void smf_calc_mapcoord( ThrWorkForce *wf, AstKeyMap *config, smfData *data,
AstFrameSet *outfset, int moving, int *lbnd_out,
int *ubnd_out, fts2Port fts_port, int flags,
int *status ) {
/* Local Variables */
AstSkyFrame *abskyfrm = NULL;/* Output SkyFrame (always absolute) */
AstMapping *bolo2map=NULL; /* Combined mapping bolo->map coordinates */
int bndndf=NDF__NOID; /* NDF identifier for map bounds */
void *data_pntr[1]; /* Array of pointers to mapped arrays in ndf */
int *data_index; /* Mapped DATA_ARRAY part of NDF */
int docalc=1; /* If set calculate the LUT */
int doextension=0; /* Try to write LUT to MAPCOORD extension */
smfFile *file=NULL; /* smfFile pointer */
AstObject *fstemp = NULL; /* AstObject version of outfset */
int ii; /* loop counter */
int indf_lat = NDF__NOID; /* Identifier for NDF to receive lat values */
int indf_lon = NDF__NOID; /* Identifier for NDF to receive lon values */
smfCalcMapcoordData *job_data=NULL; /* Array of job */
int lbnd[1]; /* Pixel bounds for 1d pointing array */
int lbnd_old[2]; /* Pixel bounds for existing LUT */
int lbnd_temp[1]; /* Bounds for bounds NDF component */
int lutndf=NDF__NOID; /* NDF identifier for coordinates */
AstMapping *map2sky_old=NULL;/* Existing mapping map->celestial coord. */
HDSLoc *mapcoordloc=NULL; /* HDS locator to the MAPCOORD extension */
int nw; /* Number of worker threads */
AstFrameSet *oldfset=NULL; /* Pointer to existing WCS info */
AstSkyFrame *oskyfrm = NULL; /* SkyFrame from the output WCS Frameset */
smfCalcMapcoordData *pdata=NULL; /* Pointer to job data */
double *lat_ptr = NULL; /* Pointer to array to receive lat values */
double *lon_ptr = NULL; /* Pointer to array to receive lon values */
int ubnd[1]; /* Pixel bounds for 1d pointing array */
int ubnd_old[2]; /* Pixel bounds for existing LUT */
int ubnd_temp[1]; /* Bounds for bounds NDF component */
int *lut = NULL; /* The lookup table */
dim_t nbolo=0; /* Number of bolometers */
dim_t ntslice=0; /* Number of time slices */
int nmap; /* Number of mapped elements */
AstMapping *sky2map=NULL; /* Mapping celestial->map coordinates */
size_t step; /* step size for dividing up work */
AstCmpMap *testcmpmap=NULL; /* Combined forward/inverse mapping */
AstMapping *testsimpmap=NULL;/* Simplified testcmpmap */
double *theta = NULL; /* Scan direction at each time slice */
int tstep; /* Time slices between full Mapping calculations */
int exportlonlat; /* Dump longitude and latitude values? */
/* Main routine */
if (*status != SAI__OK) return;
/* How many threads do we get to play with */
nw = wf ? wf->nworker : 1;
/* Initialize bounds to avoid compiler warnings */
lbnd_old[0] = 0;
lbnd_old[1] = 0;
ubnd_old[0] = 0;
ubnd_old[1] = 0;
/* Check for pre-existing LUT and de-allocate it. This will only waste
time if the MAPCOORD extension is found to be valid and it has
to be re-loaded from disk. */
smf_close_mapcoord( data, status );
/* Assert ICD data order */
smf_dataOrder( data, 1, status );
/* Get the data dimensions */
smf_get_dims( data, NULL, NULL, &nbolo, &ntslice, NULL, NULL, NULL, status );
/* If SMF__NOCREATE_FILE is not set, and file associated with an NDF,
map a new MAPCOORD extension (or verify an existing one) */
if( !(flags & SMF__NOCREATE_FILE) && data->file ) {
doextension = 1;
} else {
doextension = 0;
docalc = 1;
}
/* Create / check for existing MAPCOORD extension */
if( doextension ) {
file = data->file;
/* Check type of file before proceeding */
if( file->isSc2store ) {
*status = SAI__ERROR;
errRep(FUNC_NAME,
"File was opened by sc2store library (raw data?)",
status);
}
if( !file->isTstream ) {
*status = SAI__ERROR;
errRep(FUNC_NAME, "File does not contain time stream data",status);
}
/* Get HDS locator to the MAPCOORD extension */
mapcoordloc = smf_get_xloc( data, "MAPCOORD", "MAP_PROJECTION", "UPDATE",
0, 0, status );
/* Obtain NDF identifier/placeholder for LUT in MAPCOORD extension*/
lbnd[0] = 0;
ubnd[0] = nbolo*ntslice-1;
lutndf = smf_get_ndfid( mapcoordloc, "LUT", "UPDATE", "UNKNOWN",
"_INTEGER", 1, lbnd, ubnd, status );
if( *status == SAI__OK ) {
/* store the NDF identifier */
file->mapcoordid = lutndf;
/* Create sky to output grid mapping using the base coordinates to
get the coordinates of the tangent point if it hasn't been done
yet. */
sky2map = astGetMapping( outfset, AST__CURRENT, AST__BASE );
}
/* Before mapping the LUT, first check for existing WCS information
and LBND/UBND for the output map. If they are already correct don't
bother re-calculating the LUT! */
if( *status == SAI__OK ) {
/* Try reading in the WCS information */
kpg1Wread( mapcoordloc, "WCS", &fstemp, status );
oldfset = (AstFrameSet*)fstemp;
if( *status == SAI__OK ) {
/* Check that the old and new mappings are the same by
checking that combining one with the inverse of the other
reduces to a UnitMap. */
map2sky_old = astGetMapping( oldfset, AST__BASE, AST__CURRENT );
testcmpmap = astCmpMap( map2sky_old, sky2map, 1, " " );
testsimpmap = astSimplify( testcmpmap );
if( astIsAUnitMap( testsimpmap ) ) {
/* The mappings are the same, now just check the pixel
bounds in the output map */
lbnd_temp[0] = 1;
ubnd_temp[0] = 2;
bndndf = smf_get_ndfid( mapcoordloc, "LBND", "READ", "UNKNOWN",
"_INTEGER", 1, lbnd_temp, ubnd_temp,
status );
if( *status == SAI__OK ) {
ndfMap( bndndf, "DATA", "_INTEGER", "READ", data_pntr, &nmap,
status );
data_index = data_pntr[0];
if( *status == SAI__OK ) {
lbnd_old[0] = data_index[0];
lbnd_old[1] = data_index[1];
}
ndfAnnul( &bndndf, status );
}
bndndf = smf_get_ndfid( mapcoordloc, "UBND", "READ", "UNKNOWN",
"_INTEGER", 1, lbnd_temp, ubnd_temp,
status );
if( *status == SAI__OK ) {
ndfMap( bndndf, "DATA", "_INTEGER", "READ", data_pntr, &nmap,
status );
data_index = data_pntr[0];
if( *status == SAI__OK ) {
ubnd_old[0] = data_index[0];
ubnd_old[1] = data_index[1];
}
ndfAnnul( &bndndf, status );
}
if( *status == SAI__OK ) {
/* If we get this far finally do the bounds check! */
if( (lbnd_old[0] == lbnd_out[0]) &&
(lbnd_old[1] == lbnd_out[1]) &&
(ubnd_old[0] == ubnd_out[0]) &&
(ubnd_old[1] == ubnd_out[1]) ) {
docalc = 0; /* We don't have to re-calculate the LUT */
msgOutif(MSG__VERB," ",FUNC_NAME ": Existing LUT OK",
status);
}
}
}
/* Bad status / AST errors at this point due to problems with
MAPCOORD. Annul and continue calculating new MAPCOORD extension. */
astClearStatus;
errAnnul(status);
} else {
/* Bad status due to non-existence of MAPCOORD. Annul and continue */
errAnnul(status);
}
}
}
/* If we need to calculate the LUT do it here */
if( docalc && (*status == SAI__OK) ) {
msgOutif(MSG__VERB," ", FUNC_NAME ": Calculate new LUT",
status);
/* Get the increment in time slices between full Mapping calculations.
The Mapping for intermediate time slices will be approximated. */
dim_t dimval;
smf_get_nsamp( config, "TSTEP", data, &dimval, status );
tstep = dimval;
/* Get space for the LUT */
if( doextension ) {
/* Map the LUT array */
ndfMap( lutndf, "DATA", "_INTEGER", "WRITE", data_pntr, &nmap,
status );
data_index = data_pntr[0];
if( *status == SAI__OK ) {
lut = data_index;
} else {
errRep( FUNC_NAME, "Unable to map LUT in MAPCOORD extension",
status);
}
} else {
/* alloc the LUT and THETA arrays */
lut = astMalloc( (nbolo*ntslice)*sizeof(*(data->lut)) );
theta = astMalloc( ntslice*sizeof(*(data->theta)) );
}
/* Retrieve the sky2map mapping from the output frameset (actually
map2sky) */
oskyfrm = astGetFrame( outfset, AST__CURRENT );
sky2map = astGetMapping( outfset, AST__BASE, AST__CURRENT );
/* If the longitude and latitude is being dumped, create new NDFs to
hold them, and map them. */
if( config ) {
astMapGet0I( config, "EXPORTLONLAT", &exportlonlat );
if( exportlonlat ) {
lon_ptr = smf1_calc_mapcoord1( data, nbolo, ntslice, oskyfrm,
&indf_lon, 1, status );
lat_ptr = smf1_calc_mapcoord1( data, nbolo, ntslice, oskyfrm,
&indf_lat, 2, status );
}
}
/* Invert the mapping to get Output SKY to output map coordinates */
astInvert( sky2map );
/* Create a SkyFrame in absolute coordinates */
abskyfrm = astCopy( oskyfrm );
astClear( abskyfrm, "SkyRefIs" );
astClear( abskyfrm, "SkyRef(1)" );
astClear( abskyfrm, "SkyRef(2)" );
if( *status == SAI__OK ) {
/* --- Begin parellelized portion ------------------------------------ */
/* Start a new job context. Each call to thrWait within this
context will wait until all jobs created within the context have
completed. Jobs created in higher contexts are ignored by thrWait. */
thrBeginJobContext( wf, status );
/* Allocate job data for threads */
job_data = astCalloc( nw, sizeof(*job_data) );
if( *status == SAI__OK ) {
/* Set up job data, and start calculating pointing for blocks of
time slices in different threads */
if( nw > (int) ntslice ) {
step = 1;
} else {
step = ntslice/nw;
}
for( ii=0; (*status==SAI__OK)&&(ii<nw); ii++ ) {
pdata = job_data + ii;
/* Blocks of time slices */
pdata->t1 = ii*step;
pdata->t2 = (ii+1)*step-1;
/* Ensure that the last thread picks up any left-over tslices */
if( (ii==(nw-1)) && (pdata->t1<(ntslice-1)) ) {
pdata->t2=ntslice-1;
}
pdata->ijob = -1;
pdata->lut = lut;
pdata->theta = theta;
pdata->lbnd_out = lbnd_out;
pdata->moving = moving;
pdata->ubnd_out = ubnd_out;
pdata->tstep = tstep;
pdata->lat_ptr = lat_ptr;
pdata->lon_ptr = lon_ptr;
pdata->fts_port = fts_port;
/* Make deep copies of AST objects and unlock them so that each
thread can then lock them for their own exclusive use */
pdata->abskyfrm = astCopy( abskyfrm );
astUnlock( pdata->abskyfrm, 1 );
pdata->sky2map = astCopy( sky2map );
astUnlock( pdata->sky2map, 1 );
/* Similarly, make a copy of the smfData, including only the header
information which each thread will need in order to make calls to
smf_rebin_totmap */
pdata->data = smf_deepcopy_smfData( data, 0, SMF__NOCREATE_FILE |
SMF__NOCREATE_DA |
SMF__NOCREATE_FTS |
SMF__NOCREATE_DATA |
SMF__NOCREATE_VARIANCE |
SMF__NOCREATE_QUALITY, 0, 0,
status );
smf_lock_data( pdata->data, 0, status );
}
for( ii=0; ii<nw; ii++ ) {
/* Submit the job */
pdata = job_data + ii;
pdata->ijob = thrAddJob( wf, THR__REPORT_JOB, pdata,
smfCalcMapcoordPar, 0, NULL, status );
}
/* Wait until all of the jobs submitted within the current job
context have completed */
thrWait( wf, status );
}
/* End the current job context. */
thrEndJobContext( wf, status );
/* --- End parellelized portion -------------------------------------- */
/* Set the lut pointer in data to the buffer */
data->lut = lut;
data->theta = theta;
/* Write the WCS for the projection to the extension */
if( doextension ) {
kpg1Wwrt( (AstObject*)outfset, "WCS", mapcoordloc, status );
/* Write the pixel bounds for the map to the extension */
lbnd_temp[0] = 1; /* Don't get confused! Bounds for NDF that will */
ubnd_temp[0] = 2; /* contain the bounds for the output 2d map! */
bndndf = smf_get_ndfid( mapcoordloc, "LBND", "UPDATE", "UNKNOWN",
"_INTEGER", 1, lbnd_temp, ubnd_temp, status );
ndfMap( bndndf, "DATA", "_INTEGER", "WRITE", data_pntr, &nmap,
status );
data_index = data_pntr[0];
if( *status == SAI__OK ) {
data_index[0] = lbnd_out[0];
data_index[1] = lbnd_out[1];
} else {
errRep( FUNC_NAME, "Unable to map LBND in MAPCOORD extension",
status);
}
ndfAnnul( &bndndf, status );
bndndf = smf_get_ndfid( mapcoordloc, "UBND", "UPDATE", "UNKNOWN",
"_INTEGER", 1, lbnd_temp, ubnd_temp, status );
ndfMap( bndndf, "DATA", "_INTEGER", "WRITE", data_pntr, &nmap,
status );
data_index = data_pntr[0];
if( *status == SAI__OK ) {
data_index[0] = ubnd_out[0];
data_index[1] = ubnd_out[1];
} else {
errRep( FUNC_NAME, "Unable to map UBND in MAPCOORD extension",
status);
}
ndfAnnul( &bndndf, status );
}
}
}
/* Clean Up */
if( testsimpmap ) testsimpmap = astAnnul( testsimpmap );
if( testcmpmap ) testcmpmap = astAnnul( testcmpmap );
if( map2sky_old ) map2sky_old = astAnnul( map2sky_old );
if( oldfset ) oldfset = astAnnul( oldfset );
if (sky2map) sky2map = astAnnul( sky2map );
if (bolo2map) bolo2map = astAnnul( bolo2map );
if( abskyfrm ) abskyfrm = astAnnul( abskyfrm );
if( oskyfrm ) oskyfrm = astAnnul( oskyfrm );
if( mapcoordloc ) datAnnul( &mapcoordloc, status );
if( indf_lat != NDF__NOID ) ndfAnnul( &indf_lat, status );
if( indf_lon != NDF__NOID ) ndfAnnul( &indf_lon, status );
/* If we get this far, docalc=0, and status is OK, there must be
a good LUT in there already. Map it so that it is accessible to
the caller; "UPDATE" so that the caller can modify it if desired. */
if( (*status == SAI__OK) && (docalc == 0) ) {
smf_open_mapcoord( data, "UPDATE", status );
}
/* Clean up job data */
if( job_data ) {
for( ii=0; (*status==SAI__OK)&&(ii<nw); ii++ ) {
pdata = job_data + ii;
if( pdata->data ) {
smf_lock_data( pdata->data, 1, status );
smf_close_file( &(pdata->data), status );
}
astLock( pdata->abskyfrm, 0 );
pdata->abskyfrm = astAnnul( pdata->abskyfrm );
astLock( pdata->sky2map, 0 );
pdata->sky2map = astAnnul( pdata->sky2map );
}
job_data = astFree( job_data );
}
}
void smf_flag_spikes( ThrWorkForce *wf, smfData *data, smf_qual_t mask,
double thresh, size_t box, size_t *nflagged,
int *status ){
/* Local Variables */
int i; /* Loop counter */
smfFlagSpikesData *job_data=NULL;/* Array of job data for each thread */
dim_t nbolo; /* Number of bolometers */
dim_t ntime; /* Number of time-slices */
double *dat = NULL; /* Pointer to bolo data */
smfFlagSpikesData *pdata=NULL;/* Pointer to job data */
int nw; /* Number of worker threads */
size_t bstride; /* Vector stride between bolometer samples */
size_t nflag; /* Number of samples flagged */
size_t tstride; /* Vector stride between time samples */
smf_qual_t *qua = NULL; /* Pointer to quality flags */
size_t step; /* step size for dividing up work */
int njobs=0; /* Number of jobs to be processed */
/* Check inherited status. Also return immediately if no spike flagging
is to be performed. */
if( *status != SAI__OK || thresh == 0.0 ) return;
/* How many threads do we get to play with */
nw = wf ? wf->nworker : 1;
/* Check we have double precision data. */
smf_dtype_check_fatal( data, NULL, SMF__DOUBLE, status );
/* Get a pointer to the quality array to use. */
qua = smf_select_qualpntr( data, NULL, status );
/* Report an error if we have no quality array. */
if( !qua && *status == SAI__OK ) {
*status = SAI__ERROR;
errRep( " ", FUNC_NAME ": No valid QUALITY array was provided", status );
}
/* Get a pointer to the data array to use. Report an error if we have
no data array. */
dat = data->pntr[0];
if( !dat && *status == SAI__OK ) {
*status = SAI__ERROR;
errRep( " ", FUNC_NAME ": smfData does not contain a DATA component",
status);
}
/* Check the supplied thresh value is valid. */
if( thresh <= 0 && *status == SAI__OK ) {
*status = SAI__ERROR;
msgSetd( "THRESH", thresh );
errRep( " ", FUNC_NAME ": Can't find spikes: thresh=^THRESH, must be > 0",
status);
}
/* Check the supplied box value is valid. */
if( box <= 2 && *status == SAI__OK ) {
*status = SAI__ERROR;
msgSeti( "BOX", box );
errRep( " ", FUNC_NAME ": Can't find spikes: box=^BOX, must be > 2",
status);
}
/* Obtain data dimensions, and the stride between adjacent elements on
each axis (bolometer and time). Use the existing data order to avoid
the cost of re-ordering. */
smf_get_dims( data, NULL, NULL, &nbolo, &ntime, NULL, &bstride, &tstride,
status );
/* Check we have room for at least 3 boxes along the time axis. */
if( 3*box > ntime && *status == SAI__OK ) {
*status = SAI__ERROR;
msgSeti( "BOX", box );
msgSeti( "MAX", ntime/3 - 1 );
errRep( " ", FUNC_NAME ": Can't find spikes: box=^BOX is too large, "
" must be < ^MAX.", status);
}
/* Set up the job data */
if( nw > (int) nbolo ) {
step = 1;
} else {
step = nbolo/nw;
if( !step ) {
step = 1;
}
}
job_data = astCalloc( nw, sizeof(*job_data) );
for( i=0; (*status==SAI__OK)&&i<nw; i++ ) {
pdata = job_data + i;
pdata->b1 = i*step;
pdata->b2 = (i+1)*step-1;
/* if b1 is greater than the number of bolometers, we've run out of jobs... */
if( pdata->b1 >= nbolo ) {
break;
}
/* increase the jobs counter */
njobs++;
/* Ensure that the last thread picks up any left-over bolometers */
if( (i==(nw-1)) && (pdata->b1<(nbolo-1)) ) {
pdata->b2=nbolo-1;
}
pdata->ijob = -1; /* Flag job as ready to start */
pdata->box = box;
pdata->bstride = bstride;
pdata->dat = dat;
pdata->mask = mask;
pdata->thresh = thresh;
pdata->nbolo = nbolo;
pdata->ntime = ntime;
pdata->qua = qua;
pdata->tstride = tstride;
}
/* Submit jobs to find spikes in each block of bolos */
thrBeginJobContext( wf, status );
for( i=0; (*status==SAI__OK)&&i<njobs; i++ ) {
pdata = job_data + i;
pdata->ijob = thrAddJob( wf, THR__REPORT_JOB, pdata,
smfFlagSpikesPar, 0, NULL, status );
}
/* Wait until all of the submitted jobs have completed */
thrWait( wf, status );
thrEndJobContext( wf, status );
/* Count flagged samples from all of the jobs and free resources */
nflag=0;
if( job_data ) {
for( i=0; i<njobs; i++ ) {
pdata = job_data + i;
nflag += pdata->nflag;
}
job_data = astFree( job_data );
}
/* Return the number of flagged samples, if requested */
if( nflagged ) *nflagged = nflag;
}
smf_qual_t * smf_qual_map( ThrWorkForce *wf, int indf, const char mode[],
smf_qfam_t *family, size_t *nmap, int * status ) {
size_t i; /* Loop counter */
int itemp = 0; /* temporary int */
smf_qfam_t lfamily = SMF__QFAM_NULL; /* Local quality family */
size_t nout; /* Number of elements mapped */
size_t numqn = 0; /* number of quality names */
IRQLocs *qlocs = NULL;/* IRQ Quality */
unsigned char *qmap; /* pointer to mapped unsigned bytes */
void *qpntr[1]; /* Somewhere to put the mapped pointer */
smf_qual_t *retval = NULL; /* Returned pointer */
int there; /* Does the NDF Have a Quality component? */
char xname[DAT__SZNAM+1]; /* Name of extension holding quality names */
SmfQualMapData *job_data = NULL;
SmfQualMapData *pdata;
int nw;
size_t step;
int iw;
if (*status != SAI__OK) return retval;
/* Ensure jobs submitted to the workforce within this function are
handled separately to any jobs submitted earlier (or later) by any
other function. */
thrBeginJobContext( wf, status );
/* how many elements do we need */
ndfSize( indf, &itemp, status );
nout = itemp;
if (nmap) *nmap = nout;
/* malloc the QUALITY buffer. Initialise to zero to simplify logic
below. It is difficult to determine in advance which case can use
initialisation. */
retval = astCalloc( nout, sizeof(*retval) );
/* How many threads do we get to play with */
nw = wf ? wf->nworker : 1;
/* Find how many elements to process in each worker thread. */
step = nout/nw;
if( step == 0 ) step = 1;
/* Allocate job data for threads, and store common values. Ensure that the
last thread picks up any left-over elements. */
job_data = astCalloc( nw, sizeof(*job_data) );
if( *status == SAI__OK ) {
for( iw = 0; iw < nw; iw++ ) {
pdata = job_data + iw;
pdata->i1 = iw*step;
if( iw < nw - 1 ) {
pdata->i2 = pdata->i1 + step - 1;
} else {
pdata->i2 = nout - 1 ;
}
pdata->retval = retval;
}
}
/* If the NDF has no QUality component, return the buffer filled with
zeros. */
ndfState( indf, "QUALITY", &there, status );
if( there ) {
/* READ and UPDATE mode require that the QUALITY is processed
and copied before being returned. WRITE mode means that the
buffer contains no information to copy yet. WRITE/ZERO
and WRITE/BAD also require that we do not do any quality
handling */
if ( strncmp(mode, "WRITE",5) == 0 ) {
/* WRITE and WRITE/ZERO are actually treated the same way
because we always initialise */
if ( strcmp( mode, "WRITE/BAD") == 0 ) {
for( iw = 0; iw < nw; iw++ ) {
pdata = job_data + iw;
pdata->operation = 1;
thrAddJob( wf, 0, pdata, smf1_qual_map, 0, NULL, status );
}
thrWait( wf, status );
}
/* unmap the NDF buffer and return the pointer */
if (family) *family = lfamily;
return retval;
}
/* Map the quality component (we always need to do this) */
ndfMap( indf, "QUALITY", "_UBYTE", mode, &qpntr[0], &itemp, status );
qmap = qpntr[0];
/* Need to find out what quality names are in play so we
can work out which family to translate them to */
irqFind( indf, &qlocs, xname, status );
numqn = irqNumqn( qlocs, status );
if ( *status == IRQ__NOQNI || numqn == 0) {
/* do not have any names defined so we have no choice
in copying the values directly out the file */
if (*status != SAI__OK) errAnnul( status );
/* simple copy with type conversion */
for( iw = 0; iw < nw; iw++ ) {
pdata = job_data + iw;
pdata->qmap = qmap;
pdata->operation = 2;
thrAddJob( wf, 0, pdata, smf1_qual_map, 0, NULL, status );
}
thrWait( wf, status );
} else {
IRQcntxt contxt = 0;
int ndfqtosmf[NDFBITS]; /* NDF bit (arr index) and SMURF alternative */
int ndfqtoval[NDFBITS]; /* NDF bit (arr index) and corresponding Qual value */
int ndfqval[NDFBITS]; /* Bit values for NDF quality */
int identity = 1; /* Is this a simple identity map? */
/* prefill the mapping with bit to bit mapping */
for (i=0; i<NDFBITS; i++) {
ndfqtosmf[i] = i;
ndfqtoval[i] = BIT_TO_VAL(i);
ndfqval[i] = ndfqtoval[i];
}
/* Now translate each name to a bit */
for (i = 0; i < numqn && *status == SAI__OK; i++) {
char qname[IRQ__SZQNM+1];
char commnt[IRQ__SZCOM+1];
int fixed;
int value;
int bit;
int done;
smf_qual_t qval;
smf_qfam_t tmpfam = 0;
irqNxtqn( qlocs, &contxt, qname, &fixed, &value, &bit,
commnt,sizeof(commnt), &done, status );
bit--; /* IRQ starts at 1 */
/* Now convert the quality name to a quality value
and convert that to a bit. These should all be
less than 9 bits because they are in the NDF file. */
qval = smf_qual_str_to_val( qname, &tmpfam, status );
if (*status == SMF__BADQNM ) {
/* annul status and just copy this bit from the file
to SMURF without change. This might result in a clash
of bits but we either do that or drop out the loop
and assume everything is broken */
if (*status != SAI__OK) errAnnul(status);
ndfqtosmf[bit] = bit;
ndfqtoval[bit] = BIT_TO_VAL(bit);
} else if( *status == SAI__OK ){
if (lfamily == SMF__QFAM_NULL) {
lfamily = tmpfam;
} else if (lfamily != tmpfam) {
msgOutif(MSG__QUIET, "",
"WARNING: Quality names in file come from different families",
status );
}
ndfqtosmf[bit] = smf_qual_to_bit( qval, status );
ndfqtoval[bit] = qval;
/* not a 1 to 1 bit translation */
if (bit != ndfqtosmf[bit]) identity = 0;
}
}
/* Now copy from the file and translate the bits. If this is an
identity mapping or we do not know the family then we go quick. */
if (*status == SAI__OK) {
if ( (identity && lfamily != SMF__QFAM_TCOMP) || lfamily == SMF__QFAM_NULL) {
for( iw = 0; iw < nw; iw++ ) {
pdata = job_data + iw;
pdata->qmap = qmap;
pdata->ndfqval = ndfqval;
pdata->lfamily = lfamily;
pdata->ndfqtoval = ndfqtoval;
pdata->ndfqval = ndfqval;
pdata->operation = 2;
thrAddJob( wf, 0, pdata, smf1_qual_map, 0, NULL, status );
}
thrWait( wf, status );
} else {
for( iw = 0; iw < nw; iw++ ) {
pdata = job_data + iw;
pdata->qmap = qmap;
pdata->ndfqval = ndfqval;
pdata->lfamily = lfamily;
pdata->ndfqtoval = ndfqtoval;
pdata->ndfqval = ndfqval;
pdata->operation = 3;
thrAddJob( wf, 0, pdata, smf1_qual_map, 0, NULL, status );
}
thrWait( wf, status );
/* we have uncompressed */
if (lfamily == SMF__QFAM_TCOMP) lfamily = SMF__QFAM_TSERIES;
}
}
}
/* Free quality */
irqRlse( &qlocs, status );
/* no longer need the mapped data */
ndfUnmap( indf, "QUALITY", status );
}
/* End the Thr job context */
thrEndJobContext( wf, status );
/* Free other resources. */
job_data = astFree( job_data );
if (family) *family = lfamily;
return retval;
}
void smf_fillgaps( ThrWorkForce *wf, smfData *data,
smf_qual_t mask, int *status ) {
/* Local Variables */
const gsl_rng_type *type; /* GSL random number generator type */
dim_t bpt; /* Number of bolos per thread */
dim_t i; /* Bolometer index */
dim_t nbolo; /* Number of bolos */
dim_t ntslice; /* Number of time slices */
double *dat=NULL; /* Pointer to bolo data */
int fillpad; /* Fill PAD samples? */
size_t bstride; /* bolo stride */
size_t pend; /* Last non-PAD sample */
size_t pstart; /* First non-PAD sample */
size_t tstride; /* time slice stride */
smfFillGapsData *job_data; /* Structures holding data for worker threads */
smfFillGapsData *pdata; /* Pointer to data for next worker thread */
smf_qual_t *qua=NULL; /* Pointer to quality array */
/* Main routine */
if (*status != SAI__OK) return;
/* Check we have double precision data floating point data. */
if (!smf_dtype_check_fatal( data, NULL, SMF__DOUBLE, status )) return;
/* Pointers to data and quality */
dat = data->pntr[0];
qua = smf_select_qualpntr( data, NULL, status );
if( !qua ) {
*status = SAI__ERROR;
errRep( "", FUNC_NAME ": No valid QUALITY array was provided", status );
return;
}
if( !dat ) {
*status = SAI__ERROR;
errRep( "", FUNC_NAME ": smfData does not contain a DATA component",status);
return;
}
/* obtain data dimensions */
smf_get_dims( data, NULL, NULL, &nbolo, &ntslice, NULL, &bstride, &tstride,
status );
/* Determine how many bolometers to process in each thread, and create
the structures used to pass data to the threads. */
if( wf ) {
bpt = nbolo/wf->nworker;
if( wf->nworker*bpt < nbolo ) bpt++;
job_data = astMalloc( sizeof( smfFillGapsData )*wf->nworker );
} else {
bpt = nbolo;
job_data = astMalloc( sizeof( smfFillGapsData ) );
}
/* Find the indices of the first and last non-PAD sample. */
smf_get_goodrange( qua, ntslice, tstride, SMF__Q_PAD, &pstart, &pend,
status );
/* Report an error if it is too short. */
if( pend - pstart <= 2*BOX && *status == SAI__OK ) {
*status = SAI__ERROR;
errRepf( "", FUNC_NAME ": length of data (%d samples) is too small "
"to fill gaps. Must have at least %d samples per bolometer.",
status, (int) ( pend - pstart ), 2*BOX + 1 );
}
/* If the supplied "mask" value includes SMF__Q_PAD, then we will be
replacing the zero-padded region at the start and end of each time series
with artificial noisey data that connects the first and last data values
smoothly. Remove SMF__Q_PAD from the mask. */
if( mask & SMF__Q_PAD ) {
mask &= ~SMF__Q_PAD;
fillpad = 1;
} else {
fillpad = 0;
}
/* Get the default GSL randim number generator type. A separate random
number generator is used for each worker thread so that the gap filling
process does not depend on the the order in which threads are
executed. */
type = gsl_rng_default;
/* Begin a job context. */
thrBeginJobContext( wf, status );
/* Loop over bolometer in groups of "bpt". */
pdata = job_data;
for( i = 0; i < nbolo; i += bpt, pdata++ ) {
/* Store information for this group in the next smfFillGapsData
structure. */
pdata->ntslice = ntslice;
pdata->dat = dat;
pdata->r = gsl_rng_alloc( type );
pdata->b1 = i;
pdata->b2 = i + bpt - 1;
pdata->pend = pend;
pdata->fillpad = fillpad;
pdata->pstart = pstart;
if( pdata->b2 >= nbolo ) pdata->b2 = nbolo - 1;
pdata->bstride = bstride;
pdata->tstride = tstride;
pdata->qua = qua;
pdata->mask = mask;
/* Submit a job to the workforce to process this group of bolometers. */
(void) thrAddJob( wf, 0, pdata, smfFillGapsParallel, 0, NULL, status );
}
/* Wait until all jobs in the current job context have completed, and
then end the job context. */
thrWait( wf, status );
thrEndJobContext( wf, status );
/* Free resources. */
if( job_data ) {
pdata = job_data;
for( i = 0; i < nbolo; i += bpt, pdata++ ) {
if( pdata->r ) gsl_rng_free( pdata->r );
}
job_data = astFree( job_data );
}
}
void smf_fit_poly( ThrWorkForce *wf, smfData *data, const size_t order,
int remove, double *poly, int *status) {
/* Local variables */
size_t bstride; /* bolo strides */
int i; /* Loop counter */
smfFitPolyData *job_data=NULL;/* Array of job data for each thread */
dim_t nbolo=0; /* Number of bolometers */
int njobs=0; /* Number of jobs to be processed */
dim_t ntslice = 0; /* Number of time slices */
int nw; /* Number of worker threads */
smfFitPolyData *pdata=NULL; /* Pointer to job data */
const smf_qual_t *qual; /* pointer to the quality array */
size_t step; /* step size for dividing up work */
size_t tstride; /* time strides */
/* Check status */
if (*status != SAI__OK) return;
/* How many threads do we get to play with */
nw = wf ? wf->nworker : 1;
/* Should check data type for double */
if (!smf_dtype_check_fatal( data, NULL, SMF__DOUBLE, status)) return;
if ( smf_history_check( data, FUNC_NAME, status) ) {
msgSetc("F", FUNC_NAME);
msgOutif(MSG__VERB," ",
"^F has already been run on these data, returning to caller",
status);
return;
}
/* Get the dimensions */
smf_get_dims( data, NULL, NULL, &nbolo, &ntslice, NULL, &bstride,
&tstride, status);
/* Return with error if there is no QUALITY component */
qual = smf_select_cqualpntr( data, NULL, status );
if( !qual && (*status == SAI__OK) ) {
*status = SAI__ERROR;
errRep( FUNC_NAME, "Data doesn't have a QUALITY component.", status );
return;
}
/* Return with error if order is greater than the number of data
points */
if ( order >= ntslice ) {
if ( *status == SAI__OK) {
msgSeti("O",order);
msgSeti("NF",ntslice);
*status = SAI__ERROR;
errRep( FUNC_NAME, "Requested polynomial order, ^O, greater than or "
"equal to the number of points, ^NF. Unable to fit polynomial.",
status );
}
return;
}
/* Set up the job data */
if( nw > (int) nbolo ) {
step = 1;
} else {
step = nbolo/nw;
if( !step ) {
step = 1;
}
}
job_data = astCalloc( nw, sizeof(*job_data) );
for( i=0; (*status==SAI__OK)&&i<nw; i++ ) {
pdata = job_data + i;
pdata->b1 = i*step;
pdata->b2 = (i+1)*step-1;
/* if b1 is greater than the number of bolometers, we've run out of jobs */
if( pdata->b1 >= nbolo ) {
break;
}
/* increase the jobs counter */
njobs++;
/* Ensure that the last thread picks up any left-over bolometers */
if( (i==(nw-1)) && (pdata->b1<(nbolo-1)) ) {
pdata->b2=nbolo-1;
}
pdata->ijob = -1; /* Flag job as ready to start */
pdata->bstride = bstride;
pdata->indata = data->pntr[0];
pdata->isTordered = data->isTordered;
pdata->nbolo = nbolo;
pdata->ntslice = ntslice;
pdata->order = order;
pdata->poly = poly;
pdata->qual = qual;
pdata->remove = remove;
pdata->tstride = tstride;
}
/* Submit jobs to fit polynomial baselines to block of bolos */
thrBeginJobContext( wf, status );
for( i=0; (*status==SAI__OK)&&i<njobs; i++ ) {
pdata = job_data + i;
pdata->ijob = thrAddJob( wf, THR__REPORT_JOB, pdata,
smfFitPolyPar, 0, NULL, status );
}
/* Wait until all of the submitted jobs have completed */
thrWait( wf, status );
thrEndJobContext( wf, status );
/* Free local resources. */
job_data = astFree( job_data );
}
