703	sum += points[i];
		7704	sumSquare += points[i] * points[i];
		7705	}
		7706
		7707	mean = sum / numberOfPoints;
		7708	error = sqrt((sumSquare - sum * sum / numberOfPoints) / (numberOfPoints - 1));
		7709	}
		7710	if (method == 1) {
		7711	int numberOfGoodPoints = numberOfPoints;
		7712	bool found = true;
		7713	bool *goodSample = new bool[numberOfGoodPoints];
		7714	for (i = 0; i < numberOfGoodPoints; i++)
		7715	goodSample[i] = true;
		7716
		7717	while (found) {
		7718	found = false;
		7719	for (i = 0; i < numberOfPoints; i++) {
		7720	if (goodSample[i] && fabs(points[i] - mean) > sigmaBoundary * error) {
		7721	found = true;
		7722	goodSample[i] = false;
		7723	numberOfGoodPoints--;
		7724	sum -= points[i];
		7725	sumSquare -= points[i] * points[i];
		7726	mean = sum / numberOfGoodPoints;
		7727	error = sqrt((sumSquare - sum * sum / numberOfGoodPoints) / (numberOfGoodPoints - 1));
		7728	}
		7729	}
		7730	}
		7731	delete[] goodSample;
		7732	}
		7733	}

Subversion Repositories f9daq

(root)//cvi/instr/DRS/DRS.cpp – Rev 198