WebSVN – f9daq – Diff – /HVtest/HVtest.c


#include "MPOD.h"
#include <utility.h>
#include "HVtest_ui.h"
 
#define HVSLOT 3
#define NTICSMAX 240
 
static int p1h, pID, rID; //, tfID;
 
int CVICALLBACK refreshTimer (int panel, int control, int event, void *callbackData,
                              int eventData1, int eventData2) {
  QueueUserEvent (9000, p1h, P1_REFRESHTIMER);
  return (0);
}
 
int __stdcall WinMain (HINSTANCE hInstance, HINSTANCE hPrevInstance,
                       LPSTR lpszCmdLine, int nCmdShow) {
 
  const int mo=HVSLOT;
  const int ch0=100*mo;
 
  int mainonoff,HVonoffall;
  int HVonoff[4]={0,0,0,0};
  int HVonoff_rID[4]={P1_HVonoff_1,P1_HVonoff_2,P1_HVonoff_3,P1_HVonoff_4};
  int HVvdis_rID[4]={P1_HVvdis_1,P1_HVvdis_2,P1_HVvdis_3,P1_HVvdis_4};
  int HVcdis_rID[4]={P1_HVcdis_1,P1_HVcdis_2,P1_HVcdis_3,P1_HVcdis_4};
  int iret;
  int i;
  int TESTon=0,ntics=0;
  double HVvset[4],HVcset[4],HVvrise; //,HVvfall;
  double HVvdis[4],HVcdis[4];
//  char cret[2000];
  char cMainSwitch[2][30]= {"Turn system OFF?","Turn system ON?"};
  char HVBid[4][4];
  int HVBid_rID[4]={P1_HVBid_1,P1_HVBid_2,P1_HVBid_3,P1_HVBid_4};
  char HVBfname[4][200];
  FILE *HVBfp[4]={NULL,NULL,NULL,NULL};
  FILE *LIDfp=NULL;
 
  HSNMP crate1;
 
  if (InitCVIRTE (hInstance, 0, 0) == 0)
    return -1;    /* out of memory */
 
  MPOD_Start();
//  MPOD_Open(0,"f9mpod.ijs.si");
  MPOD_Open(0,"arich-mpod1.kek.jp");
  crate1 = crateHsnmp[0];
 
//  iret=MPOD_GetInt(0,"moduleNumber.0");
//  printf("Module Number = %i\n", iret);
//  strcpy(cret, MPOD_GetString(0,"moduleDescription.ma2"));
//  printf("Module type: %s\n",cret);
//  iret=MPOD_GetIntCh(0,"fanNominalSpeed",0);
//  printf("Fan nominal speed = %i\n", iret);
 
  if ((p1h = LoadPanel (0, "HVtest_ui.uir", P1)) < 0) return -1;
  DisplayPanel (p1h);
  SetCtrlVal (p1h, P1_TESTon, 0);
  LIDfp=fopen("lastids.txt","r");
  for (i=0;i<4;i++) {
    fscanf(LIDfp,"%s",HVBid[i]);
    SetCtrlVal(p1h,HVBid_rID[i],HVBid[i]);
  }
  fclose(LIDfp);
  LIDfp=NULL;
 
//Initial state
  mainonoff=getMainSwitch(crate1);
  SetCtrlVal (p1h, P1_MSW, mainonoff);
  SetCtrlVal (p1h, P1_MSWLED, mainonoff);
  iret=getMainStatus(crate1);
  SetCtrlVal (p1h, P1_MST, iret);
  iret=getFanNominalSpeed(crate1);
  SetCtrlVal (p1h, P1_MFS, iret);
  if (mainonoff) {
    HVonoffall=0;
    for (i=0;i<4;i++) {
      HVonoff[i]=getChannelSwitch(crate1, ch0+i);
      if (HVonoff[i]) HVonoffall=1;
    }
    for (i=0;i<4;i++) {
      if (!HVonoffall) HVonoff[i]=1;
        SetCtrlVal (p1h, HVonoff_rID[i], HVonoff[i]);
    }
    HVvset[0]=getOutputVoltage(crate1,ch0);
    SetCtrlVal (p1h, P1_HVvset, HVvset[0]);
    HVcset[0]=1e+6*getOutputCurrent(crate1,ch0);
    SetCtrlVal (p1h, P1_HVcset, HVcset[0]);
    SetAxisScalingMode (p1h, P1_G1, VAL_LEFT_YAXIS, VAL_MANUAL, -(HVcset[0]+1), 1.);
    HVvrise=getModuleRampSpeedVoltage(crate1,mo);
    SetCtrlVal (p1h, P1_HVvrise, HVvrise);
//    vfall[0]=abs(getOutputFallRate(crate1,ch));
//    SetCtrlVal (p1h, P1_VFA0, vfall[0]);
  }
//  QueueUserEvent (1000, p1h, P1_RESET);
  QueueUserEvent (9000, p1h, P1_REFRESHTIMER);
 
  do {
    GetUserEvent (1, &pID, &rID);
    switch (rID) {
      case P1_REFRESHTIMER:
        mainonoff=getMainSwitch(crate1);
        SetCtrlVal (p1h, P1_MSW, mainonoff);
        SetCtrlVal (p1h, P1_MSWLED, mainonoff);
        if (mainonoff) {
          iret=getMainStatus(crate1);
          SetCtrlVal (p1h, P1_MST, iret);
//        ret=getOutputSenseMeasurement(crate1, ch);
          for (i=0; i<4; i++) {
            HVvdis[i]=getOutputTerminalMeasurement(crate1, ch0+i);
            SetCtrlVal (p1h, HVvdis_rID[i], HVvdis[i]);
            HVcdis[i]=1e+6*getCurrentMeasurement(crate1, ch0+i);
            SetCtrlVal (p1h, HVcdis_rID[i], HVcdis[i]);
          }
          PlotStripChart (p1h, P1_G1, HVcdis, 4, 0, 0, VAL_DOUBLE);
          if (TESTon) {
            ntics++;
            for (i=0;i<4;i++)
              fprintf(HVBfp[i],"%5d %10.1f %10.4f\n",ntics,HVvdis[i],HVcdis[i]);
            switch (ntics) {
              case 5:
                SetCtrlVal(p1h,P1_HVonoffall, 1);
                QueueUserEvent (1001, p1h, P1_HVonoffall);
                break;
              case NTICSMAX-25:
                SetCtrlVal(p1h,P1_HVonoffall, 0);
                QueueUserEvent (1001, p1h, P1_HVonoffall);
                break;
              case NTICSMAX:
                SetCtrlVal (p1h, P1_TESTon, 0);
                QueueUserEvent (1001, p1h, P1_TESTon);
                break;
              default:
                break;
            }
          }
        }
        break;
      case P1_MSW:
        GetCtrlVal (p1h, P1_MSW, &mainonoff);
        if (ConfirmPopup("Main switch!!!", cMainSwitch[mainonoff]))
          setMainSwitch(crate1, mainonoff);
        if (mainonoff) {
          Delay(5);
          HVonoffall=0;
          for (i=0; i<4; i++) {
            HVonoff[i]=getChannelSwitch(crate1, ch0+i);
            if (HVonoff[i]) HVonoffall=1;
          }
          for (i=0; i<4; i++) {
            if (!HVonoffall) HVonoff[i]=1;
            SetCtrlVal (p1h, HVonoff_rID[i], HVonoff[i]);
          }
          HVvset[0]=getOutputVoltage(crate1,ch0);
          SetCtrlVal (p1h, P1_HVvset, HVvset[0]);
          HVcset[0]=1e+6*getOutputCurrent(crate1,ch0);
          SetCtrlVal (p1h, P1_HVcset, HVcset[0]);
          SetAxisScalingMode (p1h, P1_G1, VAL_LEFT_YAXIS, VAL_MANUAL, -(HVcset[0]+1), 1.);
          HVvrise=getModuleRampSpeedVoltage(crate1,mo);
          SetCtrlVal (p1h, P1_HVvrise, HVvrise);
        }
        break;
      case P1_HVBidinc:
        if (!TESTon) {
          for (i=0;i<4;i++) {
            GetCtrlVal(p1h, HVBid_rID[i], HVBid[i]);
            sscanf(HVBid[i],"%d",&iret);
            iret+=4;
            sprintf(HVBid[i],"%3.3d",iret);
            SetCtrlVal(p1h, HVBid_rID[i], HVBid[i]);
          }
        }
        break;
      }
    if (!mainonoff) continue;
    switch (rID) {
      case P1_HVonoffall:
        GetCtrlVal (p1h, P1_HVonoffall, &HVonoffall);
        for (i=0;i<4;i++) {
          GetCtrlVal (p1h, HVonoff_rID[i], &HVonoff[i]);
          if (HVonoff[i])
            setChannelSwitch(crate1, ch0+i, HVonoffall);
        }
        break;
      case P1_HVvset:
        GetCtrlVal (p1h, P1_HVvset, &HVvset[0]);
        for (i=0;i<4;i++)
          setOutputVoltage(crate1, ch0+i, HVvset[0]);
        break;
      case P1_HVcset:
        GetCtrlVal (p1h, P1_HVcset, &HVcset[0]);
        SetAxisScalingMode (p1h, P1_G1, VAL_LEFT_YAXIS, VAL_MANUAL, -(HVcset[0]+1), 1.);
        HVcset[0]/=1e+6; //[uA]
        for (i=0;i<4;i++)
          setOutputCurrent(crate1, ch0+i, HVcset[0]);
        break;
      case P1_HVvrise:
        GetCtrlVal (p1h, P1_HVvrise, &HVvrise);
        setModuleRampSpeedVoltage(crate1, mo, HVvrise);
        HVvrise=getModuleRampSpeedVoltage(crate1,mo);
        SetCtrlVal (p1h, P1_HVvrise, HVvrise);
        break;
      case P1_TESTon:
          GetCtrlVal (p1h, P1_TESTon, &TESTon);
          if (TESTon) {
            ntics=0;
            ClearStripChart (p1h, P1_G1);
            LIDfp=fopen("lastids.txt","w");
            for (i=0;i<4;i++) {
              GetCtrlVal(p1h, HVBid_rID[i], HVBid[i]);
              sprintf(HVBfname[i],"data/HVB_%s.dat",HVBid[i]);
              fprintf(LIDfp,"%s\n",HVBid[i]);
              HVBfp[i]=fopen(HVBfname[i],"w");
            }
            fclose(LIDfp);
            LIDfp=NULL;
          } else {
            SetCtrlVal(p1h,P1_HVonoffall, 0);
            QueueUserEvent (1001, p1h, P1_HVonoffall);
            for (i=0;i<4;i++) {
              fclose(HVBfp[i]);
              HVBfp[i]=NULL;
            }
          }
        break;        
//      case P1_VFA0:
//        GetCtrlVal (p1h, P1_VFA0, &ret);
//        setOutputFallRate(crate1, ch, ret);
//        vfall[0]=abs(getOutputFallRate(crate1,ch));
//        SetCtrlVal (p1h, P1_VFA0, vfall[0]);
//        break;
    }
  } while ((rID != P1_EXIT));
 
  DiscardPanel (p1h);
 
  MPOD_Close(0);
  MPOD_End();
 
  return 0;
}
 

Rev 164	Rev 165
1	#include "MPOD.h"	1	#include "MPOD.h"
2	#include <utility.h>	2	#include <utility.h>
3	#include "HVtest_ui.h"	3	#include "HVtest_ui.h"
4		4
5	#define HVSLOT 3	5	#define HVSLOT 3
6	#define NTICSMAX ~~120~~	6	#define NTICSMAX 240
7		7
8	static int p1h, pID, rID; //, tfID;	8	static int p1h, pID, rID; //, tfID;
9		9
10	int CVICALLBACK refreshTimer (int panel, int control, int event, void *callbackData,	10	int CVICALLBACK refreshTimer (int panel, int control, int event, void *callbackData,
11	int eventData1, int eventData2) {	11	int eventData1, int eventData2) {
12	QueueUserEvent (9000, p1h, P1_REFRESHTIMER);	12	QueueUserEvent (9000, p1h, P1_REFRESHTIMER);
13	return (0);	13	return (0);
14	}	14	}
15		15
16	int __stdcall WinMain (HINSTANCE hInstance, HINSTANCE hPrevInstance,	16	int __stdcall WinMain (HINSTANCE hInstance, HINSTANCE hPrevInstance,
17	LPSTR lpszCmdLine, int nCmdShow) {	17	LPSTR lpszCmdLine, int nCmdShow) {
18		18
19	const int mo=HVSLOT;	19	const int mo=HVSLOT;
20	const int ch0=100*mo;	20	const int ch0=100*mo;
21		21
22	int mainonoff,HVonoffall;	22	int mainonoff,HVonoffall;
23	int HVonoff[4]={0,0,0,0};	23	int HVonoff[4]={0,0,0,0};
24	int HVonoff_rID[4]={P1_HVonoff_1,P1_HVonoff_2,P1_HVonoff_3,P1_HVonoff_4};	24	int HVonoff_rID[4]={P1_HVonoff_1,P1_HVonoff_2,P1_HVonoff_3,P1_HVonoff_4};
25	int HVvdis_rID[4]={P1_HVvdis_1,P1_HVvdis_2,P1_HVvdis_3,P1_HVvdis_4};	25	int HVvdis_rID[4]={P1_HVvdis_1,P1_HVvdis_2,P1_HVvdis_3,P1_HVvdis_4};
26	int HVcdis_rID[4]={P1_HVcdis_1,P1_HVcdis_2,P1_HVcdis_3,P1_HVcdis_4};	26	int HVcdis_rID[4]={P1_HVcdis_1,P1_HVcdis_2,P1_HVcdis_3,P1_HVcdis_4};
27	int iret;	27	int iret;
28	int i;	28	int i;
29	int TESTon=0,ntics=0;	29	int TESTon=0,ntics=0;
30	double HVvset[4],HVcset[4],HVvrise; //,HVvfall;	30	double HVvset[4],HVcset[4],HVvrise; //,HVvfall;
31	double HVvdis[4],HVcdis[4];	31	double HVvdis[4],HVcdis[4];
32	// char cret[2000];	32	// char cret[2000];
33	char cMainSwitch[2][30]= {"Turn system OFF?","Turn system ON?"};	33	char cMainSwitch[2][30]= {"Turn system OFF?","Turn system ON?"};
34	char HVBid[4][4];	34	char HVBid[4][4];
35	int HVBid_rID[4]={P1_HVBid_1,P1_HVBid_2,P1_HVBid_3,P1_HVBid_4};	35	int HVBid_rID[4]={P1_HVBid_1,P1_HVBid_2,P1_HVBid_3,P1_HVBid_4};
36	char HVBfname[4][200];	36	char HVBfname[4][200];
37	FILE *HVBfp[4]={NULL,NULL,NULL,NULL};	37	FILE *HVBfp[4]={NULL,NULL,NULL,NULL};
-		38	FILE *LIDfp=NULL;
38		39
39	HSNMP crate1;	40	HSNMP crate1;
40		41
41	if (InitCVIRTE (hInstance, 0, 0) == 0)	42	if (InitCVIRTE (hInstance, 0, 0) == 0)
42	return -1; /* out of memory */	43	return -1; /* out of memory */
43		44
44	MPOD_Start();	45	MPOD_Start();
45	// MPOD_Open(0,"f9mpod.ijs.si");	46	// MPOD_Open(0,"f9mpod.ijs.si");
46	MPOD_Open(0,"arich-mpod1.kek.jp");	47	MPOD_Open(0,"arich-mpod1.kek.jp");
47	crate1 = crateHsnmp[0];	48	crate1 = crateHsnmp[0];
48		49
49	// iret=MPOD_GetInt(0,"moduleNumber.0");	50	// iret=MPOD_GetInt(0,"moduleNumber.0");
50	// printf("Module Number = %i\n", iret);	51	// printf("Module Number = %i\n", iret);
51	// strcpy(cret, MPOD_GetString(0,"moduleDescription.ma2"));	52	// strcpy(cret, MPOD_GetString(0,"moduleDescription.ma2"));
52	// printf("Module type: %s\n",cret);	53	// printf("Module type: %s\n",cret);
53	// iret=MPOD_GetIntCh(0,"fanNominalSpeed",0);	54	// iret=MPOD_GetIntCh(0,"fanNominalSpeed",0);
54	// printf("Fan nominal speed = %i\n", iret);	55	// printf("Fan nominal speed = %i\n", iret);
55		56
56	if ((p1h = LoadPanel (0, "HVtest_ui.uir", P1)) < 0) return -1;	57	if ((p1h = LoadPanel (0, "HVtest_ui.uir", P1)) < 0) return -1;
57	DisplayPanel (p1h);	58	DisplayPanel (p1h);
58	SetCtrlVal (p1h, P1_TESTon, 0);	59	SetCtrlVal (p1h, P1_TESTon, 0);
-		60	LIDfp=fopen("lastids.txt","r");
-		61	for (i=0;i<4;i++) {
-		62	fscanf(LIDfp,"%s",HVBid[i]);
-		63	SetCtrlVal(p1h,HVBid_rID[i],HVBid[i]);
59		64	}
-		65	fclose(LIDfp);
-		66	LIDfp=NULL;
60		67
61	//Initial state	68	//Initial state
62	mainonoff=getMainSwitch(crate1);	69	mainonoff=getMainSwitch(crate1);
63	SetCtrlVal (p1h, P1_MSW, mainonoff);	70	SetCtrlVal (p1h, P1_MSW, mainonoff);
64	SetCtrlVal (p1h, P1_MSWLED, mainonoff);	71	SetCtrlVal (p1h, P1_MSWLED, mainonoff);
65	iret=getMainStatus(crate1);	72	iret=getMainStatus(crate1);
66	SetCtrlVal (p1h, P1_MST, iret);	73	SetCtrlVal (p1h, P1_MST, iret);
67	iret=getFanNominalSpeed(crate1);	74	iret=getFanNominalSpeed(crate1);
68	SetCtrlVal (p1h, P1_MFS, iret);	75	SetCtrlVal (p1h, P1_MFS, iret);
69	if (mainonoff) {	76	if (mainonoff) {
70	HVonoffall=0;	77	HVonoffall=0;
71	for (i=0;i<4;i++) {	78	for (i=0;i<4;i++) {
72	HVonoff[i]=getChannelSwitch(crate1, ch0+i);	79	HVonoff[i]=getChannelSwitch(crate1, ch0+i);
73	if (HVonoff[i]) HVonoffall=1;	80	if (HVonoff[i]) HVonoffall=1;
74	}	81	}
75	for (i=0;i<4;i++) {	82	for (i=0;i<4;i++) {
76	if (!HVonoffall) HVonoff[i]=1;	83	if (!HVonoffall) HVonoff[i]=1;
77	SetCtrlVal (p1h, HVonoff_rID[i], HVonoff[i]);	84	SetCtrlVal (p1h, HVonoff_rID[i], HVonoff[i]);
78	}	85	}
79	HVvset[0]=getOutputVoltage(crate1,ch0);	86	HVvset[0]=getOutputVoltage(crate1,ch0);
80	SetCtrlVal (p1h, P1_HVvset, HVvset[0]);	87	SetCtrlVal (p1h, P1_HVvset, HVvset[0]);
81	HVcset[0]=1e+6*getOutputCurrent(crate1,ch0);	88	HVcset[0]=1e+6*getOutputCurrent(crate1,ch0);
82	SetCtrlVal (p1h, P1_HVcset, HVcset[0]);	89	SetCtrlVal (p1h, P1_HVcset, HVcset[0]);
83	SetAxisScalingMode (p1h, P1_G1, VAL_LEFT_YAXIS, VAL_MANUAL, -(HVcset[0]+1), 1.);	90	SetAxisScalingMode (p1h, P1_G1, VAL_LEFT_YAXIS, VAL_MANUAL, -(HVcset[0]+1), 1.);
84	HVvrise=getModuleRampSpeedVoltage(crate1,mo);	91	HVvrise=getModuleRampSpeedVoltage(crate1,mo);
85	SetCtrlVal (p1h, P1_HVvrise, HVvrise);	92	SetCtrlVal (p1h, P1_HVvrise, HVvrise);
86	// vfall[0]=abs(getOutputFallRate(crate1,ch));	93	// vfall[0]=abs(getOutputFallRate(crate1,ch));
87	// SetCtrlVal (p1h, P1_VFA0, vfall[0]);	94	// SetCtrlVal (p1h, P1_VFA0, vfall[0]);
88	}	95	}
89	// QueueUserEvent (1000, p1h, P1_RESET);	96	// QueueUserEvent (1000, p1h, P1_RESET);
90	QueueUserEvent (9000, p1h, P1_REFRESHTIMER);	97	QueueUserEvent (9000, p1h, P1_REFRESHTIMER);
91		98
92	do {	99	do {
93	GetUserEvent (1, &pID, &rID);	100	GetUserEvent (1, &pID, &rID);
94	switch (rID) {	101	switch (rID) {
95	case P1_REFRESHTIMER:	102	case P1_REFRESHTIMER:
96	mainonoff=getMainSwitch(crate1);	103	mainonoff=getMainSwitch(crate1);
97	SetCtrlVal (p1h, P1_MSW, mainonoff);	104	SetCtrlVal (p1h, P1_MSW, mainonoff);
98	SetCtrlVal (p1h, P1_MSWLED, mainonoff);	105	SetCtrlVal (p1h, P1_MSWLED, mainonoff);
99	if (mainonoff) {	106	if (mainonoff) {
100	iret=getMainStatus(crate1);	107	iret=getMainStatus(crate1);
101	SetCtrlVal (p1h, P1_MST, iret);	108	SetCtrlVal (p1h, P1_MST, iret);
102	// ret=getOutputSenseMeasurement(crate1, ch);	109	// ret=getOutputSenseMeasurement(crate1, ch);
103	for (i=0; i<4; i++) {	110	for (i=0; i<4; i++) {
104	HVvdis[i]=getOutputTerminalMeasurement(crate1, ch0+i);	111	HVvdis[i]=getOutputTerminalMeasurement(crate1, ch0+i);
105	SetCtrlVal (p1h, HVvdis_rID[i], HVvdis[i]);	112	SetCtrlVal (p1h, HVvdis_rID[i], HVvdis[i]);
106	HVcdis[i]=1e+6*getCurrentMeasurement(crate1, ch0+i);	113	HVcdis[i]=1e+6*getCurrentMeasurement(crate1, ch0+i);
107	SetCtrlVal (p1h, HVcdis_rID[i], HVcdis[i]);	114	SetCtrlVal (p1h, HVcdis_rID[i], HVcdis[i]);
108	}	115	}
109	PlotStripChart (p1h, P1_G1, HVcdis, 4, 0, 0, VAL_DOUBLE);	116	PlotStripChart (p1h, P1_G1, HVcdis, 4, 0, 0, VAL_DOUBLE);
110	if (TESTon) {	117	if (TESTon) {
111	ntics++;	118	ntics++;
112	for (i=0;i<4;i++)	119	for (i=0;i<4;i++)
113	fprintf(HVBfp[i],"%5d %10.1f %10.4f\n",ntics,HVvdis[i],HVcdis[i]);	120	fprintf(HVBfp[i],"%5d %10.1f %10.4f\n",ntics,HVvdis[i],HVcdis[i]);
114	switch (ntics) {	121	switch (ntics) {
115	case 5:	122	case 5:
116	SetCtrlVal(p1h,P1_HVonoffall, 1);	123	SetCtrlVal(p1h,P1_HVonoffall, 1);
117	QueueUserEvent (1001, p1h, P1_HVonoffall);	124	QueueUserEvent (1001, p1h, P1_HVonoffall);
118	break;	125	break;
119	case NTICSMAX-25:	126	case NTICSMAX-25:
120	SetCtrlVal(p1h,P1_HVonoffall, 0);	127	SetCtrlVal(p1h,P1_HVonoffall, 0);
121	QueueUserEvent (1001, p1h, P1_HVonoffall);	128	QueueUserEvent (1001, p1h, P1_HVonoffall);
122	break;	129	break;
123	case NTICSMAX:	130	case NTICSMAX:
124	SetCtrlVal (p1h, P1_TESTon, 0);	131	SetCtrlVal (p1h, P1_TESTon, 0);
125	QueueUserEvent (1001, p1h, P1_TESTon);	132	QueueUserEvent (1001, p1h, P1_TESTon);
126	break;	133	break;
127	default:	134	default:
128	break;	135	break;
129	}	136	}
130	}	137	}
131	}	138	}
132	break;	139	break;
133	case P1_MSW:	140	case P1_MSW:
134	GetCtrlVal (p1h, P1_MSW, &mainonoff);	141	GetCtrlVal (p1h, P1_MSW, &mainonoff);
135	if (ConfirmPopup("Main switch!!!", cMainSwitch[mainonoff]))	142	if (ConfirmPopup("Main switch!!!", cMainSwitch[mainonoff]))
136	setMainSwitch(crate1, mainonoff);	143	setMainSwitch(crate1, mainonoff);
137	if (mainonoff) {	144	if (mainonoff) {
138	Delay(5);	145	Delay(5);
139	HVonoffall=0;	146	HVonoffall=0;
140	for (i=0; i<4; i++) {	147	for (i=0; i<4; i++) {
141	HVonoff[i]=getChannelSwitch(crate1, ch0+i);	148	HVonoff[i]=getChannelSwitch(crate1, ch0+i);
142	if (HVonoff[i]) HVonoffall=1;	149	if (HVonoff[i]) HVonoffall=1;
143	}	150	}
144	for (i=0; i<4; i++) {	151	for (i=0; i<4; i++) {
145	if (!HVonoffall) HVonoff[i]=1;	152	if (!HVonoffall) HVonoff[i]=1;
146	SetCtrlVal (p1h, HVonoff_rID[i], HVonoff[i]);	153	SetCtrlVal (p1h, HVonoff_rID[i], HVonoff[i]);
147	}	154	}
148	HVvset[0]=getOutputVoltage(crate1,ch0);	155	HVvset[0]=getOutputVoltage(crate1,ch0);
149	SetCtrlVal (p1h, P1_HVvset, HVvset[0]);	156	SetCtrlVal (p1h, P1_HVvset, HVvset[0]);
150	HVcset[0]=1e+6*getOutputCurrent(crate1,ch0);	157	HVcset[0]=1e+6*getOutputCurrent(crate1,ch0);
151	SetCtrlVal (p1h, P1_HVcset, HVcset[0]);	158	SetCtrlVal (p1h, P1_HVcset, HVcset[0]);
152	SetAxisScalingMode (p1h, P1_G1, VAL_LEFT_YAXIS, VAL_MANUAL, -(HVcset[0]+1), 1.);	159	SetAxisScalingMode (p1h, P1_G1, VAL_LEFT_YAXIS, VAL_MANUAL, -(HVcset[0]+1), 1.);
153	HVvrise=getModuleRampSpeedVoltage(crate1,mo);	160	HVvrise=getModuleRampSpeedVoltage(crate1,mo);
154	SetCtrlVal (p1h, P1_HVvrise, HVvrise);	161	SetCtrlVal (p1h, P1_HVvrise, HVvrise);
-		162	}
-		163	break;
-		164	case P1_HVBidinc:
-		165	if (!TESTon) {
-		166	for (i=0;i<4;i++) {
-		167	GetCtrlVal(p1h, HVBid_rID[i], HVBid[i]);
-		168	sscanf(HVBid[i],"%d",&iret);
-		169	iret+=4;
-		170	sprintf(HVBid[i],"%3.3d",iret);
-		171	SetCtrlVal(p1h, HVBid_rID[i], HVBid[i]);
-		172	}
155	}	173	}
156	break;	174	break;
157	}	175	}
158	if (!mainonoff) continue;	176	if (!mainonoff) continue;
159	switch (rID) {	177	switch (rID) {
160	case P1_HVonoffall:	178	case P1_HVonoffall:
161	GetCtrlVal (p1h, P1_HVonoffall, &HVonoffall);	179	GetCtrlVal (p1h, P1_HVonoffall, &HVonoffall);
162	for (i=0;i<4;i++) {	180	for (i=0;i<4;i++) {
163	GetCtrlVal (p1h, HVonoff_rID[i], &HVonoff[i]);	181	GetCtrlVal (p1h, HVonoff_rID[i], &HVonoff[i]);
164	if (HVonoff[i])	182	if (HVonoff[i])
165	setChannelSwitch(crate1, ch0+i, HVonoffall);	183	setChannelSwitch(crate1, ch0+i, HVonoffall);
166	}	184	}
167	break;	185	break;
168	case P1_HVvset:	186	case P1_HVvset:
169	GetCtrlVal (p1h, P1_HVvset, &HVvset[0]);	187	GetCtrlVal (p1h, P1_HVvset, &HVvset[0]);
170	for (i=0;i<4;i++)	188	for (i=0;i<4;i++)
171	setOutputVoltage(crate1, ch0+i, HVvset[0]);	189	setOutputVoltage(crate1, ch0+i, HVvset[0]);
172	break;	190	break;
173	case P1_HVcset:	191	case P1_HVcset:
174	GetCtrlVal (p1h, P1_HVcset, &HVcset[0]);	192	GetCtrlVal (p1h, P1_HVcset, &HVcset[0]);
175	SetAxisScalingMode (p1h, P1_G1, VAL_LEFT_YAXIS, VAL_MANUAL, -(HVcset[0]+1), 1.);	193	SetAxisScalingMode (p1h, P1_G1, VAL_LEFT_YAXIS, VAL_MANUAL, -(HVcset[0]+1), 1.);
176	HVcset[0]/=1e+6; //[uA]	194	HVcset[0]/=1e+6; //[uA]
177	for (i=0;i<4;i++)	195	for (i=0;i<4;i++)
178	setOutputCurrent(crate1, ch0+i, HVcset[0]);	196	setOutputCurrent(crate1, ch0+i, HVcset[0]);
179	break;	197	break;
180	case P1_HVvrise:	198	case P1_HVvrise:
181	GetCtrlVal (p1h, P1_HVvrise, &HVvrise);	199	GetCtrlVal (p1h, P1_HVvrise, &HVvrise);
182	setModuleRampSpeedVoltage(crate1, mo, HVvrise);	200	setModuleRampSpeedVoltage(crate1, mo, HVvrise);
183	HVvrise=getModuleRampSpeedVoltage(crate1,mo);	201	HVvrise=getModuleRampSpeedVoltage(crate1,mo);
184	SetCtrlVal (p1h, P1_HVvrise, HVvrise);	202	SetCtrlVal (p1h, P1_HVvrise, HVvrise);
185	break;	203	break;
186	case P1_TESTon:	204	case P1_TESTon:
187	GetCtrlVal (p1h, P1_TESTon, &TESTon);	205	GetCtrlVal (p1h, P1_TESTon, &TESTon);
188	if (TESTon) {	206	if (TESTon) {
189	ntics=0;	207	ntics=0;
190	ClearStripChart (p1h, P1_G1);	208	ClearStripChart (p1h, P1_G1);
-		209	LIDfp=fopen("lastids.txt","w");
191	for (i=0;i<4;i++) {	210	for (i=0;i<4;i++) {
192	GetCtrlVal(p1h, HVBid_rID[i], HVBid[i]);	211	GetCtrlVal(p1h, HVBid_rID[i], HVBid[i]);
193	sprintf(HVBfname[i],"HVB_%s.dat",HVBid[i]);	212	sprintf(HVBfname[i],"data/HVB_%s.dat",HVBid[i]);
-		213	fprintf(LIDfp,"%s\n",HVBid[i]);
194	HVBfp[i]=fopen(HVBfname[i],"w");	214	HVBfp[i]=fopen(HVBfname[i],"w");
195	}	215	}
-		216	fclose(LIDfp);
-		217	LIDfp=NULL;
196	} else {	218	} else {
197	SetCtrlVal(p1h,P1_HVonoffall, 0);	219	SetCtrlVal(p1h,P1_HVonoffall, 0);
198	QueueUserEvent (1001, p1h, P1_HVonoffall);	220	QueueUserEvent (1001, p1h, P1_HVonoffall);
199	for (i=0;i<4;i++)	221	for (i=0;i<4;i++) {
200	fclose(HVBfp[i]);	222	fclose(HVBfp[i]);
-		223	HVBfp[i]=NULL;
-		224	}
201	}	225	}
202	break;	226	break;
203	// case P1_VFA0:	227	// case P1_VFA0:
204	// GetCtrlVal (p1h, P1_VFA0, &ret);	228	// GetCtrlVal (p1h, P1_VFA0, &ret);
205	// setOutputFallRate(crate1, ch, ret);	229	// setOutputFallRate(crate1, ch, ret);
206	// vfall[0]=abs(getOutputFallRate(crate1,ch));	230	// vfall[0]=abs(getOutputFallRate(crate1,ch));
207	// SetCtrlVal (p1h, P1_VFA0, vfall[0]);	231	// SetCtrlVal (p1h, P1_VFA0, vfall[0]);
208	// break;	232	// break;
209	}	233	}
210	} while ((rID != P1_EXIT));	234	} while ((rID != P1_EXIT));
211		235
212	DiscardPanel (p1h);	236	DiscardPanel (p1h);
213		237
214	MPOD_Close(0);	238	MPOD_Close(0);
215	MPOD_End();	239	MPOD_End();
216		240
217	return 0;	241	return 0;
218	}	242	}
219		243

Subversion Repositories f9daq

(root)/HVtest/HVtest.c @ 319 – Rev 164 → 165