int dsel(struct dirent *dp) {
#else
int dsel(const struct dirent *dp) {
#endif
if (dp->d_name[0]=='.') return 0;
return 1;
}
int test_file_epoch(char *fname,double stime,double etime) {
long yr,mo,dy,hr,mt,sc,ms;
double fstime=0,fetime=0;
int max=0;
CDFid id;
CDFstatus status;
double *dptr;
char *varlist[]={"Epoch",NULL};
status=CDFopen(fname,&id);
if (status !=CDF_OK) return -1;
max=RCDFMaxRecR(id,varlist[0]);
if (max>0) {
status=RCDFReadR(id,0,varlist,data);
dptr=(double *) data[0].data;
EPOCHbreakdown(dptr[0],&yr,&mo,&dy,&hr,&mt,&sc,&ms);
fstime=TimeYMDHMSToEpoch(yr,mo,dy,hr,mt,sc+(ms/1000.0));
status=RCDFReadR(id,max-1,varlist,data);
dptr=(double *) data[0].data;
EPOCHbreakdown(dptr[0],&yr,&mo,&dy,&hr,&mt,&sc,&ms);
fetime=TimeYMDHMSToEpoch(yr,mo,dy,hr,mt,sc+(ms/1000.0));
}
max=RCDFMaxRecZ(id,varlist[0]);
if (max>0) {
status=RCDFReadZ(id,0,varlist,data);
dptr=(double *) data[0].data;
EPOCHbreakdown(dptr[0],&yr,&mo,&dy,&hr,&mt,&sc,&ms);
fstime=TimeYMDHMSToEpoch(yr,mo,dy,hr,mt,sc+(ms/1000.0));
status=RCDFReadZ(id,max-1,varlist,data);
dptr=(double *) data[0].data;
EPOCHbreakdown(dptr[0],&yr,&mo,&dy,&hr,&mt,&sc,&ms);
fetime=TimeYMDHMSToEpoch(yr,mo,dy,hr,mt,sc+(ms/1000.0));
}
CDFclose(&id);
if (stime>fetime) return 0;
if (etime<fstime) return 0;
return 1;
}
Time TimeInterpolator::parseTime(const std::string& timeString)
{
std::cout << "timeString inside parseTime: " << timeString << std::endl;
std::cout << "before declaring string" << std::endl;
char timeString_c_str[EPOCH3_STRING_LEN+1];
std::cout << "before string copy" << std::endl;
strncpy(timeString_c_str, (char *)timeString.c_str(), EPOCH_STRING_LEN);
std::cout << "after string copy" << std::endl;
timeString_c_str[4] = '-';
timeString_c_str[7] = '-';
std::cout << "before creating epoch time with parseEPOCH3" << std::endl;
double epoch = parseEPOCH3(timeString_c_str);
std::cout << "epoch value in parseTime: " << epoch << std::endl;
long year, month, day, hour, minute, second, msec;
year = month = day = hour = minute = second = msec = 1;
EPOCHbreakdown(epoch, &year, &month, &day, &hour, &minute, &second, &msec);
Time time;
time.setYear((short)year);
time.setMonth((short)month);
time.setDay((short)day);
time.setHour((short)hour);
time.setMinute((short)minute);
time.setSeconds((short)second);
time.setMilliseconds((short)msec);
return time;
}
int impmag_pos(CDFid id,struct posdata *ptr,double stime,double etime) {
long yr,mo,dy,hr,mt,sc,ms;
double rtime;
int i,cnt=0;
char *varlist[]={"Epoch","SC_pos_sm","SC_pos_se",0,NULL};
struct RCDFData *data=NULL;
int max;
int rmax;
int status;
double *dptr;
float *fptr;
strcpy(ptr->sat,"i8");
strcpy(ptr->ins,"mag");
cnt=ptr->cnt;
rmax=RCDFMaxRecR(id,varlist[0]);
max=cnt+rmax;
if (max==0) return -1;
data=RCDFMake(3);
if (ptr->time==NULL) ptr->time=malloc(sizeof(double)*max);
else ptr->time=realloc(ptr->time,sizeof(double)*max);
if (ptr->PGSM==NULL) ptr->PGSM=malloc(3*sizeof(float)*max);
else ptr->PGSM=realloc(ptr->PGSM,3*sizeof(float)*max);
if (ptr->PGSE==NULL) ptr->PGSE=malloc(3*sizeof(float)*max);
else ptr->PGSE=realloc(ptr->PGSE,3*sizeof(float)*max);
for (i=0;i<rmax;i++) {
status=RCDFReadR(id,i,varlist,data);
if (status==0) {
dptr=(double *) data[0].data;
EPOCHbreakdown(dptr[0],&yr,&mo,&dy,&hr,&mt,&sc,&ms);
rtime=TimeYMDHMSToEpoch(yr,mo,dy,hr,mt,sc+(ms/1000.0));
if (rtime<stime) continue;
if (rtime>etime) break;
ptr->time[cnt]=rtime;
fptr=(float *) data[1].data;
ptr->PGSM[cnt*3]=fptr[0]/6370.0;
ptr->PGSM[cnt*3+1]=fptr[1]/6370.0;
ptr->PGSM[cnt*3+2]=fptr[2]/6370.0;
fptr=(float *) data[2].data;
ptr->PGSE[cnt*3]=fptr[0]/6370.0;
ptr->PGSE[cnt*3+1]=fptr[1]/6370.0;
ptr->PGSE[cnt*3+2]=fptr[1]/6370.0;
cnt++;
}
}
RCDFFree(data,3);
ptr->cnt=cnt;
return 0;
}
int windmfi_imf(CDFid id,struct imfdata *ptr,double stime,double etime) {
long yr,mo,dy,hr,mt,sc,ms;
double rtime;
int i,cnt=0;
char *varlist[]={"Epoch3","B3GSM","B3GSE",NULL};
struct RCDFData *data=NULL;
int max;
int rmax;
int status;
double *dptr;
float *fptr;
strcpy(ptr->sat,"we");
strcpy(ptr->ins,"mfi");
cnt=ptr->cnt;
rmax=RCDFMaxRecZ(id,varlist[0]);
max=cnt+rmax;
if (rmax==0) return -1;
data=RCDFMake(3);
if (ptr->time==NULL) ptr->time=malloc(sizeof(double)*max);
else ptr->time=realloc(ptr->time,sizeof(double)*max);
if (ptr->BGSMc==NULL) ptr->BGSMc=malloc(3*sizeof(float)*max);
else ptr->BGSMc=realloc(ptr->BGSMc,3*sizeof(float)*max);
if (ptr->BGSEc==NULL) ptr->BGSEc=malloc(3*sizeof(float)*max);
else ptr->BGSEc=realloc(ptr->BGSEc,3*sizeof(float)*max);
for (i=0;i<rmax;i++) {
status=RCDFReadZ(id,i,varlist,data);
if (status==0) {
dptr=(double *) data[0].data;
EPOCHbreakdown(dptr[0],&yr,&mo,&dy,&hr,&mt,&sc,&ms);
rtime=TimeYMDHMSToEpoch(yr,mo,dy,hr,mt,sc+(ms/1000.0));
if (rtime<stime) continue;
if (rtime>etime) break;
ptr->time[cnt]=rtime;
fptr=(float *) data[1].data;
ptr->BGSMc[cnt*3]=fptr[0];
ptr->BGSMc[cnt*3+1]=fptr[1];
ptr->BGSMc[cnt*3+2]=fptr[2];
fptr=(float *) data[2].data;
ptr->BGSEc[cnt*3]=fptr[0];
ptr->BGSEc[cnt*3+1]=fptr[1];
ptr->BGSEc[cnt*3+2]=fptr[2];
cnt++;
}
}
RCDFFree(data,3);
ptr->cnt=cnt;
return 0;
}
void epoch_to_str(double epoch, char *date)
{
long year;
long month;
long day;
long hour;
long minute;
long second;
long msec;
EPOCHbreakdown(epoch, &year, &month, &day, &hour, &minute, &second, &msec);
sprintf(date,"%4d-%02d-%02d/%02d:%02d:%02d",year,month,day,hour,minute,second);
}
VISIBLE_PREFIX long long CDF_TT2000_from_UTC_EPOCH (double epoch)
{
long long nanosecSinceJ2000;
double millisec;
long yy, mm, dd, hh, nn, ss, ll;
if (epoch == -1.0E31 || epoch == -1.0E-31)
return FILLED_TT2000_VALUE;
if (epoch == 0.0 || NegativeZeroReal8 (&epoch))
return DEFAULT_TT2000_PADVALUE;;
EPOCHbreakdown (epoch, &yy, &mm, &dd, &hh, &nn, &ss, &ll);
if (!YearWithin(yy) && !ValidateYMD(yy,mm,dd)) return ILLEGAL_TT2000_VALUE;
return CDF_TT2000_from_UTC_parts ((double)yy, (double)mm, (double)dd,
(double)hh, (double)nn, (double)ss,
(double)ll, 0.0, 0.0);
}
Time::Time(const std::string& timeString)
{
//extern "C" double parseEPOCH3(char epString[EPOCH3_STRING_LEN+1]);
//extern "C" void encodeEPOCH3(double epoch, char epString[EPOCH3_STRING_LEN+1]);
//ensure that it uses '-' instead of '/'
char timeString_c_str[EPOCH3_STRING_LEN+1];
strcpy(timeString_c_str, (char *)timeString.c_str());
timeString_c_str[4] = '-';
timeString_c_str[7] = '-';
epoch = parseEPOCH3(timeString_c_str);
//std::cout << "epoch value in parseTime: " << epoch << std::endl;
long lyear, lmonth, lday, lhour, lminute, lsecond, lmsec;
lyear = lmonth = lday = lhour = lminute = lsecond = lmsec = 1;
EPOCHbreakdown(epoch, &lyear, &lmonth, &lday, &lhour, &lminute, &lsecond, &lmsec);
year = ((short)lyear);
month = ((short)lmonth);
day = ((short)lday);
hour = ((short)lhour);
minute = ((short)lminute);
seconds = ((short)lsecond);
milliseconds = ((short)lmsec);
}
int acemfi_imf(CDFid id,struct imfdata *ptr,double stime,double etime,
int cnv) {
long yr,mo,dy,hr,mt,sc,ms;
double rtime;
int i,cnt=0;
char *varlist[]={"Epoch","BGSEc","BGSM",NULL};
struct RCDFData *data=NULL;
int max;
int rmax;
int status;
double *dptr;
float *fptr;
double gsex,gsey,gsez;
double gsmx,gsmy,gsmz;
if (cnv==1) varlist[2]=NULL;
strcpy(ptr->sat,"ac");
strcpy(ptr->ins,"mfi");
cnt=ptr->cnt;
rmax=RCDFMaxRecR(id,varlist[0]);
max=cnt+rmax;
if (rmax==0) return -1;
data=RCDFMake(3);
if (ptr->time==NULL) ptr->time=malloc(sizeof(double)*max);
else ptr->time=realloc(ptr->time,sizeof(double)*max);
if (ptr->BGSMc==NULL) ptr->BGSMc=malloc(3*sizeof(float)*max);
else ptr->BGSMc=realloc(ptr->BGSMc,3*sizeof(float)*max);
if (ptr->BGSEc==NULL) ptr->BGSEc=malloc(3*sizeof(float)*max);
else ptr->BGSEc=realloc(ptr->BGSEc,3*sizeof(float)*max);
for (i=0;i<rmax;i++) {
status=RCDFReadR(id,i,varlist,data);
if (status==0) {
dptr=(double *) data[0].data;
EPOCHbreakdown(dptr[0],&yr,&mo,&dy,&hr,&mt,&sc,&ms);
rtime=TimeYMDHMSToEpoch(yr,mo,dy,hr,mt,sc+(ms/1000.0));
if (rtime<stime) continue;
if (rtime>etime) break;
ptr->time[cnt]=rtime;
fptr=(float *) data[1].data;
ptr->BGSEc[cnt*3]=fptr[0];
ptr->BGSEc[cnt*3+1]=fptr[1];
ptr->BGSEc[cnt*3+2]=fptr[2];
if (cnv==1) {
gsex=fptr[0];
gsey=fptr[1];
gsez=fptr[2];
GeoPackRecalc(yr,mo,dy,hr,mt,(sc+1.0*ms/1000.0));
GeoPackGseGsm(gsex,gsey,gsez,&gsmx,&gsmy,&gsmz);
ptr->BGSMc[cnt*3]=gsmx;
ptr->BGSMc[cnt*3+1]=gsmy;
ptr->BGSMc[cnt*3+2]=gsmz;
} else {
fptr=(float *) data[2].data;
ptr->BGSMc[cnt*3]=fptr[0];
ptr->BGSMc[cnt*3+1]=fptr[1];
ptr->BGSMc[cnt*3+2]=fptr[2];
}
cnt++;
}
}
RCDFFree(data,3);
ptr->cnt=cnt;
return 0;
}
int windswe_plasma(CDFid id,struct plasmadata *ptr,double stime,double etime) {
long yr,mo,dy,hr,mt,sc,ms;
double rtime;
int i,cnt=0;
char *varlist[]={"Epoch","V_GSM","V_GSE","THERMAL_SPD","Np",NULL};
struct RCDFData *data=NULL;
int max;
int rmax;
int status;
double *dptr;
float *fptr;
float Mp=1.6e-27;
float Vx;
int pcnt=0;
strcpy(ptr->sat,"we");
strcpy(ptr->ins,"swe");
cnt=ptr->cnt;
rmax=RCDFMaxRecR(id,varlist[0]);
max=cnt+rmax;
if (rmax==0) return -1;
data=RCDFMake(5);
if (ptr->time==NULL) ptr->time=malloc(sizeof(double)*max);
else ptr->time=realloc(ptr->time,sizeof(double)*max);
if (ptr->VGSM==NULL) ptr->VGSM=malloc(3*sizeof(float)*max);
else ptr->VGSM=realloc(ptr->VGSM,3*sizeof(float)*max);
if (ptr->VGSE==NULL) ptr->VGSE=malloc(3*sizeof(float)*max);
else ptr->VGSE=realloc(ptr->VGSE,3*sizeof(float)*max);
if (ptr->vth==NULL) ptr->vth=malloc(sizeof(float)*max);
else ptr->vth=realloc(ptr->vth,sizeof(float)*max);
if (ptr->den==NULL) ptr->den=malloc(sizeof(float)*max);
else ptr->den=realloc(ptr->den,sizeof(float)*max);
if (ptr->pre==NULL) ptr->pre=malloc(sizeof(float)*max);
else ptr->pre=realloc(ptr->pre,sizeof(float)*max);
for (i=0;i<rmax;i++) {
status=RCDFReadR(id,i,varlist,data);
if (status==0) {
dptr=(double *) data[0].data;
EPOCHbreakdown(dptr[0],&yr,&mo,&dy,&hr,&mt,&sc,&ms);
rtime=TimeYMDHMSToEpoch(yr,mo,dy,hr,mt,sc+(ms/1000.0));
if (rtime<stime) continue;
if (rtime>etime) break;
ptr->time[cnt]=rtime;
fptr=(float *) data[1].data;
ptr->VGSM[cnt*3]=fptr[0];
ptr->VGSM[cnt*3+1]=fptr[1];
ptr->VGSM[cnt*3+2]=fptr[2];
fptr=(float *) data[2].data;
ptr->VGSE[cnt*3]=fptr[0];
ptr->VGSE[cnt*3+1]=fptr[1];
ptr->VGSE[cnt*3+2]=fptr[2];
fptr=(float *) data[3].data;
ptr->vth[cnt]=fptr[0];
fptr=(float *) data[4].data;
ptr->den[cnt]=fptr[0];
Vx=ptr->VGSM[3*cnt];
if ((ptr->den[cnt]>0) && (Vx > -10000)) {
ptr->pre[cnt]=(ptr->den[cnt]*Mp*1e6)*
fabs(Vx*1e3)*fabs(Vx*1e3)*1e9;
pcnt++;
} else ptr->pre[cnt]=ptr->den[cnt];
cnt++;
}
}
if (pcnt==0) memset(ptr->pre,0,sizeof(float)*cnt);
ptr->cnt=cnt;
return 0;
}
int imppla_plasma(CDFid id,struct plasmadata *ptr,double stime,double etime) {
long yr,mo,dy,hr,mt,sc,ms;
double rtime;
int i,cnt=0;
char *varlist[]={"Epoch","V_GSE","Np",NULL};
struct RCDFData *data=NULL;
int max;
int rmax;
int status;
double gsex,gsey,gsez;
double gsmx,gsmy,gsmz;
double *dptr;
float *fptr;
float Mp=1.6e-27;
float Vx;
int pcnt=0;
cnt=ptr->cnt;
rmax=RCDFMaxRecZ(id,varlist[0]);
max=rmax+cnt;
if (max==0) return -1;
data=RCDFMake(3);
if (ptr->time==NULL) ptr->time=malloc(sizeof(double)*max);
else ptr->time=realloc(ptr->time,sizeof(double)*max);
if (ptr->VGSM==NULL) ptr->VGSM=malloc(3*sizeof(float)*max);
else ptr->VGSM=realloc(ptr->VGSM,3*sizeof(float)*max);
if (ptr->VGSE==NULL) ptr->VGSE=malloc(3*sizeof(float)*max);
else ptr->VGSE=realloc(ptr->VGSE,3*sizeof(float)*max);
if (ptr->vth==NULL) ptr->vth=malloc(sizeof(float)*max);
else ptr->vth=realloc(ptr->vth,sizeof(float)*max);
if (ptr->den==NULL) ptr->den=malloc(sizeof(float)*max);
else ptr->den=realloc(ptr->den,sizeof(float)*max);
if (ptr->pre==NULL) ptr->pre=malloc(sizeof(float)*max);
else ptr->pre=realloc(ptr->pre,sizeof(float)*max);
for (i=0;i<rmax;i++) {
status=RCDFReadZ(id,i,varlist,data);
if (status==0) {
dptr=(double *) data[0].data;
EPOCHbreakdown(dptr[0],&yr,&mo,&dy,&hr,&mt,&sc,&ms);
rtime=TimeYMDHMSToEpoch(yr,mo,dy,hr,mt,sc+(ms/1000.0));
if (rtime<stime) continue;
if (rtime>etime) break;
ptr->time[cnt]=rtime;
fptr=(float *) data[1].data;
if (fptr[0]>9999) {
ptr->VGSE[cnt*3]=1e31;
ptr->VGSE[cnt*3+1]=1e31;
ptr->VGSE[cnt*3+2]=1e31;
ptr->VGSM[cnt*3]=1e31;
ptr->VGSM[cnt*3+1]=1e31;
ptr->VGSM[cnt*3+2]=1e31;
ptr->vth[cnt]=1e31;
ptr->den[cnt]=1e31;
ptr->pre[cnt]=1e31;
cnt++;
continue;
}
ptr->VGSE[cnt*3]=fptr[0];
ptr->VGSE[cnt*3+1]=fptr[1];
ptr->VGSE[cnt*3+2]=fptr[2];
gsex=fptr[0];
gsey=fptr[1];
gsez=fptr[2];
GeoPackRecalc(yr,mo,dy,hr,mt,(sc+1.0*ms/1000.0));
GeoPackGseGsm(gsex,gsey,gsez,&gsmx,&gsmy,&gsmz);
ptr->VGSM[cnt*3]=gsmx;
ptr->VGSM[cnt*3+1]=gsmy;
ptr->VGSM[cnt*3+2]=gsmz;
ptr->vth[cnt]=0;
fptr=(float *) data[2].data;
ptr->den[cnt]=fptr[0];
Vx=ptr->VGSM[3*cnt];
if ((ptr->den[cnt]>0) && (Vx > -10000)) {
ptr->pre[cnt]=(ptr->den[cnt]*Mp*1e6)*
fabs(Vx*1e3)*fabs(Vx*1e3)*1e9;
pcnt++;
} else ptr->pre[cnt]=ptr->den[cnt];
cnt++;
}
}
if (pcnt==0) memset(ptr->pre,0,sizeof(float)*cnt);
RCDFFree(data,3);
ptr->cnt=cnt;
return 0;
}
Time::Time(double epochTime)
{
EPOCHbreakdown(epochTime, (long*)&year, (long *)&month, (long*)&day, (long*)&hour, (long*)&minute, (long*)&seconds, (long*)&milliseconds);
this->epoch = epochTime;
}
