int main(int ac, char** av)
{
/* Constants */
#define PBUFSIZ 10000
#define FILSIZ 256
/* Local variables */
SpiceBoolean found;
SpiceChar dsk [ FILSIZ ];
SpiceDLADescr dladsc;
SpiceDouble normal [3];
SpiceDouble verts [3][3];
SpiceDouble BoundRadius;
SpiceInt handle;
SpiceInt i;
SpiceInt j;
SpiceInt n;
SpiceInt np;
SpiceInt nread;
SpiceInt nv;
SpiceInt nvtx;
SpiceInt plates[PBUFSIZ][3];
SpiceInt plix;
SpiceInt remain;
SpiceInt start;
int iAc;
int doMdl = 1;
/* Prompt for name of DSK and open file for reading. */
*dsk = '\0';
for (iAc=1; iAc<ac; ++iAc) {
if ( strcmp(av[iAc], "--wrl") ) {
strncpy(dsk,av[1],FILSIZ);
continue;
} else {
doMdl = 0;
}
}
if ( ! *dsk) {
if ( doMdl ) {
prompt_c ( "### Enter DSK (*.bds) filepath > ", FILSIZ, dsk );
} else {
fprintf( stderr, "### Enter DSK (*.bds) filepath > " );
prompt_c ( "", FILSIZ, dsk );
}
}
dasopr_c ( dsk, &handle );
dlabfs_c ( handle, &dladsc, &found );
if ( !found )
{
setmsg_c ( "No segment found in file #." );
errch_c ( "#", dsk );
sigerr_c ( "SPICE(NOSEGMENT)" );
}
/* Get segment vertex and plate counts. */
dskz02_c ( handle, &dladsc, &nv, &np );
/*******************************************************************/
if ( doMdl ) {
printf( "\
### File: %s\n\
Component DSK\n\
PolygonMesh\n\
FaceColor %%255255255\n\
SmoothShading No\n\
BackfaceCullable Yes\n\
Translucency 0.5\n\
Specularity 0.59375000\n\
Shininess 76.000000\n\
\n\
NumVerts %d\n\
Data\n", dsk, nv );
} else {
void errprt_c ( ConstSpiceChar * op,
SpiceInt lenout,
SpiceChar * list )
/*
-Brief_I/O
VARIABLE I/O DESCRIPTION
-------- --- --------------------------------------------------
op I The operation: "GET" or "SET".
lenout I Length of list for output.
list I/O Specification of error messages to be output.
-Detailed_Input
op indicates the operation to be performed. Possible
values are "GET" and "SET".
"SET" means, "the following list specifies the default
selection of error messages to be output." These are
the messages that will be output to the default error
output device (selected by errdev_c) when an error is
detected.
"GET" means, "return the current list of error output
items." This is the exact list that was set by the
last call to this routine with the "SET" option.
The option can be specified in mixed case. For example,
the following call will work:
errprt_c ( "SeT", lenout, "ALL" )
lenout is the allowed length of list when list is returning a
the error message list. The size described by lenout
should be large enough to hold any possible output plus 1.
list is a list of error message items. The items
are delimited by commas. The items that can be
in the list are the words:
1. SHORT ...indicates the short error message
2. EXPLAIN ...the explanation of the short message
3. LONG ...the long error message
4. TRACEBACK ...the traceback
5. ALL ...indicates "output all messages"
6. NONE ...indicates "don't output any messages"
7. DEFAULT ...same as ALL, but includes default
message
A "list" is a character string containing some or
all of the above words, delimited by commas. Examples
are:
1. "SHORT, EXPLAIN"
2. "SHORT, LONG"
3. "ALL"
4. "NONE"
5. "ALL, NONE, ALL, SHORT, NONE"
Each word in the list can be thought of as
"flipping a switch" to enable or disable the output
of the message(s) indicated by the word. The
words are acted on in the order they occur in the
list, starting with the leftmost word. As examples,
consider the sample lists above.
The effect of the first list above, "SHORT, EXPLAIN",
is to enable the output of the short error message
and the explanatory text corresponding to it.
The effect of the second list is to enable the output
of the short and long messages.
The effect of the third list is to enable the output of
all of the error messages (short, long, explanation
of the short message, and traceback).
The effect of the fourth list is to disable output of
all of the messages.
The effect of the fifth list is to disable output of
all of the messages. The reason for this is that
the words in the list are responded to in order,
from left to right, and "NONE" is the last word.
If any words other than SHORT, LONG, EXPLAIN, ALL,
DEFAULT, TRACEBACK or NONE appear in list, those words
that are recognized are responded to. The words
that are not recognized are diagnosed as
erroneous, and error messages are generated
for each such unrecognized word.
The length of list is caller-defined, but only
the first 100 characters of list will be saved
for later retrieval.
Only the first 10 items in the list are used;
the rest are ignored.
-Detailed_Output
list is a list of error message items. The value of
list is that set by the last call to this routine
using the "SET" option. See "Detailed Input"
for a description of the possible values and
meanings of list.
The initial value returned is "DEFAULT".
Only the first 100 characters of list are saved
when the list is set; any additional characters
are truncated. Therefore, the first 100
characters, at most, of the saved value of list
will be returned.
-Parameters
None.
-Exceptions
1) If the input argument op does not indicate a valid operation,
the error SPICE(INVALIDOPERATION) will be signaled.
2) If the input argument list does not indicate a valid list of
error message types, the error SPICE(INVALIDLISTITEM) will be
signaled.
3) The error SPICE(EMPTYSTRING) is signalled if the input
string does not contain at least one character, since the
input string cannot be converted to a Fortran-style string
in this case.
4) The error SPICE(NULLPOINTER) is signalled if the input string
pointer is null.
5) The user must pass a value indicating the length of the output
string, when list is an output. If this value is not at least 2,
the error SPICE(STRINGTOOSHORT) is signaled.
Also, this routine is part of the CSPICE error
handling mechanism.
-Files
None.
-Particulars
Please read the "required reading"!
This routine is intended to be used in conjunction with
errdev_c, which selects the default output device to which
the error messages selected by this routine will be
output.
Additionally, the error response action must be
something other than "IGNORE" if the error messages
are to be output. Possible choices of the error
response action are "RETURN", "REPORT", "ABORT", "DEFAULT", and
"IGNORE". Use erract_c to set the error response action.
Only the first 100 characters of list are saved.
The default set of error messages that are output is the
set specified by "DEFAULT"; i.e., all of them, including
the "default" message.
-Examples
1. In this example, we select as the output device
the file, SPUD.DAT, and then select the error
messages to be output. We choose the short
error message and the traceback. Since a
different set of messages may have been selected
previously, we clear the old setting by putting
the word, "NONE", at the beginning of the list.
/.
Set the error output device to SPUD.DAT:
./
errdev_c ( "SET", lenout, "SPUD.DAT" );
/.
Choose error messages:
./
errprt_c ( "SET", lenout, "NONE, SHORT, TRACEBACK" );
2. In this example we are retrieving the error message list.
/.
Declare the output string and its size.
./
#define LENOUT 50
SpiceChar list[ LENOUT ];
errdev_c ( "GET", LENOUT, list );
-Restrictions
The device to which the selected error messages will
be written must be selected via errdev_c; otherwise,
messages will be written to the initial default device.
Only the first 100 characters of list are saved.
-Literature_References
None.
-Author_and_Institution
N.J. Bachman (JPL)
-Version
-CSPICE Version 1.3.0, 24-JUN-2003 (NJB)
Bug fix: case of invalid operation keyword is now
diagnosed, as per the Exceptions section of the header.
-CSPICE Version 2.0.0, 09-FEB-1998 (NJB) (EDW)
Input argument op was changed to type ConstSpiceChar *.
Re-implemented routine without dynamically allocated, temporary
strings.
Corrected errors in examples in which the call sequence
was incorrect.
-CSPICE Version 1.0.0, 25-OCT-1997 (EDW)
-Index_Entries
get/set error output items
-&
*/
{ /* Begin errprt_c */
/*
Participate in error tracing.
*/
if ( return_c() )
{
return;
}
chkin_c ( "errprt_c" );
/*
Check the input string op to make sure the pointer is non-null
and the string length is non-zero.
*/
CHKFSTR ( CHK_STANDARD, "errprt_c", op );
if ( eqstr_c ( op, "SET") )
{
/*
Operation is SET. The argument "list" will be an input string.
Check "list" as well.
*/
CHKFSTR ( CHK_STANDARD, "errprt_c", list );
errprt_( ( char * ) op,
( char * ) list,
( ftnlen ) strlen(op),
( ftnlen ) strlen(list) );
}
else if ( eqstr_c (op, "GET" ) )
{
/*
Operation is GET. "list" will be an output string.
Make sure the output string has at least enough room for one
output character and a null terminator. Also check for a null
pointer.
*/
CHKOSTR ( CHK_STANDARD, "errprt_c", list, lenout );
/*
After the routine call, create a C string from the
Fortran output string.
*/
errprt_( ( char * ) op,
( char * ) list,
( ftnlen ) strlen(op),
( ftnlen ) lenout-1 );
F2C_ConvertStr( lenout, list );
}
else
{
setmsg_c ( "Input argument op had value: # "
"Valid choices are GET or SET." );
errch_c ( "#", op );
sigerr_c ( "SPICE(INVALIDOPERATION)" );
chkout_c ( "errprt_c" );
return;
}
chkout_c ( "errprt_c" );
} /* End errprt_c */
void ekaclc_c ( SpiceInt handle,
SpiceInt segno,
ConstSpiceChar * column,
SpiceInt vallen,
const void * cvals,
ConstSpiceInt * entszs,
ConstSpiceBoolean * nlflgs,
ConstSpiceInt * rcptrs,
SpiceInt * wkindx )
/*
-Brief_I/O
Variable I/O Description
-------- --- --------------------------------------------------
handle I EK file handle.
segno I Number of segment to add column to.
column I Column name.
vallen I Length of character values.
cvals I Character values to add to column.
entszs I Array of sizes of column entries.
nlflgs I Array of null flags for column entries.
rcptrs I Record pointers for segment.
wkindx I-O Work space for column index.
-Detailed_Input
handle the handle of an EK file that is open for writing.
A "begin segment for fast write" operation must
have already been performed for the designated
segment.
segno is the number of the segment to which data is to be
added. Segments are numbered from 0 to nseg-1, where
nseg is the count of segments in the file.
column is the name of the column to be added. All of
the data for the named column will be added in
one shot.
vallen is the length of the strings in the cvals array.
The array should be declared with dimensions
[nrows][vallen]
where nrows is the number of rows in the column.
cvals is an array containing the entire set of column
entries for the specified column. The entries
are listed in row-order: the column entry for the
first row of the segment is first, followed by the
column entry for the second row, and so on. The
number of column entries must match the declared
number of rows in the segment. For columns having
fixed-size entries, a null entry must be allocated
the same amount of space occupied by a non-null
entry in the array cvals. For columns having
variable-size entries, null entries do not require
any space in the cvals* array, but in any case must
have their allocated space described correctly by
the corresponding element of the entszs array
(described below).
entszs is an array containing sizes of column entries.
The Ith element of entszs gives the size of the
Ith column entry. entszs is used only for columns
having variable-size entries. For such columns,
the dimension of entszs must be at least nrows.
The size of null entries should be set to zero.
For columns having fixed-size entries, the
dimension of this array may be any positive value.
nlflgs is an array of logical flags indicating whether
the corresponding entries are null. If the Ith
element of nlflgs is SPICEFALSE, the Ith column entry
defined by cvals and entszs is added to the
current segment in the specified kernel file.
If the Ith element of nlfgls is SPICETRUE, the
contents of the Ith column entry are undefined.
nlflgs is used only for columns that allow null
values; it's ignored for other columns.
rcptrs is an array of record pointers for the input
segment. This array is obtained as an output
from ekifld_c, the routine called to initiate a
fast write.
wkindx is a work space array used for building a column
index. If the column is indexed, the dimension of
wkindx_c must be at nrows, where nrows is the number
of rows in the column. If the column is not
indexed, this work space is not used, so the
dimension may be any positive value.
-Detailed_Output
None. See $Particulars for a description of the effect of this
routine.
-Parameters
None.
-Exceptions
1) If handle is invalid, the error will be diagnosed by routines
called by this routine.
2) If column is not the name of a declared column, the error
SPICE(NOCOLUMN) will be signaled.
3) If column specifies a column of whose data type is not
character, the error SPICE(WRONGDATATYPE) will be
signalled.
4) If the specified column already contains ANY entries, the
error will be diagnosed by routines called by this routine.
5) If an I/O error occurs while reading or writing the indicated
file, the error will be diagnosed by routines called by this
routine.
6) If the string pointer for column is null, the error
SPICE(NULLPOINTER) will be signaled.
7) If the input string column has length zero, the error
SPICE(EMPTYSTRING) will be signaled.
8) If the string pointer for cvals is null, the error
SPICE(NULLPOINTER) will be signaled.
9) If the string length vallen is less than 2, the error
SPICE(STRINGTOOSHORT) will be signaled.
-Files
See the EK Required Reading for a discussion of the EK file
format.
-Particulars
This routine operates by side effects: it modifies the named
EK file by adding data to the specified column. This routine
writes the entire contents of the specified column in one shot.
This routine creates columns much more efficiently than can be
done by sequential calls to ekacec_c, but has the drawback that
the caller must use more memory for the routine's inputs. This
routine cannot be used to add data to a partially completed
column.
-Examples
1) Suppose we have an E-kernel named order_db.ek which contains
records of orders for data products. The E-kernel has a
table called DATAORDERS that consists of the set of columns
listed below:
DATAORDERS
Column Name Data Type
----------- ---------
ORDER_ID INTEGER
CUSTOMER_ID INTEGER
LAST_NAME CHARACTER*(*)
FIRST_NAME CHARACTER*(*)
ORDER_DATE TIME
COST DOUBLE PRECISION
The order database also has a table of items that have been
ordered. The columns of this table are shown below:
DATAITEMS
Column Name Data Type
----------- ---------
ITEM_ID INTEGER
ORDER_ID INTEGER
ITEM_NAME CHARACTER*(*)
DESCRIPTION CHARACTER*(*)
PRICE DOUBLE PRECISION
We'll suppose that the file ORDER_DB.EK contains two segments,
the first containing the DATAORDERS table and the second
containing the DATAITEMS table.
Below, we show how we'd open a new EK file and create the
first of the segments described above.
#include "SpiceUsr.h"
#include <stdio.h>
void main()
{
/.
Constants
./
#define CNMLEN ( CSPICE_EK_COL_NAM_LEN + 1 )
#define DECLEN 201
#define EKNAME "order_db.ek"
#define FNMLEN 50
#define IFNAME "Test EK/Created 20-SEP-1995"
#define LNMLEN 50
#define LSK "leapseconds.ker"
#define NCOLS 6
#define NRESVC 0
#define NROWS 9
#define TABLE "DATAORDERS"
#define TNMLEN CSPICE_EK_TAB_NAM_LEN
#define UTCLEN 30
/.
Local variables
./
SpiceBoolean nlflgs [ NROWS ];
SpiceChar cdecls [ NCOLS ] [ DECLEN ];
SpiceChar cnames [ NCOLS ] [ CNMLEN ];
SpiceChar fnames [ NROWS ] [ FNMLEN ];
SpiceChar lnames [ NROWS ] [ LNMLEN ];
SpiceChar dateStr [ UTCLEN ];
SpiceDouble costs [ NROWS ];
SpiceDouble ets [ NROWS ];
SpiceInt cstids [ NROWS ];
SpiceInt ordids [ NROWS ];
SpiceInt handle;
SpiceInt i;
SpiceInt rcptrs [ NROWS ];
SpiceInt segno;
SpiceInt sizes [ NROWS ];
SpiceInt wkindx [ NROWS ];
/.
Load a leapseconds kernel for UTC/ET conversion.
./
furnsh_c ( LSK );
/.
Open a new EK file. For simplicity, we will not
reserve any space for the comment area, so the
number of reserved comment characters is zero.
The constant IFNAME is the internal file name.
./
ekopn_c ( EKNAME, IFNAME, NRESVC, &handle );
/.
Set up the table and column names and declarations
for the DATAORDERS segment. We'll index all of
the columns. All columns are scalar, so we omit
the size declaration. Only the COST column may take
null values.
./
strcpy ( cnames[0], "ORDER_ID" );
strcpy ( cdecls[0], "DATATYPE = INTEGER, INDEXED = TRUE" );
strcpy ( cnames[1], "CUSTOMER_ID" );
strcpy ( cdecls[1], "DATATYPE = INTEGER, INDEXED = TRUE" );
strcpy ( cnames[2], "LAST_NAME" );
strcpy ( cdecls[2], "DATATYPE = CHARACTER*(*),"
"INDEXED = TRUE" );
strcpy ( cnames[3], "FIRST_NAME" );
strcpy ( cdecls[3], "DATATYPE = CHARACTER*(*),"
"INDEXED = TRUE" );
strcpy ( cnames[4], "ORDER_DATE" );
strcpy ( cdecls[4], "DATATYPE = TIME, INDEXED = TRUE" );
strcpy ( cnames[5], "COST" );
strcpy ( cdecls[5], "DATATYPE = DOUBLE PRECISION,"
"INDEXED = TRUE,"
"NULLS_OK = TRUE" );
/.
Start the segment. We presume the number of rows
of data is known in advance.
./
ekifld_c ( handle, TABLE, NCOLS, NROWS, CNMLEN,
cnames, DECLEN, cdecls, &segno, rcptrs );
/.
At this point, arrays containing data for the
segment's columns may be filled in. The names
of the data arrays are shown below.
Column Data array
"ORDER_ID" ordids
"CUSTOMER_ID" cstids
"LAST_NAME" lnames
"FIRST_NAME" fnames
"ORDER_DATE" odates
"COST" costs
The null flags array indicates which entries are null.
It is ignored for columns that don't allow null
values. In this case, only the COST column allows
nulls.
Fill in data arrays and null flag arrays here. This code
section would normally be replaced by calls to user functions
returning column values.
./
for ( i = 0; i < NROWS; i++ )
{
ordids[i] = i;
cstids[i] = i*100;
costs [i] = (SpiceDouble) 100*i;
sprintf ( fnames[i], "Order %d Customer first name", i );
sprintf ( lnames[i], "Order %d Customer last name", i );
sprintf ( dateStr, "1998 Mar %d", i );
utc2et_c ( dateStr, ets+i );
nlflgs[i] = SPICEFALSE;
}
nlflgs[1] = SPICETRUE;
/.
The sizes array shown below is ignored for scalar
and fixed-size array columns, so we need not
initialize it. For variable-size arrays, the
Ith element of the sizes array must contain the size
of the Ith column entry in the column being written.
Normally, the sizes array would be reset for each
variable-size column.
Add the columns of data to the segment. All of the
data for each column is written in one shot.
./
ekacli_c ( handle, segno, "order_id", ordids,
sizes, nlflgs, rcptrs, wkindx );
ekacli_c ( handle, segno, "customer_id", cstids,
sizes, nlflgs, rcptrs, wkindx );
ekaclc_c ( handle, segno, "last_name", LNMLEN,
lnames, sizes, nlflgs, rcptrs, wkindx );
ekaclc_c ( handle, segno, "first_name", FNMLEN,
fnames, sizes, nlflgs, rcptrs, wkindx );
ekacld_c ( handle, segno, "order_date", ets,
sizes, nlflgs, rcptrs, wkindx );
ekacld_c ( handle, segno, "cost", costs,
sizes, nlflgs, rcptrs, wkindx );
/.
Complete the segment. The rcptrs array is that
returned by ekifld_c.
./
ekffld_c ( handle, segno, rcptrs );
/.
At this point, the second segment could be
created by an analogous process. In fact, the
second segment could be created at any time; it is
not necessary to populate the first segment with
data before starting the second segment.
The file must be closed by a call to ekcls_c.
./
ekcls_c ( handle );
}
-Restrictions
1) Only one segment can be created at a time using the fast
write routines.
2) No other EK operation may interrupt a fast write. For
example, it is not valid to issue a query while a fast write
is in progress.
-Literature_References
None.
-Author_and_Institution
N.J. Bachman (JPL)
-Version
-CSPICE Version 1.2.2, 14-AUG-2006 (EDW)
Replace mention of ldpool_c with furnsh_c.
-CSPICE Version 1.2.1, 09-JAN-2002 (NJB)
Documentation change: instances of the phrase "fast load"
were replaced with "fast write."
Const-qualified input array cvals.
-CSPICE Version 1.1.0, 12-JUL-1998 (NJB)
Bug fix: now counts elements rather than rows for vector-valued
columns.
Bug fix: now uses dynamically allocated array of type logical
to interface with underlying f2c'd function ekaclc_.
Now maps segno from C to Fortran range.
Added "undef" of masking macro. Changed input pointer types
to pointers to const objects.
Replaced eksdsc_ call with ekssum_c call. This removes unsightly
references to segment descriptor alignments.
Fixed some chkout_c calls which referenced ekifld_c.
-CSPICE Version 1.0.0, 25-FEB-1999 (NJB)
Based on SPICELIB Version 1.0.0, 08-NOV-1995 (NJB)
-Index_Entries
write entire character column to EK segment
-&
*/
{ /* Begin ekaclc_c */
/*
Local variables
*/
SpiceBoolean fnd;
logical * logicalFlags;
SpiceEKSegSum summary;
SpiceChar ** cvalsPtr;
SpiceChar * fCvalsArr;
SpiceInt i;
SpiceInt fCvalsLen;
SpiceInt fSegno;
SpiceInt ncols;
SpiceInt nelts;
SpiceInt nrows;
SpiceInt size;
/*
Participate in error tracing.
*/
chkin_c ( "ekaclc_c" );
/*
Check the column name to make sure the pointer is non-null
and the string length is non-zero.
*/
CHKFSTR ( CHK_STANDARD, "ekaclc_c", column );
/*
Check the value array to make sure the pointer is non-null
and the string length is non-zero. Note: this check is normally
done for output strings: CHKOSTR is the macro that does the job.
*/
CHKOSTR ( CHK_STANDARD, "ekaclc_c", cvals, vallen );
/*
Get the row count for this segment.
*/
ekssum_c ( handle, segno, &summary );
nrows = summary.nrows;
/*
Locate the index of this column in the segment descriptor.
*/
ncols = summary.ncols;
i = 0;
fnd = SPICEFALSE;
while ( ( i < ncols ) && ( !fnd ) )
{
if ( eqstr_c( column, summary.cnames[i] ) )
{
fnd = SPICETRUE;
}
else
{
i++;
}
}
if ( !fnd )
{
setmsg_c ( "Column <#> does not belong to segment #. " );
errch_c ( "#", column );
errint_c ( "#", segno );
sigerr_c ( "SPICE(NOCOLUMN)" );
chkout_c ( "ekaclc_c" );
return;
}
/*
Now i is the index within the segment descriptor of the column
descriptor for the column of interest. Get the dimension information
for this column.
*/
size = summary.cdescrs[i].size;
/*
Compute the total string count of the input array. If the column
has fixed-size entries, we ignore the entszs array. Otherwise, the
entszs array tells us how many strings we're getting.
*/
if ( size == SPICE_EK_VARSIZ )
{
nelts = sumai_c ( entszs, nrows );
}
else
{
nelts = nrows * size;
}
/*
Allocate an array of logicals and assign values from the input
array of SpiceBooleans.
*/
logicalFlags = ( logical * ) malloc ( nelts * sizeof(logical) );
if ( !logicalFlags )
{
setmsg_c ( "Failure on malloc call to create null flag array "
"for column values." );
sigerr_c ( "SPICE(MALLOCFAILED)" );
chkout_c ( "ekaclc_c" );
return;
}
/*
Copy the input null flags to our array of type logical.
*/
for ( i = 0; i < nrows; i++ )
{
logicalFlags[i] = nlflgs[i];
}
/*
We need to make a blank-padded version of the cvals array.
We'll first allocate an array of character pointers to index
the values, initialize this array, and use it to produce
a dynamically allocated array of Fortran-style strings.
*/
cvalsPtr = ( SpiceChar ** ) malloc ( nelts * sizeof(SpiceChar *) );
if ( cvalsPtr == 0 )
{
free ( logicalFlags );
setmsg_c ( "Failure on malloc call to create pointer array "
"for column values." );
sigerr_c ( "SPICE(MALLOCFAILED)" );
chkout_c ( "ekaclc_c" );
return;
}
for ( i = 0; i < nelts; i++ )
{
cvalsPtr[i] = (SpiceChar *)cvals + ( i * vallen );
}
C2F_CreateFixStrArr ( nelts,
vallen,
( ConstSpiceChar ** ) cvalsPtr,
&fCvalsLen,
&fCvalsArr );
if ( failed_c() )
{
free ( logicalFlags );
free ( cvalsPtr );
chkout_c ( "ekaclc_c" );
return;
}
/*
Map the segment number to the Fortran range.
*/
fSegno = segno + 1;
ekaclc_ ( ( integer * ) &handle,
( integer * ) &fSegno,
( char * ) column,
( char * ) fCvalsArr,
( integer * ) entszs,
( logical * ) logicalFlags,
( integer * ) rcptrs,
( integer * ) wkindx,
( ftnlen ) strlen(column),
( ftnlen ) fCvalsLen );
/*
Clean up all of our dynamically allocated arrays.
*/
free ( cvalsPtr );
free ( fCvalsArr );
free ( logicalFlags );
chkout_c ( "ekaclc_c" );
} /* End ekaclc_c */
