void NADC_FRESCO_WR_SQL_SCIA_TILE( PGconn *conn, const char *prodName,
unsigned int num_rec,
const struct fresco_rec *rec )
{
register unsigned int nr;
register unsigned int insertedRows = 0u;
register unsigned int failedRows = num_rec;
char sql_query[SQL_STR_SIZE], cbuff[SQL_STR_SIZE];
char *pntr;
int nrow, numChar, meta_id;
long long tile_id;
PGresult *res;
/*
* check if product is already in database
*/
(void) snprintf( sql_query, SQL_STR_SIZE,
"SELECT pk_meta FROM %s WHERE name=\'%s\'",
META_TBL_NAME, prodName );
res = PQexec( conn, sql_query );
if ( PQresultStatus( res ) != PGRES_TUPLES_OK ) {
NADC_GOTO_ERROR( NADC_ERR_SQL, PQresultErrorMessage(res) );
}
if ( (nrow = PQntuples( res )) == 0 ) {
NADC_GOTO_ERROR( NADC_ERR_FATAL, prodName );
}
pntr = PQgetvalue( res, 0, 0 );
meta_id = (int) strtol( pntr, (char **) NULL, 10 );
PQclear( res );
/*
* Start a transaction block
*/
res = PQexec( conn, "BEGIN" );
if ( PQresultStatus( res ) != PGRES_COMMAND_OK )
NADC_GOTO_ERROR( NADC_ERR_SQL, PQresultErrorMessage(res) );
PQclear( res );
/*
* insert all tiles in products
*/
for ( nr = 0; nr < num_rec; nr++ ) {
/* obtain next value for serial pk_tile */
res = PQexec( conn,
"SELECT nextval(\'tile_fresco_pk_tile_seq\')" );
if ( PQresultStatus( res ) != PGRES_TUPLES_OK )
NADC_GOTO_ERROR( NADC_ERR_SQL,
PQresultErrorMessage(res) );
pntr = PQgetvalue( res, 0, 0 );
tile_id = strtoll( pntr, (char **) NULL, 10 );
PQclear( res );
numChar = snprintf( sql_query, SQL_STR_SIZE, SQL_INSERT_SCIA_TILE,
TILE_TBL_NAME, tile_id, meta_id, rec[nr].jday,
rec[nr].meta.intg_time,
rec[nr].meta.errorFlag, rec[nr].cloudFraction,
rec[nr].cloudTopHeight, rec[nr].cloudTopPress,
rec[nr].cloudAlbedo, rec[nr].surfaceHeight,
rec[nr].groundPress, rec[nr].surfaceAlbedo,
rec[nr].lon_corner[0],rec[nr].lat_corner[0],
rec[nr].lon_corner[1],rec[nr].lat_corner[1],
rec[nr].lon_corner[2],rec[nr].lat_corner[2],
rec[nr].lon_corner[3],rec[nr].lat_corner[3],
rec[nr].lon_corner[0],rec[nr].lat_corner[0] );
/* (void) fprintf( stderr, "%s [%-d]\n", sql_query, numChar ); */
if ( numChar >= SQL_STR_SIZE )
NADC_RETURN_ERROR( NADC_ERR_STRLEN, "sql_query" );
res = PQexec( conn, sql_query );
if ( PQresultStatus( res ) != PGRES_COMMAND_OK ) {
NADC_ERROR( NADC_ERR_SQL, PQresultErrorMessage(res) );
PQclear( res );
res = PQexec( conn, "ROLLBACK" );
if ( PQresultStatus( res ) != PGRES_COMMAND_OK )
NADC_ERROR( NADC_ERR_SQL,
PQresultErrorMessage(res) );
goto done;
}
PQclear( res );
insertedRows++;
failedRows--;
}
/*
* end the transaction
*/
res = PQexec( conn, "COMMIT" );
if ( PQresultStatus( res ) != PGRES_COMMAND_OK )
NADC_ERROR( NADC_ERR_SQL, PQresultErrorMessage(res) );
done:
PQclear( res );
(void) snprintf( cbuff, SQL_STR_SIZE, "insertedRows=%-u", insertedRows );
NADC_ERROR( NADC_ERR_NONE, cbuff );
if ( failedRows > 0 ) {
(void) snprintf( cbuff, SQL_STR_SIZE, "failedRows=%-u", failedRows );
NADC_ERROR( NADC_ERR_NONE, cbuff );
}
}
/*+++++++++++++++++++++++++ Main Program or Function +++++++++++++++*/
void MERIS_WR_ASCII_SPH( struct param_record param,
const struct sph_meris *sph )
{
register unsigned int nr = 0;
FILE *outfl = CRE_ASCII_File( param.outfile, "sph" );
if ( outfl == NULL || IS_ERR_STAT_FATAL )
NADC_RETURN_ERROR( NADC_ERR_FILE_CRE, param.outfile );
/*
* write ASCII dump of SPH record
*/
nadc_write_header( outfl, nr, param.infile,
"Specific Product Header of Level 1b Product" );
nadc_write_text( outfl, ++nr, "SPH_DESCRIPTOR", sph->descriptor );
nadc_write_short( outfl, ++nr, "STRIPLINE_CONTINUITY_INDICATOR",
sph->stripline );
nadc_write_short( outfl, ++nr, "SLICE_POSITION", sph->slice_pos );
nadc_write_ushort( outfl, ++nr, "NUM_SLICES", sph->num_slices );
nadc_write_text( outfl, ++nr, "FIRST_LINE_TIME", sph->start_time );
nadc_write_text( outfl, ++nr, "LAST_LINE_TIME", sph->stop_time );
nadc_write_double( outfl, ++nr, "FIRST_FIRST_LAT",
6, sph->first_first_lat );
nadc_write_double( outfl, ++nr, "FIRST_FIRST_LONG",
6, sph->first_first_lon );
nadc_write_double( outfl, ++nr, "FIRST_MID_LAT", 6, sph->first_mid_lat );
nadc_write_double( outfl, ++nr, "FIRST_MID_LONG", 6, sph->first_mid_lon );
nadc_write_double( outfl, ++nr, "FIRST_LAST_LAT",
6, sph->first_last_lat );
nadc_write_double( outfl, ++nr, "FIRST_LAST_LONG",
6, sph->first_last_lon );
nadc_write_double( outfl, ++nr, "LAST_FIRST_LAT",
6, sph->last_first_lat );
nadc_write_double( outfl, ++nr, "LAST_FIRST_LONG",
6, sph->last_first_lon );
nadc_write_double( outfl, ++nr, "LAST_MID_LAT", 6, sph->last_mid_lat );
nadc_write_double( outfl, ++nr, "LAST_MID_LONG", 6, sph->last_mid_lon );
nadc_write_double( outfl, ++nr, "LAST_LAST_LAT", 6, sph->last_last_lat );
nadc_write_double( outfl, ++nr, "LAST_LAST_LONG", 6, sph->last_last_lon );
nr++; /* spare_1 */
nadc_write_bool( outfl, ++nr, "TRANS_ERR_FLAG", sph->trans_err );
nadc_write_bool( outfl, ++nr, "FORMAT_ERR_FLAG", sph->format_err );
nadc_write_bool( outfl, ++nr, "DATABASE_FLAG", sph->database );
nadc_write_bool( outfl, ++nr, "COARSE_ERR_FLAG", sph->coarse_err );
nadc_write_bool( outfl, ++nr, "ECMWF_TYPE", sph->ecmwf_type );
nadc_write_ushort( outfl, ++nr, "NUM_TRANS_ERR", sph->num_trans_err );
nadc_write_ushort( outfl, ++nr, "NUM_FORMAT_ERR", sph->num_format_err );
nadc_write_float( outfl, ++nr, "TRANS_ERR_THRESH",
6, sph->thres_trans_err );
nadc_write_float( outfl, ++nr, "FORMAT_ERR_THRESH",
6, sph->thres_format_err );
nr++; /* spare_2 */
nadc_write_ushort( outfl, ++nr, "NUM_BANDS", sph->num_bands );
nadc_write_text( outfl, ++nr, "BAND_WAVELEN", sph->band_wavelen );
nadc_write_text( outfl, ++nr, "BANDWIDTH", sph->bandwidth );
nadc_write_double( outfl, ++nr, "INST_FOV", 6, sph->inst_fov );
nadc_write_bool( outfl, ++nr, "PROC_MODE", sph->proc_mode );
nadc_write_bool( outfl, ++nr, "OFFSET_COMP", sph->offset_comp );
nadc_write_double( outfl, ++nr, "LINE_TIME_INTERVAL",
6, sph->line_time_interval );
nadc_write_ushort( outfl, ++nr, "LINE_LENGTH", sph->line_length );
nadc_write_ushort( outfl, ++nr, "LINES_PER_TIE_PT", sph->lines_per_tie );
nadc_write_ushort( outfl, ++nr, "SAMPLES_PER_TIE_PT",
sph->samples_per_tie );
nadc_write_float( outfl, ++nr, "COLUMN_SPACING", 6, sph->column_spacing );
nr++; /* spare_3 */
(void) fclose( outfl );
}
/*+++++++++++++++++++++++++
.IDENTifer Read_IMLM_Header
.PURPOSE read header of (ascii) SRON IMLM product
.INPUT/OUTPUT
call as Read_IMLM_Header( flname, hdr );
input:
char flname[] : name of the IMLM product
output:
struct imlm_hdr *hdr : header info from IMLM product
.RETURNS nothing, error status is passed by global nadc_stat
.COMMENTS static function
-------------------------*/
static
void Read_IMLM_Header( const char flname[], /*@out@*/ struct imlm_hdr *hdr )
/*@globals errno, nadc_stat, nadc_err_stack;@*/
/*@modifies errno, nadc_stat, nadc_err_stack, hdr@*/
{
char line[MAX_LINE_LENGTH];
char sciaDate[12], sciaTime[16];
unsigned int nline = 0u;
gzFile fp;
/*
* open the IMLM product
*/
if ( (fp = gzopen( flname, "r" )) == NULL )
NADC_RETURN_ERROR( NADC_ERR_FILE, flname );
do {
if ( gzeof ( fp ) == 1 ) break;
if ( gzgets( fp, line, MAX_LINE_LENGTH ) == NULL ) break;
if ( strncmp( line, "ENDFILE", 7 ) == 0 ) break;
if ( *line == '#' ) {
if ( strncmp( line+2, "Generated", 9 ) == 0 ) {
char *cpntr = strrchr( line, '>' );
if ( cpntr == NULL ) continue;
(void) sscanf(cpntr+4, "%*s %s %s", sciaDate, sciaTime);
(void) snprintf( hdr->creation_date, 28,
"%s %s", sciaDate, sciaTime );
cpntr[1] = '\0';
(void) nadc_strlcpy( hdr->contact, line+15, 64 );
} else if ( strncmp( line+2, "Level-2", 7 ) == 0 ) {
(void) sscanf( line, "# Level-2 format version: %s",
hdr->product_format );
} else if ( strncmp( line+2, "Level-1b", 8 ) == 0 ) {
(void) sscanf( line, "# Level-1b product: %s",
hdr->l1b_product );
} else if ( strncmp( line+2, "Sensing start", 13 ) == 0 ) {
(void) sscanf( line, "# Sensing start: %s %s",
sciaDate, sciaTime );
DateTime2ADAGUC( sciaDate, sciaTime, hdr->validity_start );
} else if ( strncmp( line+2, "Sensing stop", 12 ) == 0 ) {
(void) sscanf( line, "# Sensing stop: %s %s",
sciaDate, sciaTime );
DateTime2ADAGUC( sciaDate, sciaTime, hdr->validity_stop );
} else if ( strncmp( line+2, "Orbit", 5 ) == 0 ) {
(void) sscanf( line, "# Orbit: %u", hdr->orbit );
} else if ( strncmp( line+2, "IMLM", 4 ) == 0 ) {
(void) sscanf( line, "# IMLM version: %s %*c",
hdr->software_version );
} else if ( strncmp( line+2, "SCIAMACHY", 9 ) == 0 ) {
(void) sscanf( line, "# SCIAMACHY channel: %hhu",
&hdr->scia_channel );
} else if ( strncmp( line+2, "Window (pixels)", 15 ) == 0 ) {
(void) sscanf( line, "# Window (pixels): %hu %*s %hu",
hdr->window_pixel, hdr->window_pixel+1 );
} else if ( strncmp( line+2, "Window (nm)", 11 ) == 0 ) {
(void) sscanf( line, "# Window (nm): %f %*s %f",
hdr->window_wave, hdr->window_wave+1 );
} else if ( strncmp( line+2, "Pixel mask", 10 ) == 0 ) {
(void) sscanf( line, "# Pixel mask version: %s (%*c",
hdr->pixelmask_version );
} else if ( strncmp( line+2, "Cloud mask", 10 ) == 0 ) {
(void) sscanf( line, "# Cloud mask version: %s (%*c",
hdr->cloudmask_version );
}
} else
++nline;
} while( TRUE );
hdr->numProd = 1;
hdr->numRec = nline;
(void) gzclose( fp );
}
/*+++++++++++++++++++++++++ Main Program or Function +++++++++++++++*/
void SCIA_WR_SQL_CH4_TILE( PGconn *conn, const char *prodName,
unsigned int num_rec,
const struct imap_rec *rec )
{
register unsigned int nr;
register unsigned int affectedRows = 0u;
char sql_query[SQL_STR_SIZE], cbuff[SQL_STR_SIZE];
char *pntr;
int nrow, numChar, meta_id;
long long tile_id;
PGresult *res;
/*
* check if product is already in database
*/
(void) snprintf( sql_query, SQL_STR_SIZE,
"SELECT pk_meta FROM %s WHERE name=\'%s\'",
META_TBL_NAME, prodName );
res = PQexec( conn, sql_query );
if ( PQresultStatus( res ) != PGRES_TUPLES_OK ) {
NADC_GOTO_ERROR( NADC_ERR_SQL, PQresultErrorMessage(res) );
}
if ( (nrow = PQntuples( res )) == 0 ) {
NADC_GOTO_ERROR( NADC_ERR_FATAL, prodName );
}
pntr = PQgetvalue( res, 0, 0 );
meta_id = (int) strtol( pntr, (char **) NULL, 10 );
PQclear( res );
/*
* Start a transaction block
*/
res = PQexec( conn, "BEGIN" );
if ( PQresultStatus( res ) != PGRES_COMMAND_OK )
NADC_GOTO_ERROR( NADC_ERR_SQL, PQresultErrorMessage(res) );
PQclear( res );
/*
* insert all tiles in products
*/
for ( nr = 0; nr < num_rec; nr++ ) {
/* obtain next value for serial pk_tile */
res = PQexec( conn,
"SELECT nextval(\'tile_imap_ch4_pk_tile_seq\')" );
if ( PQresultStatus( res ) != PGRES_TUPLES_OK )
NADC_GOTO_ERROR( NADC_ERR_SQL, PQresultErrorMessage(res) );
pntr = PQgetvalue( res, 0, 0 );
tile_id = strtoll( pntr, (char **) NULL, 10 );
PQclear( res );
numChar = snprintf( sql_query, SQL_STR_SIZE, SQL_INSERT_TILE,
TILE_TBL_NAME, tile_id, meta_id, rec[nr].jday,
NINT(16 * rec[nr].meta.intg_time),
rec[nr].meta.elev,
rec[nr].ch4_vcd, rec[nr].ch4_error,
rec[nr].co2_vcd, rec[nr].co2_error,
rec[nr].ch4_vmr,
rec[nr].lon_corner[0],rec[nr].lat_corner[0],
rec[nr].lon_corner[1],rec[nr].lat_corner[1],
rec[nr].lon_corner[2],rec[nr].lat_corner[2],
rec[nr].lon_corner[3],rec[nr].lat_corner[3],
rec[nr].lon_corner[0],rec[nr].lat_corner[0] );
(void) fprintf( stderr, "%s [%-d]\n", sql_query, numChar );
if ( numChar >= SQL_STR_SIZE )
NADC_RETURN_ERROR( NADC_ERR_STRLEN, "sql_query" );
res = PQexec( conn, sql_query );
if ( PQresultStatus( res ) != PGRES_COMMAND_OK ) {
NADC_ERROR( NADC_ERR_SQL, PQresultErrorMessage(res) );
PQclear( res );
res = PQexec( conn, "ROLLBACK" );
if ( PQresultStatus( res ) != PGRES_COMMAND_OK )
NADC_ERROR( NADC_ERR_SQL, PQresultErrorMessage(res) );
goto done;
}
PQclear( res );
affectedRows += 1;
}
/*
* end the transaction
*/
res = PQexec( conn, "COMMIT" );
if ( PQresultStatus( res ) != PGRES_COMMAND_OK )
NADC_ERROR( NADC_ERR_SQL, PQresultErrorMessage(res) );
done:
PQclear( res );
(void) snprintf( cbuff, SQL_STR_SIZE, "affectedRows=%-u", affectedRows );
NADC_ERROR( NADC_ERR_NONE, cbuff );
}
/*+++++++++++++++++++++++++ Main Program or Function +++++++++++++++*/
void SCIA_LV2_WR_ASCII_SPH( struct param_record param,
const struct sph2_scia *sph )
{
register unsigned int ni, nr = 0;
char cbuff[MX_SZ_CBUFF];
unsigned short ubuff[8];
unsigned int ndim;
unsigned int dims[2];
FILE *outfl = CRE_ASCII_File( param.outfile, "sph" );
if ( outfl == NULL || IS_ERR_STAT_FATAL )
NADC_RETURN_ERROR( NADC_ERR_FILE_CRE, param.outfile );
/*
* write ASCII dump of SPH record
*/
nadc_write_header( outfl, nr, param.infile,
"Specific Product Header of Level 2 Product" );
nadc_write_text( outfl, ++nr, "SPH_DESCRIPTOR", sph->descriptor );
nadc_write_short( outfl, ++nr, "STRIPLINE_CONTINUITY_INDICATOR",
sph->stripline );
nadc_write_short( outfl, ++nr, "SLICE_POSITION", sph->slice_pos );
nadc_write_ushort( outfl, ++nr, "NUM_SLICES", sph->no_slice );
nadc_write_text( outfl, ++nr, "START_TIME", sph->start_time );
nadc_write_text( outfl, ++nr, "STOP_TIME", sph->stop_time );
nadc_write_double( outfl, ++nr, "START_LAT", 6, sph->start_lat );
nadc_write_double( outfl, ++nr, "START_LON", 6, sph->start_lon );
nadc_write_double( outfl, ++nr, "STOP_LAT", 6, sph->stop_lat );
nadc_write_double( outfl, ++nr, "STOP_LON", 6, sph->stop_lon );
++nr; /* spare_1 */
nadc_write_text( outfl, ++nr, "FITTING_ERROR_SUM", sph->fit_error );
nadc_write_ushort( outfl, ++nr, "NO_OF_DOAS_FITTING_WIN",
sph->no_doas_win );
ndim = 2;
for ( ni = 0; ni < sph->no_doas_win; ni++ ) {
(void) snprintf(cbuff, MX_SZ_CBUFF, "DOAS_FITTING_WINDOW_%02u", ni);
ubuff[0] = sph->doas_win[ni].wv_min;
ubuff[1] = sph->doas_win[ni].wv_max;
nadc_write_arr_ushort( outfl, ++nr, cbuff, 1, &ndim, ubuff );
}
nr += (MAX_DOAS_FITTING_WIN - sph->no_doas_win);
nadc_write_ushort( outfl, ++nr, "NO_OF_BIAS_FITTING_WIN",
sph->no_bias_win );
for ( ni = 0; ni < sph->no_bias_win; ni++ ) {
(void) snprintf(cbuff, MX_SZ_CBUFF, "BIAS_FITTING_WINDOW_%02u", ni);
ubuff[0] = sph->bias_win[ni].wv_min;
ubuff[1] = sph->bias_win[ni].wv_max;
if ( sph->bias_win[ni].nr_micro == 0 )
nadc_write_arr_ushort( outfl, ++nr, cbuff, 1, &ndim, ubuff );
else {
register unsigned int nm, nb;
dims[0] = 2;
dims[1] = sph->bias_win[ni].nr_micro+1;
for ( nb = 2, nm = 0; nm < sph->bias_win[ni].nr_micro; nm++ ) {
ubuff[nb++] = sph->bias_win[ni].micro_min[nm];
ubuff[nb++] = sph->bias_win[ni].micro_max[nm];
}
nadc_write_arr_ushort( outfl, ++nr, cbuff, 2, dims, ubuff );
}
}
nadc_write_ushort( outfl, ++nr, "NO_OF_DOAS_MOL", sph->no_doas_mol );
for ( ni = 0; ni < MAX_DOAS_SPECIES; ni++ ) {
(void) snprintf( cbuff, MX_SZ_CBUFF, "DOAS_MOLECULE_%02u", ni );
nadc_write_text( outfl, ++nr, cbuff, sph->doas_mol[ni] );
}
nadc_write_ushort( outfl, ++nr, "NO_OF_BIAS_MOL", sph->no_bias_mol );
for ( ni = 0; ni < sph->no_bias_mol; ni++ ) {
(void) snprintf( cbuff, MX_SZ_CBUFF, "BIAS_MOLECULE_%02u", ni );
nadc_write_text( outfl, ++nr, cbuff, sph->bias_mol[ni] );
}
(void) fclose( outfl );
}
/*+++++++++++++++++++++++++
.IDENTifer nadc_write_arr_float
.PURPOSE write keyword and its values in uniform fashion
.INPUT/OUTPUT
call as nadc_write_arr_float ( fp, key_num, key_wrd, val_ndim,
val_count, key_val );
input:
FILE *fp : file pointer
unsigned int key_num : (unique) number for this keyword
char key_wrd[] : keyword description
int digits : number of digits (floating point only)
int val_ndim : number of dimensions
Ps. a negative dimension flips the axis
unsigned int val_count[] : size of the array dimensions
float key_val[] : values for this keyword
.RETURNS nothing (check global error status)
.COMMENTS none
-------------------------*/
void nadc_write_arr_float( FILE *fp, unsigned int key_num,
const char key_wrd[], int val_ndim,
const unsigned int val_count[],
int digits, const float key_val[] )
{
register unsigned int nx, ny;
char str_fmt[12];
(void) snprintf( str_fmt, 12, " %%.%-dg", digits );
if ( val_ndim == 1 ) {
(void) fprintf( fp, "%3u %s %-33s %s array[%-u]\n", key_num,
FIELD_SEPARATOR, key_wrd, FIELD_SEPARATOR,
val_count[0] );
(void) fprintf( fp, "#" );
for ( nx = 0; nx < val_count[0]; nx++ )
(void) fprintf( fp, str_fmt, *key_val++ );
(void) fprintf( fp, "\n" );
} else if ( val_ndim == 2 ) {
(void) fprintf( fp, "%3u %s %-33s %s array[%-u,%-u]\n", key_num,
FIELD_SEPARATOR, key_wrd, FIELD_SEPARATOR,
val_count[0], val_count[1] );
for ( ny = 0; ny < val_count[1]; ny++ ) {
(void) fprintf( fp, "#" );
for ( nx = 0; nx < val_count[0]; nx++ ) {
if ( isnormal( *key_val ) )
(void) fprintf( fp, str_fmt, *key_val++ );
else
(void) fprintf( fp, " NaN" );
}
(void) fprintf( fp, "\n" );
}
} else if ( val_ndim == -1 ) {
(void) fprintf( fp, "%3u %s %-33s %s array[1,%-u]\n", key_num,
FIELD_SEPARATOR, key_wrd, FIELD_SEPARATOR,
val_count[0] );
for ( nx = 0; nx < val_count[0]; nx++ ) {
(void) fprintf( fp, "#" );
(void) fprintf( fp, str_fmt, *key_val++ );
(void) fprintf( fp, "\n" );
}
} else if ( val_ndim == -2 ) {
(void) fprintf( fp, "%3u %s %-33s %s array[%-u,%-u]\n", key_num,
FIELD_SEPARATOR, key_wrd, FIELD_SEPARATOR,
val_count[1], val_count[0] );
for ( nx = 0; nx < val_count[0]; nx++ ) {
(void) fprintf( fp, "#" );
for ( ny = 0; ny < val_count[1]; ny++ ) {
if ( isnormal(key_val[nx + ny * val_count[0]] ) )
(void) fprintf( fp, str_fmt,
key_val[nx + ny * val_count[0]] );
else
(void) fprintf( fp, " NaN" );
}
(void) fprintf( fp, "\n" );
}
} else {
NADC_RETURN_ERROR( NADC_ERR_FILE_RD, key_wrd );
}
}
/*+++++++++++++++++++++++++ FUNCTIONS +++++++++++++++++++++++++*/
void NADC_USRINP( int type, const char *string, int maxval,
void *pntr, int *nrval )
{
register int ii;
int nr, nrstep;
char *str_bgn, *str_ptr, *pntcm, *pnt2d, cval[21], *cmval[NR_CMVAL];
double dmval[NR_CMVAL];
union u_buff {
unsigned char ucval;
short sval;
unsigned short usval;
int ival;
unsigned int uval;
float rval;
double dval;
} *uu;
uu = (union u_buff *) malloc( (size_t) maxval * sizeof( union u_buff ));
if ( uu == NULL ) NADC_RETURN_ERROR( NADC_ERR_ALLOC, "uu" );
/*
* Initialisation
*/
*nrval = 0;
nr = 0;
do {
cmval[nr] = (char *) malloc( strlen( string ) );
if ( cmval[nr] == NULL ) {
free( uu );
NADC_RETURN_ERROR( NADC_ERR_ALLOC, "cmval" );
}
} while ( ++nr < NR_CMVAL );
/*
* Copy only non-blanks from input string
*/
str_bgn = (char *) malloc( strlen( string ) + 1 );
if ( (str_ptr = str_bgn) == NULL ) {
free( uu );
for ( nr = 0; nr < NR_CMVAL; nr++ ) free( cmval[nr] );
NADC_RETURN_ERROR( NADC_ERR_ALLOC, "str_bgn" );
}
(void) strcpy( str_ptr, string );
(void) strtok( str_ptr, " " );
while( strlen( str_ptr ) > (size_t) 0 && *nrval < maxval ) {
nr = 0;
pntcm = strchr( str_ptr, ',' );
pnt2d = strchr( str_ptr, ':' );
/*
* Does the string contain zero or more characters and no "," or ":" ?
* or does it contain a "," before a ":" ?
*/
if ( pnt2d == NULL || (pntcm != NULL && pntcm < pnt2d) ) {
if ( pntcm == NULL ) {
(void) strcpy( cval, str_ptr );
*str_ptr = '\0';
} else {
(void) nadc_strlcpy( cval, str_ptr,
(size_t)(pntcm - str_ptr)+1 );
str_ptr = pntcm + 1;
}
switch( type ) {
case UINT8_T:
uu[*nrval].ucval = (unsigned char) atoi( cval );
break;
case INT16_T:
uu[*nrval].sval = (short) atoi( cval );
break;
case UINT16_T:
uu[*nrval].usval = (unsigned short) atoi( cval );
break;
case INT32_T:
uu[*nrval].ival = atoi( cval );
break;
case UINT32_T:
uu[*nrval].uval = (unsigned int) atol( cval );
break;
case FLT32_T:
uu[*nrval].rval = (float) atof( cval );
break;
case FLT64_T:
uu[*nrval].dval = atof( cval );
break;
}
(*nrval)++;
} else { /*store CSTART*/
/*
* It contains a ":" before a "," !
*/
(void) nadc_strlcpy( cmval[nr], str_ptr,
(size_t)(pnt2d - str_ptr)+1 );
nr++;
str_ptr = pnt2d + 1;
pnt2d = strchr( str_ptr, ':' );
/*
* There are two cases after a:b:c there is no futher input: pntcm == NULL
* or there is more something like a:b:c,d...
*/
if ( pntcm == NULL ) {
if ( pnt2d != NULL ) { /*get CEND*/
(void) nadc_strlcpy( cmval[nr], str_ptr,
(size_t)(pnt2d - str_ptr)+1 );
nr++;
str_ptr = pnt2d + 1;
pnt2d = strchr( str_ptr, ':' );
if ( pnt2d == NULL ) { /*store CINCR*/
(void) strcpy( cmval[nr], str_ptr );
*str_ptr = '\0';
} else { /*wrong syntax a:b:c:d...*/
NADC_RETURN_ERROR( NADC_ERR_PARAM,
"a:b:c:d..." );
}
} else { /*set CINCR = 1*/
(void) strcpy( cmval[nr++], str_ptr );
(void) strcpy( cmval[nr], "1" );
*str_ptr = '\0';
}
} else {
/*
* The string still contains a ","
*/
if ( pnt2d != NULL && pnt2d < pntcm ) { /*get CEND*/
(void) nadc_strlcpy( cmval[nr], str_ptr,
(size_t)(pnt2d - str_ptr)+1 );
nr++;
str_ptr = pnt2d + 1;
pnt2d = strchr( str_ptr, ':' );
} else { /*set CINCR = 1*/
(void) nadc_strlcpy( cmval[nr], str_ptr,
(size_t)(pntcm - str_ptr)+1 );
nr++;
(void) strcpy( cmval[nr], "1" );
}
if ( pnt2d != NULL && pnt2d < pntcm ) {
NADC_RETURN_ERROR( NADC_ERR_PARAM,
"a:b:c:d,.." );
} else { /*get CINCR*/
(void) nadc_strlcpy( cmval[nr], str_ptr,
(size_t) (pntcm - str_ptr)+1 );
nr++;
str_ptr = pntcm + 1;
}
}
/*
* We've found CSTART, CEND and CINCR
*/
dmval[0] = atof( cmval[0] );
dmval[1] = atof( cmval[1] );
dmval[2] = atof( cmval[2] );
if ( dmval[2] >= -DBL_EPSILON && dmval[2] <= DBL_EPSILON )
dmval[2] = 1.0;
else if ( dmval[2] > DBL_EPSILON &&
(dmval[0] - dmval[1]) >= DBL_EPSILON )
dmval[2] *= -1.;
else if ( dmval[2] < DBL_EPSILON &&
(dmval[1] - dmval[0]) >= DBL_EPSILON )
dmval[2] *= -1.;
nrstep = abs( (int)((dmval[0] - dmval[1])/dmval[2]) ) + 1;
if ( nrstep + *nrval > maxval ) {
NADC_ERROR( NADC_ERR_PARAM, "exceed array (truncated)" );
nrstep = maxval - *nrval;
}
switch( type ) {
case UINT8_T:
ii = 0;
do {
uu[*nrval].ucval =
(unsigned char) (dmval[0] + ii * dmval[2]);
(*nrval)++;
} while ( ++ii < nrstep );
break;
case INT16_T:
ii = 0;
do {
uu[*nrval].sval =
(short) (dmval[0] + ii * dmval[2]);
(*nrval)++;
} while ( ++ii < nrstep );
break;
case UINT16_T:
ii = 0;
do {
uu[*nrval].usval =
(unsigned short) (dmval[0] + ii * dmval[2]);
(*nrval)++;
} while ( ++ii < nrstep );
break;
case INT32_T:
ii = 0;
do {
uu[*nrval].ival =
(int) (dmval[0] + ii * dmval[2]);
(*nrval)++;
} while ( ++ii < nrstep );
break;
case UINT32_T:
ii = 0;
do {
uu[*nrval].uval =
(unsigned int) (dmval[0] + ii * dmval[2]);
(*nrval)++;
} while ( ++ii < nrstep );
break;
case FLT32_T:
ii = 0;
do {
uu[*nrval].rval =
(float) (dmval[0] + ii * dmval[2]);
(*nrval)++;
} while ( ++ii < nrstep );
break;
default:
ii = 0;
do {
uu[*nrval].dval = dmval[0] + ii * dmval[2];
(*nrval)++;
} while ( ++ii < nrstep );
break;
}
}
}
/*
* Fill the output array
*/
switch( type ) {
case UINT8_T: {
unsigned char *buff = (unsigned char *) pntr;
ii = 0;
do { buff[ii] = uu[ii].ucval; } while ( ++ii < *nrval );
break;
}
case INT16_T: {
short *buff = (short *) pntr;
ii = 0;
do { buff[ii] = uu[ii].sval; } while ( ++ii < *nrval );
break;
}
case UINT16_T: {
unsigned short *buff = (unsigned short *) pntr;
ii = 0;
do { buff[ii] = uu[ii].usval; } while ( ++ii < *nrval );
break;
}
case INT32_T: {
int *buff = (int *) pntr;
ii = 0;
do { buff[ii] = uu[ii].ival; } while ( ++ii < *nrval );
break;
}
case UINT32_T: {
unsigned int *buff = (unsigned int *) pntr;
ii = 0;
do { buff[ii] = uu[ii].uval; } while ( ++ii < *nrval );
break;
}
case FLT32_T: {
float *buff = (float *) pntr;
ii = 0;
do { buff[ii] = uu[ii].rval; } while ( ++ii < *nrval );
break;
}
default: {
double *buff = (double *) pntr;
ii = 0;
do { buff[ii] = uu[ii].dval; } while ( ++ii < *nrval );
break;
}}
/*
* free allocated memory
*/
if ( str_bgn != NULL ) free( str_bgn );
free( uu );
for ( nr = 0; nr < NR_CMVAL; nr++ ) free( cmval[nr] );
}
/*+++++++++++++++++++++++++ Main Program or Function +++++++++++++++*/
void SCIA_LV1C_WR_ASCII_CALOPT( const struct param_record param,
const struct cal_options *calopt )
{
register unsigned int nr = 0;
char date_str[UTC_STRING_LENGTH];
unsigned int count[1];
FILE *outfl = CRE_ASCII_File( param.outfile, "calopt" );
if ( outfl == NULL || IS_ERR_STAT_FATAL )
NADC_RETURN_ERROR( NADC_ERR_FILE_CRE, param.outfile );
/*
* write ASCII dump of CAL_OPTIONS record
*/
nadc_write_header( outfl, nr, param.infile,
"Calibration Options GADS to SciaL1C" );
nadc_write_text( outfl,++nr, "l1b_product_name", calopt->l1b_prod_name );
if ( calopt->geo_filter != SCHAR_ZERO ) {
nadc_write_double( outfl, ++nr, "start_lat", 6,
calopt->start_lat/1e6 );
nadc_write_double( outfl, ++nr, "start_lon", 6,
calopt->start_lon/1e6 );
nadc_write_double( outfl, ++nr, "end_lat", 6, calopt->end_lat/1e6 );
nadc_write_double( outfl, ++nr, "end_lon", 6, calopt->end_lon/1e6 );
} else
nr += 4;
if ( calopt->time_filter != SCHAR_ZERO ) {
(void) MJD_2_ASCII( calopt->start_time.days,
calopt->start_time.secnd,
calopt->start_time.musec, date_str );
nadc_write_text( outfl, ++nr, "start_time", date_str );
(void) MJD_2_ASCII( calopt->stop_time.days,
calopt->stop_time.secnd,
calopt->stop_time.musec, date_str );
nadc_write_text( outfl, ++nr, "stop_time", date_str );
} else
nr += 2;
if ( calopt->category_filter != SCHAR_ZERO ) {
count[0] = 5;
nadc_write_arr_ushort( outfl, ++nr, "category",
1, count, calopt->category );
} else
nr += 1;
if ( calopt->nadir_mds != SCHAR_ZERO )
nadc_write_text( outfl, ++nr, "nadir_mds_flag", "TRUE" );
else
nadc_write_text( outfl, ++nr, "nadir_mds_flag", "FALSE" );
if ( calopt->limb_mds != SCHAR_ZERO )
nadc_write_text( outfl, ++nr, "limb_mds_flag", "TRUE" );
else
nadc_write_text( outfl, ++nr, "limb_mds_flag", "FALSE" );
if ( calopt->occ_mds != SCHAR_ZERO )
nadc_write_text( outfl, ++nr, "occ_mds_flag", "TRUE" );
else
nadc_write_text( outfl, ++nr, "occ_mds_flag", "FALSE" );
if ( calopt->moni_mds != SCHAR_ZERO )
nadc_write_text( outfl, ++nr, "moni_mds_flag", "TRUE" );
else
nadc_write_text( outfl, ++nr, "moni_mds_flag", "FALSE" );
if ( calopt->pmd_mds != SCHAR_ZERO )
nadc_write_text( outfl, ++nr, "pmd_mds_flag", "TRUE" );
else
nadc_write_text( outfl, ++nr, "pmd_mds_flag", "FALSE" );
if ( calopt->frac_pol_mds != SCHAR_ZERO )
nadc_write_text( outfl, ++nr, "frac_pol_mds_flag", "TRUE" );
else
nadc_write_text( outfl, ++nr, "frac_pol_mds_flag", "FALSE" );
if ( calopt->slit_function != SCHAR_ZERO )
nadc_write_text( outfl, ++nr, "slit_function_gads_flag", "TRUE" );
else
nadc_write_text( outfl, ++nr, "slit_function_gads_flag", "FALSE" );
if ( calopt->sun_mean_ref != SCHAR_ZERO )
nadc_write_text( outfl, ++nr, "sun_mean_ref_gads_flag", "TRUE" );
else
nadc_write_text( outfl, ++nr, "sun_mean_ref_gads_flag", "FALSE" );
if ( calopt->leakage_current != SCHAR_ZERO )
nadc_write_text( outfl, ++nr, "leakage_current_gads_flag", "TRUE" );
else
nadc_write_text( outfl, ++nr, "leakage_current_gads_flag", "FALSE");
if ( calopt->spectral_cal != SCHAR_ZERO )
nadc_write_text( outfl, ++nr, "spectral_cal_gads_flag", "TRUE" );
else
nadc_write_text( outfl, ++nr, "spectral_cal_gads_flag", "FALSE" );
if ( calopt->pol_sens != SCHAR_ZERO )
nadc_write_text( outfl, ++nr, "pol_sens_gads_flag", "TRUE" );
else
nadc_write_text( outfl, ++nr, "pol_sens_gads_flag", "FALSE" );
if ( calopt->rad_sens != SCHAR_ZERO )
nadc_write_text( outfl, ++nr, "rad_sens_gads_flag", "TRUE" );
else
nadc_write_text( outfl, ++nr, "rad_sens_gads_flag", "FALSE" );
if ( calopt->ppg_etalon != SCHAR_ZERO )
nadc_write_text( outfl, ++nr, "ppg_etalon_gads_flag", "TRUE" );
else
nadc_write_text( outfl, ++nr, "ppg_etalon_gads_flag", "FALSE" );
nadc_write_ushort( outfl,++nr, "num_nadir_clusters", calopt->num_nadir );
nadc_write_ushort( outfl,++nr, "num_limb_clusters", calopt->num_limb );
nadc_write_ushort( outfl,++nr, "num_occ_clusters", calopt->num_occ );
nadc_write_ushort( outfl,++nr, "num_moni_clusters", calopt->num_moni );
count[0] = MAX_CLUSTER;
nadc_write_arr_schar( outfl, ++nr, "nadir_cluster_flag",
1, count, calopt->nadir_cluster );
nadc_write_arr_schar( outfl, ++nr, "limb_cluster_flag",
1, count, calopt->limb_cluster );
nadc_write_arr_schar( outfl, ++nr, "occ_cluster_flag",
1, count, calopt->occ_cluster );
nadc_write_arr_schar( outfl, ++nr, "moni_cluster_flag",
1, count, calopt->moni_cluster );
if ( calopt->mem_effect_cal != SCHAR_ZERO )
nadc_write_text( outfl, ++nr, "mem_effect_cal_flag", "TRUE" );
else
nadc_write_text( outfl, ++nr, "mem_effect_cal_flag", "FALSE" );
if ( calopt->leakage_cal != SCHAR_ZERO )
nadc_write_text( outfl, ++nr, "leakage_cal_flag", "TRUE" );
else
nadc_write_text( outfl, ++nr, "leakage_cal_flag", "FALSE" );
if ( calopt->straylight_cal != SCHAR_ZERO )
nadc_write_text( outfl, ++nr, "straylight_cal_flag", "TRUE" );
else
nadc_write_text( outfl, ++nr, "straylight_cal_flag", "FALSE" );
if ( calopt->ppg_cal != SCHAR_ZERO )
nadc_write_text( outfl, ++nr, "ppg_cal_flag", "TRUE" );
else
nadc_write_text( outfl, ++nr, "ppg_cal_flag", "FALSE" );
if ( calopt->etalon_cal != SCHAR_ZERO )
nadc_write_text( outfl, ++nr, "etalon_cal_flag", "TRUE" );
else
nadc_write_text( outfl, ++nr, "etalon_cal_flag", "FALSE" );
if ( calopt->wave_cal != SCHAR_ZERO )
nadc_write_text( outfl, ++nr, "spectal_cal_flag", "TRUE" );
else
nadc_write_text( outfl, ++nr, "spectral_cal_flag", "FALSE" );
if ( calopt->polarisation_cal != SCHAR_ZERO )
nadc_write_text( outfl, ++nr, "polarisation_cal_flag", "TRUE" );
else
nadc_write_text( outfl, ++nr, "polarisation_cal_flag", "FALSE" );
if ( calopt->radiance_cal != SCHAR_ZERO )
nadc_write_text( outfl, ++nr, "radiance_cal_flag", "TRUE" );
else
nadc_write_text( outfl, ++nr, "radiance_cal_flag", "FALSE" );
(void) fclose( outfl );
}
