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authordgp <dgp@users.sourceforge.net>2015-02-05 19:24:27 (GMT)
committerdgp <dgp@users.sourceforge.net>2015-02-05 19:24:27 (GMT)
commita3dd509ce7199eabd840269dff98a6c2e984c482 (patch)
tree33ac77a5fda1c01bd50093e65d6b2c1735c2dc90 /win/tclsh.rc
parent08fa42eaa0798c68ec6a365e3f2ab1905e97b287 (diff)
parentdf3478c0c508d7065be2d48ab3b48f405dd80b18 (diff)
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merge 8.5
Diffstat (limited to 'win/tclsh.rc')
0 files changed, 0 insertions, 0 deletions
generated by cgit v0.12 at 2024-11-09 17:21:29 (GMT)
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/* * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * *
 * Copyright by The HDF Group.                                               *
 * Copyright by the Board of Trustees of the University of Illinois.         *
 * All rights reserved.                                                      *
 *                                                                           *
 * This file is part of HDF5.  The full HDF5 copyright notice, including     *
 * terms governing use, modification, and redistribution, is contained in    *
 * the COPYING file, which can be found at the root of the source code       *
 * distribution tree, or in https://support.hdfgroup.org/ftp/HDF5/releases.  *
 * If you do not have access to either file, you may request a copy from     *
 * help@hdfgroup.org.                                                        *
 * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * */

/***********************************************************
*
* Test program:	 tselect
*
* Test the Dataspace selection functionality
*
*************************************************************/

#define H5S_FRIEND		/*suppress error about including H5Spkg	  */

/* Define this macro to indicate that the testing APIs should be available */
#define H5S_TESTING

#include "testhdf5.h"
#include "hdf5.h"
#include "H5Spkg.h"		/* Dataspaces				*/

#define FILENAME   "tselect.h5"

/* 3-D dataset with fixed dimensions */
#define SPACE1_NAME  "Space1"
#define SPACE1_RANK	3
#define SPACE1_DIM1	3
#define SPACE1_DIM2	15
#define SPACE1_DIM3	13

/* 2-D dataset with fixed dimensions */
#define SPACE2_NAME  "Space2"
#define SPACE2_RANK	2
#define SPACE2_DIM1	30
#define SPACE2_DIM2	26
#define SPACE2A_RANK	1
#define SPACE2A_DIM1	(SPACE2_DIM1*SPACE2_DIM2)

/* 2-D dataset with fixed dimensions */
#define SPACE3_NAME  "Space3"
#define SPACE3_RANK	2
#define SPACE3_DIM1	15
#define SPACE3_DIM2	26

/* 3-D dataset with fixed dimensions */
#define SPACE4_NAME  "Space4"
#define SPACE4_RANK	3
#define SPACE4_DIM1	11
#define SPACE4_DIM2	13
#define SPACE4_DIM3	17

/* Number of random hyperslabs to test */
#define NHYPERSLABS 10

/* Number of random hyperslab tests performed */
#define NRAND_HYPER 100

/* 5-D dataset with fixed dimensions */
#define SPACE5_NAME  "Space5"
#define SPACE5_RANK	5
#define SPACE5_DIM1	10
#define SPACE5_DIM2	10
#define SPACE5_DIM3	10
#define SPACE5_DIM4	10
#define SPACE5_DIM5	10

/* 1-D dataset with same size as 5-D dataset */
#define SPACE6_RANK	1
#define SPACE6_DIM1	(SPACE5_DIM1*SPACE5_DIM2*SPACE5_DIM3*SPACE5_DIM4*SPACE5_DIM5)

/* 2-D dataset with easy dimension sizes */
#define SPACE7_NAME  "Space7"
#define SPACE7_RANK	2
#define SPACE7_DIM1	10
#define SPACE7_DIM2	10
#define SPACE7_FILL     254
#define SPACE7_CHUNK_DIM1 5
#define SPACE7_CHUNK_DIM2 5
#define SPACE7_NPOINTS  8

/* 4-D dataset with fixed dimensions */
#define SPACE8_NAME  "Space8"
#define SPACE8_RANK	4
#define SPACE8_DIM1	11
#define SPACE8_DIM2	13
#define SPACE8_DIM3	17
#define SPACE8_DIM4	19

/* Another 2-D dataset with easy dimension sizes */
#define SPACE9_RANK	2
#define SPACE9_DIM1	12
#define SPACE9_DIM2	12

/* Element selection information */
#define POINT1_NPOINTS 10

/* Chunked dataset information */
#define DATASETNAME "ChunkArray"
#define NX_SUB   87                     /* hyperslab dimensions */
#define NY_SUB   61
#define NZ_SUB  181
#define NX       87                     /* output buffer dimensions */
#define NY       61
#define NZ      181
#define RANK_F     3                    /* File dataspace rank */
#define RANK_M     3                    /* Memory dataspace rank */
#define X    87                         /* dataset dimensions */
#define Y    61
#define Z   181
#define CHUNK_X   87                    /* chunk dimensions */
#define CHUNK_Y   61
#define CHUNK_Z  181

/* Basic chunk size */
#define SPACE10_DIM1    180
#define SPACE10_CHUNK_SIZE 12

/* Information for bounds checking test */
#define SPACE11_RANK	2
#define SPACE11_DIM1    100
#define SPACE11_DIM2    100
#define SPACE11_NPOINTS 4

/* Information for offsets w/chunks test #2 */
#define SPACE12_RANK	        1
#define SPACE12_DIM0            25
#define SPACE12_CHUNK_DIM0      5

/* Information for Space rebuild test */
#define SPACERE1_RANK            1
#define SPACERE1_DIM0            20
#define SPACERE2_RANK            2
#define SPACERE2_DIM0            8
#define SPACERE2_DIM1            12
#define SPACERE3_RANK            3
#define SPACERE3_DIM0            8
#define SPACERE3_DIM1            12
#define SPACERE3_DIM2            8
#define SPACERE4_RANK            4
#define SPACERE4_DIM0            8
#define SPACERE4_DIM1            12
#define SPACERE4_DIM2            8
#define SPACERE4_DIM3            12
#define SPACERE5_RANK            5
#define SPACERE5_DIM0            8
#define SPACERE5_DIM1            12
#define SPACERE5_DIM2            8
#define SPACERE5_DIM3            12
#define SPACERE5_DIM4            8

/* #defines for shape same / different rank tests */
#define SS_DR_MAX_RANK		5

/* Information for regular hyperslab query test */
#define SPACE13_RANK	3
#define SPACE13_DIM1    50
#define SPACE13_DIM2    50
#define SPACE13_DIM3    50
#define SPACE13_NPOINTS 4


/* Location comparison function */
static int compare_size_t(const void *s1, const void *s2);

static herr_t test_select_hyper_iter1(void *elem,hid_t type_id, unsigned ndim, const hsize_t *point, void *operator_data);
static herr_t test_select_point_iter1(void *elem,hid_t type_id, unsigned ndim, const hsize_t *point, void *operator_data);
static herr_t test_select_all_iter1(void *elem,hid_t type_id, unsigned ndim, const hsize_t *point, void *operator_data);
static herr_t test_select_none_iter1(void *elem,hid_t type_id, unsigned ndim, const hsize_t *point, void *operator_data);
static herr_t test_select_hyper_iter2(void *_elem, hid_t type_id, unsigned ndim, const hsize_t *point, void *_operator_data);
static herr_t test_select_hyper_iter3(void *elem,hid_t type_id, unsigned ndim, const hsize_t *point, void *operator_data);

/****************************************************************
**
**  test_select_hyper_iter1(): Iterator for checking hyperslab iteration
**
****************************************************************/
static herr_t
test_select_hyper_iter1(void *_elem, hid_t H5_ATTR_UNUSED type_id, unsigned H5_ATTR_UNUSED ndim, const hsize_t H5_ATTR_UNUSED *point, void *_operator_data)
{
    uint8_t *tbuf=(uint8_t *)_elem,     /* temporary buffer pointer */
            **tbuf2=(uint8_t **)_operator_data; /* temporary buffer handle */

    if(*tbuf!=**tbuf2)
        return(-1);
    else {
        (*tbuf2)++;
        return(0);
    }
}   /* end test_select_hyper_iter1() */

/****************************************************************
**
**  test_select_hyper(): Test basic H5S (dataspace) selection code.
**      Tests hyperslabs of various sizes and dimensionalities.
**
****************************************************************/
static void
test_select_hyper(hid_t xfer_plist)
{
    hid_t	fid1;		/* HDF5 File IDs		*/
    hid_t	dataset;	/* Dataset ID			*/
    hid_t	sid1,sid2;	/* Dataspace ID			*/
    hsize_t	dims1[] = {SPACE1_DIM1, SPACE1_DIM2, SPACE1_DIM3};
    hsize_t	dims2[] = {SPACE2_DIM1, SPACE2_DIM2};
    hsize_t	dims3[] = {SPACE3_DIM1, SPACE3_DIM2};
    hsize_t	start[SPACE1_RANK];     /* Starting location of hyperslab */
    hsize_t	stride[SPACE1_RANK];    /* Stride of hyperslab */
    hsize_t	count[SPACE1_RANK];     /* Element count of hyperslab */
    hsize_t	block[SPACE1_RANK];     /* Block size of hyperslab */
    uint8_t    *wbuf,       /* buffer to write to disk */
               *rbuf,       /* buffer read from disk */
               *tbuf;       /* temporary buffer pointer */
    int        i,j;        /* Counters */
    herr_t		ret;		/* Generic return value		*/
    H5S_class_t ext_type;   /* Extent type */

    /* Output message about test being performed */
    MESSAGE(5, ("Testing Hyperslab Selection Functions\n"));

    /* Allocate write & read buffers */
    wbuf = (uint8_t *)HDmalloc(sizeof(uint8_t) * SPACE2_DIM1 * SPACE2_DIM2);
    CHECK_PTR(wbuf, "HDmalloc");
    rbuf = (uint8_t *)HDcalloc(sizeof(uint8_t), (size_t)(SPACE3_DIM1 * SPACE3_DIM2));
    CHECK_PTR(rbuf, "HDcalloc");

    /* Initialize write buffer */
    for(i=0, tbuf=wbuf; i<SPACE2_DIM1; i++)
        for(j=0; j<SPACE2_DIM2; j++)
            *tbuf++=(uint8_t)((i*SPACE2_DIM2)+j);

    /* Create file */
    fid1 = H5Fcreate(FILENAME, H5F_ACC_TRUNC, H5P_DEFAULT, H5P_DEFAULT);
    CHECK(fid1, FAIL, "H5Fcreate");

    /* Create dataspace for dataset */
    sid1 = H5Screate_simple(SPACE1_RANK, dims1, NULL);
    CHECK(sid1, FAIL, "H5Screate_simple");

    /* Create dataspace for writing buffer */
    sid2 = H5Screate_simple(SPACE2_RANK, dims2, NULL);
    CHECK(sid2, FAIL, "H5Screate_simple");

    /* Verify extent type */
    ext_type = H5Sget_simple_extent_type(sid1);
    VERIFY(ext_type, H5S_SIMPLE, "H5Sget_simple_extent_type");

    /* Test selecting stride==0 to verify failure */
    start[0]=1; start[1]=0; start[2]=0;
    stride[0]=0; stride[1]=0; stride[2]=0;
    count[0]=2; count[1]=15; count[2]=13;
    block[0]=1; block[1]=1; block[2]=1;
    H5E_BEGIN_TRY {
        ret = H5Sselect_hyperslab(sid1,H5S_SELECT_SET,start,stride,count,block);
    } H5E_END_TRY;
    VERIFY(ret, FAIL, "H5Sselect_hyperslab");

    /* Test selecting stride<block to verify failure */
    start[0]=1; start[1]=0; start[2]=0;
    stride[0]=1; stride[1]=1; stride[2]=1;
    count[0]=2; count[1]=15; count[2]=13;
    block[0]=2; block[1]=2; block[2]=2;
    H5E_BEGIN_TRY {
        ret = H5Sselect_hyperslab(sid1,H5S_SELECT_SET,start,stride,count,block);
    } H5E_END_TRY;
    VERIFY(ret, FAIL, "H5Sselect_hyperslab");

    /* Select 2x15x13 hyperslab for disk dataset */
    start[0]=1; start[1]=0; start[2]=0;
    stride[0]=1; stride[1]=1; stride[2]=1;
    count[0]=2; count[1]=15; count[2]=13;
    block[0]=1; block[1]=1; block[2]=1;
    ret = H5Sselect_hyperslab(sid1,H5S_SELECT_SET,start,stride,count,block);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Select 15x26 hyperslab for memory dataset */
    start[0]=15; start[1]=0;
    stride[0]=1; stride[1]=1;
    count[0]=15; count[1]=26;
    block[0]=1; block[1]=1;
    ret = H5Sselect_hyperslab(sid2,H5S_SELECT_SET,start,stride,count,block);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Create a dataset */
    dataset=H5Dcreate2(fid1,SPACE2_NAME,H5T_NATIVE_UCHAR,sid1,H5P_DEFAULT, H5P_DEFAULT, H5P_DEFAULT);

    /* Write selection to disk */
    ret=H5Dwrite(dataset,H5T_NATIVE_UCHAR,sid2,sid1,xfer_plist,wbuf);
    CHECK(ret, FAIL, "H5Dwrite");

    /* Exercise checks for NULL buffer and valid selection */
    H5E_BEGIN_TRY {
        ret=H5Dwrite(dataset,H5T_NATIVE_UCHAR,sid2,sid1,xfer_plist,NULL);
    } H5E_END_TRY;
    VERIFY(ret, FAIL, "H5Dwrite");
    H5E_BEGIN_TRY {
        ret=H5Dwrite(dataset,H5T_NATIVE_UCHAR,H5S_ALL,H5S_ALL,xfer_plist,NULL);
    } H5E_END_TRY;
    VERIFY(ret, FAIL, "H5Dwrite");

    /* Close memory dataspace */
    ret = H5Sclose(sid2);
    CHECK(ret, FAIL, "H5Sclose");

    /* Create dataspace for reading buffer */
    sid2 = H5Screate_simple(SPACE3_RANK, dims3, NULL);
    CHECK(sid2, FAIL, "H5Screate_simple");

    /* Select 15x26 hyperslab for reading memory dataset */
    start[0]=0; start[1]=0;
    stride[0]=1; stride[1]=1;
    count[0]=15; count[1]=26;
    block[0]=1; block[1]=1;
    ret = H5Sselect_hyperslab(sid2,H5S_SELECT_SET,start,stride,count,block);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Select 0x26 hyperslab to OR into current selection (should be a NOOP) */
    start[0]=0; start[1]=0;
    stride[0]=1; stride[1]=1;
    count[0]=0; count[1]=26;
    block[0]=1; block[1]=1;
    ret = H5Sselect_hyperslab(sid2,H5S_SELECT_OR,start,stride,count,block);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Read selection from disk */
    ret=H5Dread(dataset,H5T_NATIVE_UCHAR,sid2,sid1,xfer_plist,rbuf);
    CHECK(ret, FAIL, "H5Dread");

    /* Exercise checks for NULL buffer and valid selection */
    H5E_BEGIN_TRY {
        ret=H5Dread(dataset,H5T_NATIVE_UCHAR,sid2,sid1,xfer_plist,NULL);
    } H5E_END_TRY;
    VERIFY(ret, FAIL, "H5Dread");
    H5E_BEGIN_TRY {
        ret=H5Dread(dataset,H5T_NATIVE_UCHAR,H5S_ALL,H5S_ALL,xfer_plist,NULL);
    } H5E_END_TRY;
    VERIFY(ret, FAIL, "H5Dread");

    /* Check that the values match with a dataset iterator */
    tbuf=wbuf+(15*SPACE2_DIM2);
    ret = H5Diterate(rbuf,H5T_NATIVE_UCHAR,sid2,test_select_hyper_iter1,&tbuf);
    CHECK(ret, FAIL, "H5Diterate");

    /* Close memory dataspace */
    ret = H5Sclose(sid2);
    CHECK(ret, FAIL, "H5Sclose");

    /* Close disk dataspace */
    ret = H5Sclose(sid1);
    CHECK(ret, FAIL, "H5Sclose");

    /* Close Dataset */
    ret = H5Dclose(dataset);
    CHECK(ret, FAIL, "H5Dclose");

    /* Close file */
    ret = H5Fclose(fid1);
    CHECK(ret, FAIL, "H5Fclose");

    /* Free memory buffers */
    HDfree(wbuf);
    HDfree(rbuf);
}   /* test_select_hyper() */

struct pnt_iter {
    hsize_t	coord[POINT1_NPOINTS*2][SPACE2_RANK]; /* Coordinates for point selection */
    uint8_t *buf;           /* Buffer the points are in */
    int offset;            /* Which point we are looking at */
};

/****************************************************************
**
**  test_select_point_iter1(): Iterator for checking point iteration
**  (This is really ugly code, not a very good example of correct usage - QAK)
**
****************************************************************/
static herr_t
test_select_point_iter1(void *_elem, hid_t H5_ATTR_UNUSED type_id, unsigned H5_ATTR_UNUSED ndim, const hsize_t H5_ATTR_UNUSED *point, void *_operator_data)
{
    uint8_t *elem=(uint8_t *)_elem;  /* Pointer to the element to examine */
    uint8_t *tmp;                       /* temporary ptr to element in operator data */
    struct pnt_iter *pnt_info=(struct pnt_iter *)_operator_data;

    tmp=pnt_info->buf+(pnt_info->coord[pnt_info->offset][0]*SPACE2_DIM2)+pnt_info->coord[pnt_info->offset][1];
    if(*elem!=*tmp)
        return(-1);
    else {
        pnt_info->offset++;
        return(0);
    }
}   /* end test_select_point_iter1() */

/****************************************************************
**
**  test_select_point(): Test basic H5S (dataspace) selection code.
**      Tests element selections between dataspaces of various sizes
**      and dimensionalities.
**
****************************************************************/
static void
test_select_point(hid_t xfer_plist)
{
    hid_t		fid1;		/* HDF5 File IDs		*/
    hid_t		dataset;	/* Dataset ID			*/
    hid_t		sid1,sid2;	/* Dataspace ID			*/
    hsize_t		dims1[] = {SPACE1_DIM1, SPACE1_DIM2, SPACE1_DIM3};
    hsize_t		dims2[] = {SPACE2_DIM1, SPACE2_DIM2};
    hsize_t		dims3[] = {SPACE3_DIM1, SPACE3_DIM2};
    hsize_t	coord1[POINT1_NPOINTS][SPACE1_RANK]; /* Coordinates for point selection */
    hsize_t	temp_coord1[POINT1_NPOINTS][SPACE1_RANK]; /* Coordinates for point selection */
    hsize_t	coord2[POINT1_NPOINTS][SPACE2_RANK]; /* Coordinates for point selection */
    hsize_t	temp_coord2[POINT1_NPOINTS][SPACE2_RANK]; /* Coordinates for point selection */
    hsize_t	coord3[POINT1_NPOINTS][SPACE3_RANK]; /* Coordinates for point selection */
    hsize_t	temp_coord3[POINT1_NPOINTS][SPACE3_RANK]; /* Coordinates for point selection */
    uint8_t    *wbuf,       /* buffer to write to disk */
               *rbuf,       /* buffer read from disk */
               *tbuf;       /* temporary buffer pointer */
    int        i,j;        /* Counters */
    struct pnt_iter pi;     /* Custom Pointer iterator struct */
    herr_t		ret;		/* Generic return value		*/

    /* Output message about test being performed */
    MESSAGE(5, ("Testing Element Selection Functions\n"));

    /* Allocate write & read buffers */
    wbuf = (uint8_t *)HDmalloc(sizeof(uint8_t) * SPACE2_DIM1 * SPACE2_DIM2);
    CHECK_PTR(wbuf, "HDmalloc");
    rbuf = (uint8_t *)HDcalloc(sizeof(uint8_t), (size_t)(SPACE3_DIM1 * SPACE3_DIM2));
    CHECK_PTR(rbuf, "HDcalloc");

    /* Initialize write buffer */
    for(i=0, tbuf=wbuf; i<SPACE2_DIM1; i++)
        for(j=0; j<SPACE2_DIM2; j++)
            *tbuf++=(uint8_t)((i*SPACE2_DIM2)+j);

    /* Create file */
    fid1 = H5Fcreate(FILENAME, H5F_ACC_TRUNC, H5P_DEFAULT, H5P_DEFAULT);
    CHECK(fid1, FAIL, "H5Fcreate");

    /* Create dataspace for dataset */
    sid1 = H5Screate_simple(SPACE1_RANK, dims1, NULL);
    CHECK(sid1, FAIL, "H5Screate_simple");

    /* Create dataspace for write buffer */
    sid2 = H5Screate_simple(SPACE2_RANK, dims2, NULL);
    CHECK(sid2, FAIL, "H5Screate_simple");

    /* Select sequence of ten points for disk dataset */
    coord1[0][0]=0; coord1[0][1]=10; coord1[0][2]= 5;
    coord1[1][0]=1; coord1[1][1]= 2; coord1[1][2]= 7;
    coord1[2][0]=2; coord1[2][1]= 4; coord1[2][2]= 9;
    coord1[3][0]=0; coord1[3][1]= 6; coord1[3][2]=11;
    coord1[4][0]=1; coord1[4][1]= 8; coord1[4][2]=13;
    coord1[5][0]=2; coord1[5][1]=12; coord1[5][2]= 0;
    coord1[6][0]=0; coord1[6][1]=14; coord1[6][2]= 2;
    coord1[7][0]=1; coord1[7][1]= 0; coord1[7][2]= 4;
    coord1[8][0]=2; coord1[8][1]= 1; coord1[8][2]= 6;
    coord1[9][0]=0; coord1[9][1]= 3; coord1[9][2]= 8;
    ret = H5Sselect_elements(sid1, H5S_SELECT_SET, (size_t)POINT1_NPOINTS, (const hsize_t *)coord1);
    CHECK(ret, FAIL, "H5Sselect_elements");

    /* Verify correct elements selected */
    H5Sget_select_elem_pointlist(sid1,(hsize_t)0,(hsize_t)POINT1_NPOINTS,(hsize_t *)temp_coord1);
    for(i=0; i<POINT1_NPOINTS; i++) {
        VERIFY(temp_coord1[i][0],coord1[i][0],"H5Sget_select_elem_pointlist");
        VERIFY(temp_coord1[i][1],coord1[i][1],"H5Sget_select_elem_pointlist");
        VERIFY(temp_coord1[i][2],coord1[i][2],"H5Sget_select_elem_pointlist");
    } /* end for */

    ret = (int)H5Sget_select_npoints(sid1);
    VERIFY(ret, 10, "H5Sget_select_npoints");

    /* Append another sequence of ten points to disk dataset */
    coord1[0][0]=0; coord1[0][1]= 2; coord1[0][2]= 0;
    coord1[1][0]=1; coord1[1][1]=10; coord1[1][2]= 8;
    coord1[2][0]=2; coord1[2][1]= 8; coord1[2][2]=10;
    coord1[3][0]=0; coord1[3][1]= 7; coord1[3][2]=12;
    coord1[4][0]=1; coord1[4][1]= 3; coord1[4][2]=11;
    coord1[5][0]=2; coord1[5][1]= 1; coord1[5][2]= 1;
    coord1[6][0]=0; coord1[6][1]=13; coord1[6][2]= 7;
    coord1[7][0]=1; coord1[7][1]=14; coord1[7][2]= 6;
    coord1[8][0]=2; coord1[8][1]= 2; coord1[8][2]= 5;
    coord1[9][0]=0; coord1[9][1]= 6; coord1[9][2]=13;
    ret = H5Sselect_elements(sid1, H5S_SELECT_APPEND, (size_t)POINT1_NPOINTS, (const hsize_t *)coord1);
    CHECK(ret, FAIL, "H5Sselect_elements");

    /* Verify correct elements selected */
    H5Sget_select_elem_pointlist(sid1,(hsize_t)POINT1_NPOINTS,(hsize_t)POINT1_NPOINTS,(hsize_t *)temp_coord1);
    for(i=0; i<POINT1_NPOINTS; i++) {
        VERIFY(temp_coord1[i][0],coord1[i][0],"H5Sget_select_elem_pointlist");
        VERIFY(temp_coord1[i][1],coord1[i][1],"H5Sget_select_elem_pointlist");
        VERIFY(temp_coord1[i][2],coord1[i][2],"H5Sget_select_elem_pointlist");
    } /* end for */

    ret = (int)H5Sget_select_npoints(sid1);
    VERIFY(ret, 20, "H5Sget_select_npoints");

    /* Select sequence of ten points for memory dataset */
    coord2[0][0]=12; coord2[0][1]= 3;
    coord2[1][0]=15; coord2[1][1]=13;
    coord2[2][0]= 7; coord2[2][1]=25;
    coord2[3][0]= 0; coord2[3][1]= 6;
    coord2[4][0]=13; coord2[4][1]= 0;
    coord2[5][0]=24; coord2[5][1]=11;
    coord2[6][0]=12; coord2[6][1]=21;
    coord2[7][0]=29; coord2[7][1]= 4;
    coord2[8][0]= 8; coord2[8][1]= 8;
    coord2[9][0]=19; coord2[9][1]=17;
    ret = H5Sselect_elements(sid2, H5S_SELECT_SET, (size_t)POINT1_NPOINTS, (const hsize_t *)coord2);
    CHECK(ret, FAIL, "H5Sselect_elements");

    /* Verify correct elements selected */
    H5Sget_select_elem_pointlist(sid2,(hsize_t)0,(hsize_t)POINT1_NPOINTS,(hsize_t *)temp_coord2);
    for(i=0; i<POINT1_NPOINTS; i++) {
        VERIFY(temp_coord2[i][0],coord2[i][0],"H5Sget_select_elem_pointlist");
        VERIFY(temp_coord2[i][1],coord2[i][1],"H5Sget_select_elem_pointlist");
    } /* end for */

    /* Save points for later iteration */
    /* (these are in the second half of the buffer, because we are prepending */
    /*  the next list of points to the beginning of the point selection list) */
    HDmemcpy(((char *)pi.coord)+sizeof(coord2),coord2,sizeof(coord2));

    ret = (int)H5Sget_select_npoints(sid2);
    VERIFY(ret, 10, "H5Sget_select_npoints");

    /* Append another sequence of ten points to memory dataset */
    coord2[0][0]=24; coord2[0][1]= 0;
    coord2[1][0]= 2; coord2[1][1]=25;
    coord2[2][0]=13; coord2[2][1]=17;
    coord2[3][0]= 8; coord2[3][1]= 3;
    coord2[4][0]=29; coord2[4][1]= 4;
    coord2[5][0]=11; coord2[5][1]=14;
    coord2[6][0]= 5; coord2[6][1]=22;
    coord2[7][0]=12; coord2[7][1]= 2;
    coord2[8][0]=21; coord2[8][1]=12;
    coord2[9][0]= 9; coord2[9][1]=18;
    ret = H5Sselect_elements(sid2, H5S_SELECT_PREPEND, (size_t)POINT1_NPOINTS, (const hsize_t *)coord2);
    CHECK(ret, FAIL, "H5Sselect_elements");

    /* Verify correct elements selected */
    H5Sget_select_elem_pointlist(sid2,(hsize_t)0,(hsize_t)POINT1_NPOINTS,(hsize_t *)temp_coord2);
    for(i=0; i<POINT1_NPOINTS; i++) {
        VERIFY(temp_coord2[i][0],coord2[i][0],"H5Sget_select_elem_pointlist");
        VERIFY(temp_coord2[i][1],coord2[i][1],"H5Sget_select_elem_pointlist");
    } /* end for */

    ret = (int)H5Sget_select_npoints(sid2);
    VERIFY(ret, 20, "H5Sget_select_npoints");

    /* Save points for later iteration */
    HDmemcpy(pi.coord, coord2, sizeof(coord2));

    /* Create a dataset */
    dataset = H5Dcreate2(fid1, SPACE1_NAME, H5T_NATIVE_UCHAR, sid1, H5P_DEFAULT, H5P_DEFAULT, H5P_DEFAULT);
    CHECK(dataset, FAIL, "H5Dcreate2");

    /* Write selection to disk */
    ret = H5Dwrite(dataset, H5T_NATIVE_UCHAR, sid2, sid1, xfer_plist, wbuf);
    CHECK(ret, FAIL, "H5Dwrite");

    /* Close memory dataspace */
    ret = H5Sclose(sid2);
    CHECK(ret, FAIL, "H5Sclose");

    /* Create dataspace for reading buffer */
    sid2 = H5Screate_simple(SPACE3_RANK, dims3, NULL);
    CHECK(sid2, FAIL, "H5Screate_simple");

    /* Select sequence of points for read dataset */
    coord3[0][0]= 0; coord3[0][1]= 2;
    coord3[1][0]= 4; coord3[1][1]= 8;
    coord3[2][0]=13; coord3[2][1]=13;
    coord3[3][0]=14; coord3[3][1]=20;
    coord3[4][0]= 7; coord3[4][1]= 9;
    coord3[5][0]= 2; coord3[5][1]= 0;
    coord3[6][0]= 9; coord3[6][1]=19;
    coord3[7][0]= 1; coord3[7][1]=22;
    coord3[8][0]=12; coord3[8][1]=21;
    coord3[9][0]=11; coord3[9][1]= 6;
    ret = H5Sselect_elements(sid2, H5S_SELECT_SET, (size_t)POINT1_NPOINTS, (const hsize_t *)coord3);
    CHECK(ret, FAIL, "H5Sselect_elements");

    /* Verify correct elements selected */
    H5Sget_select_elem_pointlist(sid2,(hsize_t)0,(hsize_t)POINT1_NPOINTS,(hsize_t *)temp_coord3);
    for(i=0; i<POINT1_NPOINTS; i++) {
        VERIFY(temp_coord3[i][0],coord3[i][0],"H5Sget_select_elem_pointlist");
        VERIFY(temp_coord3[i][1],coord3[i][1],"H5Sget_select_elem_pointlist");
    } /* end for */

    ret = (int)H5Sget_select_npoints(sid2);
    VERIFY(ret, 10, "H5Sget_select_npoints");

    /* Append another sequence of ten points to disk dataset */
    coord3[0][0]=14; coord3[0][1]=25;
    coord3[1][0]= 0; coord3[1][1]= 0;
    coord3[2][0]=11; coord3[2][1]=11;
    coord3[3][0]= 5; coord3[3][1]=14;
    coord3[4][0]= 3; coord3[4][1]= 5;
    coord3[5][0]= 2; coord3[5][1]= 2;
    coord3[6][0]= 7; coord3[6][1]=13;
    coord3[7][0]= 9; coord3[7][1]=16;
    coord3[8][0]=12; coord3[8][1]=22;
    coord3[9][0]=13; coord3[9][1]= 9;
    ret = H5Sselect_elements(sid2, H5S_SELECT_APPEND, (size_t)POINT1_NPOINTS, (const hsize_t *)coord3);
    CHECK(ret, FAIL, "H5Sselect_elements");

    /* Verify correct elements selected */
    H5Sget_select_elem_pointlist(sid2,(hsize_t)POINT1_NPOINTS,(hsize_t)POINT1_NPOINTS,(hsize_t *)temp_coord3);
    for(i=0; i<POINT1_NPOINTS; i++) {
        VERIFY(temp_coord3[i][0],coord3[i][0],"H5Sget_select_elem_pointlist");
        VERIFY(temp_coord3[i][1],coord3[i][1],"H5Sget_select_elem_pointlist");
    } /* end for */
    ret = (int)H5Sget_select_npoints(sid2);
    VERIFY(ret, 20, "H5Sget_select_npoints");

    /* Read selection from disk */
    ret=H5Dread(dataset,H5T_NATIVE_UCHAR,sid2,sid1,xfer_plist,rbuf);
    CHECK(ret, FAIL, "H5Dread");

    /* Check that the values match with a dataset iterator */
    pi.buf=wbuf;
    pi.offset=0;
    ret = H5Diterate(rbuf,H5T_NATIVE_UCHAR,sid2,test_select_point_iter1,&pi);
    CHECK(ret, FAIL, "H5Diterate");

    /* Close memory dataspace */
    ret = H5Sclose(sid2);
    CHECK(ret, FAIL, "H5Sclose");

    /* Close disk dataspace */
    ret = H5Sclose(sid1);
    CHECK(ret, FAIL, "H5Sclose");

    /* Close Dataset */
    ret = H5Dclose(dataset);
    CHECK(ret, FAIL, "H5Dclose");

    /* Close file */
    ret = H5Fclose(fid1);
    CHECK(ret, FAIL, "H5Fclose");

    /* Free memory buffers */
    HDfree(wbuf);
    HDfree(rbuf);
}   /* test_select_point() */

/****************************************************************
**
**  test_select_all_iter1(): Iterator for checking all iteration
**
**
****************************************************************/
static herr_t
test_select_all_iter1(void *_elem, hid_t H5_ATTR_UNUSED type_id, unsigned H5_ATTR_UNUSED ndim, const hsize_t H5_ATTR_UNUSED *point, void *_operator_data)
{
    uint8_t *tbuf=(uint8_t *)_elem,     /* temporary buffer pointer */
            **tbuf2=(uint8_t **)_operator_data; /* temporary buffer handle */

    if(*tbuf!=**tbuf2)
        return(-1);
    else {
        (*tbuf2)++;
        return(0);
    }
}   /* end test_select_all_iter1() */

/****************************************************************
**
**  test_select_none_iter1(): Iterator for checking none iteration
**      (This is never supposed to be called, so it always returns -1)
**
****************************************************************/
static herr_t
test_select_none_iter1(void H5_ATTR_UNUSED *_elem, hid_t H5_ATTR_UNUSED type_id, unsigned H5_ATTR_UNUSED ndim, const hsize_t H5_ATTR_UNUSED *point, void H5_ATTR_UNUSED *_operator_data)
{
    return(-1);
}   /* end test_select_none_iter1() */

/****************************************************************
**
**  test_select_all(): Test basic H5S (dataspace) selection code.
**      Tests "all" selections.
**
****************************************************************/
static void
test_select_all(hid_t xfer_plist)
{
    hid_t		fid1;		/* HDF5 File IDs		*/
    hid_t		dataset;	/* Dataset ID			*/
    hid_t		sid1;	        /* Dataspace ID			*/
    hsize_t		dims1[] = {SPACE4_DIM1, SPACE4_DIM2, SPACE4_DIM3};
    uint8_t    *wbuf,       /* buffer to write to disk */
               *rbuf,       /* buffer read from disk */
               *tbuf;       /* temporary buffer pointer */
    int        i,j,k;      /* Counters */
    herr_t		ret;		/* Generic return value		*/
    H5S_class_t ext_type;   /* Extent type */

    /* Output message about test being performed */
    MESSAGE(5, ("Testing 'All' Selection Functions\n"));

    /* Allocate write & read buffers */
    wbuf = (uint8_t *)HDmalloc(sizeof(uint8_t) * SPACE4_DIM1 * SPACE4_DIM2 * SPACE4_DIM3);
    CHECK_PTR(wbuf, "HDmalloc");
    rbuf = (uint8_t *)HDcalloc(sizeof(uint8_t), (size_t)(SPACE4_DIM1 * SPACE4_DIM2 * SPACE4_DIM3));
    CHECK_PTR(rbuf, "HDcalloc");

    /* Initialize write buffer */
    for(i=0, tbuf=wbuf; i<SPACE4_DIM1; i++)
        for(j=0; j<SPACE4_DIM2; j++)
            for(k=0; k<SPACE4_DIM3; k++)
                *tbuf++ = (uint8_t)((((i * SPACE4_DIM2) + j) * SPACE4_DIM3) + k);

    /* Create file */
    fid1 = H5Fcreate(FILENAME, H5F_ACC_TRUNC, H5P_DEFAULT, H5P_DEFAULT);
    CHECK(fid1, FAIL, "H5Fcreate");

    /* Create dataspace for dataset */
    sid1 = H5Screate_simple(SPACE4_RANK, dims1, NULL);
    CHECK(sid1, FAIL, "H5Screate_simple");

    /* Verify extent type */
    ext_type = H5Sget_simple_extent_type(sid1);
    VERIFY(ext_type, H5S_SIMPLE, "H5Sget_simple_extent_type");

    /* Create a dataset */
    dataset = H5Dcreate2(fid1, SPACE4_NAME, H5T_NATIVE_INT, sid1, H5P_DEFAULT, H5P_DEFAULT, H5P_DEFAULT);
    CHECK(dataset, FAIL, "H5Dcreate2");

    /* Write selection to disk */
    ret = H5Dwrite(dataset, H5T_NATIVE_UCHAR, H5S_ALL, H5S_ALL, xfer_plist, wbuf);
    CHECK(ret, FAIL, "H5Dwrite");

    /* Read selection from disk */
    ret = H5Dread(dataset, H5T_NATIVE_UCHAR, H5S_ALL, H5S_ALL, xfer_plist, rbuf);
    CHECK(ret, FAIL, "H5Dread");

    /* Check that the values match with a dataset iterator */
    tbuf = wbuf;
    ret = H5Diterate(rbuf, H5T_NATIVE_UCHAR, sid1, test_select_all_iter1, &tbuf);
    CHECK(ret, FAIL, "H5Diterate");

    /* Close disk dataspace */
    ret = H5Sclose(sid1);
    CHECK(ret, FAIL, "H5Sclose");

    /* Close Dataset */
    ret = H5Dclose(dataset);
    CHECK(ret, FAIL, "H5Dclose");

    /* Close file */
    ret = H5Fclose(fid1);
    CHECK(ret, FAIL, "H5Fclose");

    /* Free memory buffers */
    HDfree(wbuf);
    HDfree(rbuf);
}   /* test_select_all() */

/****************************************************************
**
**  test_select_all_hyper(): Test basic H5S (dataspace) selection code.
**      Tests "all" and hyperslab selections.
**
****************************************************************/
static void
test_select_all_hyper(hid_t xfer_plist)
{
    hid_t		fid1;		/* HDF5 File IDs		*/
    hid_t		dataset;	/* Dataset ID			*/
    hid_t		sid1,sid2;	/* Dataspace ID			*/
    hsize_t		dims1[] = {SPACE3_DIM1, SPACE3_DIM2};
    hsize_t		dims2[] = {SPACE2_DIM1, SPACE2_DIM2};
    hsize_t		dims3[] = {SPACE3_DIM1, SPACE3_DIM2};
    hsize_t		start[SPACE1_RANK];     /* Starting location of hyperslab */
    hsize_t		stride[SPACE1_RANK];    /* Stride of hyperslab */
    hsize_t		count[SPACE1_RANK];     /* Element count of hyperslab */
    hsize_t		block[SPACE1_RANK];     /* Block size of hyperslab */
    uint8_t    *wbuf,       /* buffer to write to disk */
               *rbuf,       /* buffer read from disk */
               *tbuf;       /* temporary buffer pointer */
    int        i,j;        /* Counters */
    herr_t		ret;		/* Generic return value		*/
    H5S_class_t ext_type;   /* Extent type */

    /* Output message about test being performed */
    MESSAGE(5, ("Testing 'All' Selection Functions\n"));

    /* Allocate write & read buffers */
    wbuf = (uint8_t *)HDmalloc(sizeof(uint8_t) * SPACE2_DIM1 * SPACE2_DIM2);
    CHECK_PTR(wbuf, "HDmalloc");
    rbuf = (uint8_t *)HDcalloc(sizeof(uint8_t), (size_t)(SPACE3_DIM1 * SPACE3_DIM2));
    CHECK_PTR(rbuf, "HDcalloc");

    /* Initialize write buffer */
    for(i=0, tbuf=wbuf; i<SPACE2_DIM1; i++)
        for(j=0; j<SPACE2_DIM2; j++)
            *tbuf++=(uint8_t)((i*SPACE2_DIM2)+j);

    /* Create file */
    fid1 = H5Fcreate(FILENAME, H5F_ACC_TRUNC, H5P_DEFAULT, H5P_DEFAULT);
    CHECK(fid1, FAIL, "H5Fcreate");

    /* Create dataspace for dataset */
    sid1 = H5Screate_simple(SPACE3_RANK, dims1, NULL);
    CHECK(sid1, FAIL, "H5Screate_simple");

    /* Create dataspace for writing buffer */
    sid2 = H5Screate_simple(SPACE2_RANK, dims2, NULL);
    CHECK(sid2, FAIL, "H5Screate_simple");

    /* Verify extent type */
    ext_type = H5Sget_simple_extent_type(sid1);
    VERIFY(ext_type, H5S_SIMPLE, "H5Sget_simple_extent_type");

    /* Select entire 15x26 extent for disk dataset */
    ret = H5Sselect_all(sid1);
    CHECK(ret, FAIL, "H5Sselect_all");

    /* Select 15x26 hyperslab for memory dataset */
    start[0] = 15; start[1] = 0;
    stride[0] = 1; stride[1] = 1;
    count[0] = 15; count[1] = 26;
    block[0] = 1; block[1] = 1;
    ret = H5Sselect_hyperslab(sid2, H5S_SELECT_SET, start, stride, count, block);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Create a dataset */
    dataset = H5Dcreate2(fid1, SPACE3_NAME, H5T_NATIVE_UCHAR, sid1, H5P_DEFAULT, H5P_DEFAULT, H5P_DEFAULT);
    CHECK(dataset, FAIL, "H5Dcreate2");

    /* Write selection to disk */
    ret = H5Dwrite(dataset, H5T_NATIVE_UCHAR, sid2, sid1, xfer_plist, wbuf);
    CHECK(ret, FAIL, "H5Dwrite");

    /* Close memory dataspace */
    ret = H5Sclose(sid2);
    CHECK(ret, FAIL, "H5Sclose");

    /* Create dataspace for reading buffer */
    sid2 = H5Screate_simple(SPACE3_RANK, dims3, NULL);
    CHECK(sid2, FAIL, "H5Screate_simple");

    /* Select 15x26 hyperslab for reading memory dataset */
    start[0]=0; start[1]=0;
    stride[0]=1; stride[1]=1;
    count[0]=15; count[1]=26;
    block[0]=1; block[1]=1;
    ret = H5Sselect_hyperslab(sid2,H5S_SELECT_SET,start,stride,count,block);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Select no extent for disk dataset */
    ret = H5Sselect_none(sid1);
    CHECK(ret, FAIL, "H5Sselect_all");

    /* Read selection from disk (should fail with no selection defined) */
    ret=H5Dread(dataset,H5T_NATIVE_UCHAR,sid2,sid1,xfer_plist,rbuf);
    VERIFY(ret, FAIL, "H5Dread");

    /* Select entire 15x26 extent for disk dataset */
    ret = H5Sselect_all(sid1);
    CHECK(ret, FAIL, "H5Sselect_all");

    /* Read selection from disk (should work now) */
    ret=H5Dread(dataset,H5T_NATIVE_UCHAR,sid2,sid1,xfer_plist,rbuf);
    CHECK(ret, FAIL, "H5Dread");

    /* Check that the values match with a dataset iterator */
    tbuf=wbuf+(15*SPACE2_DIM2);
    ret = H5Diterate(rbuf,H5T_NATIVE_UCHAR,sid2,test_select_all_iter1,&tbuf);
    CHECK(ret, FAIL, "H5Diterate");

    /* A quick check to make certain that iterating through a "none" selection works */
    ret = H5Sselect_none(sid2);
    CHECK(ret, FAIL, "H5Sselect_all");
    ret = H5Diterate(rbuf,H5T_NATIVE_UCHAR,sid2,test_select_none_iter1,&tbuf);
    CHECK(ret, FAIL, "H5Diterate");

    /* Close memory dataspace */
    ret = H5Sclose(sid2);
    CHECK(ret, FAIL, "H5Sclose");

    /* Close disk dataspace */
    ret = H5Sclose(sid1);
    CHECK(ret, FAIL, "H5Sclose");

    /* Close Dataset */
    ret = H5Dclose(dataset);
    CHECK(ret, FAIL, "H5Dclose");

    /* Close file */
    ret = H5Fclose(fid1);
    CHECK(ret, FAIL, "H5Fclose");

    /* Free memory buffers */
    HDfree(wbuf);
    HDfree(rbuf);
}   /* test_select_all_hyper() */

/****************************************************************
**
**  test_select_combo(): Test basic H5S (dataspace) selection code.
**      Tests combinations of element and hyperslab selections between
**      dataspaces of various sizes and dimensionalities.
**
****************************************************************/
static void
test_select_combo(void)
{
    hid_t		fid1;		/* HDF5 File IDs		*/
    hid_t		dataset;	/* Dataset ID			*/
    hid_t		sid1,sid2;	/* Dataspace ID			*/
    hsize_t		dims1[] = {SPACE1_DIM1, SPACE1_DIM2, SPACE1_DIM3};
    hsize_t		dims2[] = {SPACE2_DIM1, SPACE2_DIM2};
    hsize_t		dims3[] = {SPACE3_DIM1, SPACE3_DIM2};
    hsize_t		coord1[POINT1_NPOINTS][SPACE1_RANK]; /* Coordinates for point selection */
    hsize_t		start[SPACE1_RANK];     /* Starting location of hyperslab */
    hsize_t		stride[SPACE1_RANK];    /* Stride of hyperslab */
    hsize_t		count[SPACE1_RANK];     /* Element count of hyperslab */
    hsize_t		block[SPACE1_RANK];     /* Block size of hyperslab */
    uint8_t    *wbuf,       /* buffer to write to disk */
               *rbuf,       /* buffer read from disk */
               *tbuf,       /* temporary buffer pointer */
               *tbuf2;      /* temporary buffer pointer */
    int        i,j;        /* Counters */
    herr_t		ret;		/* Generic return value		*/

    /* Output message about test being performed */
    MESSAGE(5, ("Testing Combination of Hyperslab & Element Selection Functions\n"));

    /* Allocate write & read buffers */
    wbuf = (uint8_t *)HDmalloc(sizeof(uint8_t) * SPACE2_DIM1 * SPACE2_DIM2);
    CHECK_PTR(wbuf, "HDmalloc");
    rbuf = (uint8_t *)HDcalloc(sizeof(uint8_t), (size_t)(SPACE3_DIM1 * SPACE3_DIM2));
    CHECK_PTR(rbuf, "HDcalloc");

    /* Initialize write buffer */
    for(i=0, tbuf=wbuf; i<SPACE2_DIM1; i++)
        for(j=0; j<SPACE2_DIM2; j++)
            *tbuf++=(uint8_t)((i*SPACE2_DIM2)+j);

    /* Create file */
    fid1 = H5Fcreate(FILENAME, H5F_ACC_TRUNC, H5P_DEFAULT, H5P_DEFAULT);
    CHECK(fid1, FAIL, "H5Fcreate");

    /* Create dataspace for dataset */
    sid1 = H5Screate_simple(SPACE1_RANK, dims1, NULL);
    CHECK(sid1, FAIL, "H5Screate_simple");

    /* Create dataspace for write buffer */
    sid2 = H5Screate_simple(SPACE2_RANK, dims2, NULL);
    CHECK(sid2, FAIL, "H5Screate_simple");

    /* Select sequence of ten points for disk dataset */
    coord1[0][0]=0; coord1[0][1]=10; coord1[0][2]= 5;
    coord1[1][0]=1; coord1[1][1]= 2; coord1[1][2]= 7;
    coord1[2][0]=2; coord1[2][1]= 4; coord1[2][2]= 9;
    coord1[3][0]=0; coord1[3][1]= 6; coord1[3][2]=11;
    coord1[4][0]=1; coord1[4][1]= 8; coord1[4][2]=13;
    coord1[5][0]=2; coord1[5][1]=12; coord1[5][2]= 0;
    coord1[6][0]=0; coord1[6][1]=14; coord1[6][2]= 2;
    coord1[7][0]=1; coord1[7][1]= 0; coord1[7][2]= 4;
    coord1[8][0]=2; coord1[8][1]= 1; coord1[8][2]= 6;
    coord1[9][0]=0; coord1[9][1]= 3; coord1[9][2]= 8;
    ret = H5Sselect_elements(sid1, H5S_SELECT_SET, (size_t)POINT1_NPOINTS, (const hsize_t *)coord1);
    CHECK(ret, FAIL, "H5Sselect_elements");

    /* Select 1x10 hyperslab for writing memory dataset */
    start[0]=0; start[1]=0;
    stride[0]=1; stride[1]=1;
    count[0]=1; count[1]=10;
    block[0]=1; block[1]=1;
    ret = H5Sselect_hyperslab(sid2,H5S_SELECT_SET,start,stride,count,block);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Create a dataset */
    dataset = H5Dcreate2(fid1, SPACE1_NAME, H5T_NATIVE_UCHAR, sid1, H5P_DEFAULT, H5P_DEFAULT, H5P_DEFAULT);
    CHECK(dataset, FAIL, "H5Dcreate2");

    /* Write selection to disk */
    ret = H5Dwrite(dataset, H5T_NATIVE_UCHAR, sid2, sid1, H5P_DEFAULT, wbuf);
    CHECK(ret, FAIL, "H5Dwrite");

    /* Close memory dataspace */
    ret = H5Sclose(sid2);
    CHECK(ret, FAIL, "H5Sclose");

    /* Create dataspace for reading buffer */
    sid2 = H5Screate_simple(SPACE3_RANK, dims3, NULL);
    CHECK(sid2, FAIL, "H5Screate_simple");

    /* Select 10x1 hyperslab for reading memory dataset */
    start[0]=0; start[1]=0;
    stride[0]=1; stride[1]=1;
    count[0]=10; count[1]=1;
    block[0]=1; block[1]=1;
    ret = H5Sselect_hyperslab(sid2,H5S_SELECT_SET,start,stride,count,block);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Read selection from disk */
    ret=H5Dread(dataset,H5T_NATIVE_UCHAR,sid2,sid1,H5P_DEFAULT,rbuf);
    CHECK(ret, FAIL, "H5Dread");

    /* Compare data read with data written out */
    for(i=0; i<POINT1_NPOINTS; i++) {
        tbuf=wbuf+i;
        tbuf2=rbuf+(i*SPACE3_DIM2);
        if(*tbuf!=*tbuf2)
            TestErrPrintf("element values don't match!, i=%d\n",i);
    } /* end for */

    /* Close memory dataspace */
    ret = H5Sclose(sid2);
    CHECK(ret, FAIL, "H5Sclose");

    /* Close disk dataspace */
    ret = H5Sclose(sid1);
    CHECK(ret, FAIL, "H5Sclose");

    /* Close Dataset */
    ret = H5Dclose(dataset);
    CHECK(ret, FAIL, "H5Dclose");

    /* Close file */
    ret = H5Fclose(fid1);
    CHECK(ret, FAIL, "H5Fclose");

    /* Free memory buffers */
    HDfree(wbuf);
    HDfree(rbuf);
}   /* test_select_combo() */

static int
compare_size_t(const void *s1, const void *s2)
{
    if(*(const size_t *)s1<*(const size_t *)s2)
        return(-1);
    else
        if(*(const size_t *)s1>*(const size_t *)s2)
            return(1);
        else
            return(0);
}

/****************************************************************
**
**  test_select_hyper_stride(): Test H5S (dataspace) selection code.
**      Tests strided hyperslabs of various sizes and dimensionalities.
**
****************************************************************/
static void
test_select_hyper_stride(hid_t xfer_plist)
{
    hid_t		fid1;		/* HDF5 File IDs		*/
    hid_t		dataset;	/* Dataset ID			*/
    hid_t		sid1,sid2;	/* Dataspace ID			*/
    hsize_t		dims1[] = {SPACE1_DIM1, SPACE1_DIM2, SPACE1_DIM3};
    hsize_t		dims2[] = {SPACE2_DIM1, SPACE2_DIM2};
    hsize_t		dims3[] = {SPACE3_DIM1, SPACE3_DIM2};
    hsize_t		start[SPACE1_RANK];     /* Starting location of hyperslab */
    hsize_t		stride[SPACE1_RANK];    /* Stride of hyperslab */
    hsize_t		count[SPACE1_RANK];     /* Element count of hyperslab */
    hsize_t		block[SPACE1_RANK];     /* Block size of hyperslab */
    uint16_t   *wbuf,       /* buffer to write to disk */
               *rbuf,       /* buffer read from disk */
               *tbuf,       /* temporary buffer pointer */
               *tbuf2;      /* temporary buffer pointer */
    size_t      loc1[72]={  /* Gruesomely ugly way to make certain hyperslab locations are checked correctly */
       27, 28, 29, 53, 54, 55, 79, 80, 81,   /* Block #1 */
       32, 33, 34, 58, 59, 60, 84, 85, 86,   /* Block #2 */
      157,158,159,183,184,185,209,210,211,   /* Block #3 */
      162,163,164,188,189,190,214,215,216,   /* Block #4 */
      287,288,289,313,314,315,339,340,341,   /* Block #5 */
      292,293,294,318,319,320,344,345,346,   /* Block #6 */
      417,418,419,443,444,445,469,470,471,   /* Block #7 */
      422,423,424,448,449,450,474,475,476,   /* Block #8 */
            };
    size_t      loc2[72]={
        0,  1,  2, 26, 27, 28,    /* Block #1 */
        4,  5,  6, 30, 31, 32,    /* Block #2 */
        8,  9, 10, 34, 35, 36,    /* Block #3 */
       12, 13, 14, 38, 39, 40,    /* Block #4 */
      104,105,106,130,131,132,    /* Block #5 */
      108,109,110,134,135,136,    /* Block #6 */
      112,113,114,138,139,140,    /* Block #7 */
      116,117,118,142,143,144,    /* Block #8 */
      208,209,210,234,235,236,    /* Block #9 */
      212,213,214,238,239,240,    /* Block #10 */
      216,217,218,242,243,244,    /* Block #11 */
      220,221,222,246,247,248,    /* Block #12 */
            };
    int        i,j;        /* Counters */
    herr_t		ret;		/* Generic return value		*/

    /* Output message about test being performed */
    MESSAGE(5, ("Testing Hyperslabs with Strides Functionality\n"));

    /* Allocate write & read buffers */
    wbuf = (uint16_t *)HDmalloc(sizeof(uint16_t) * SPACE2_DIM1 * SPACE2_DIM2);
    CHECK_PTR(wbuf, "HDmalloc");
    rbuf = (uint16_t *)HDcalloc(sizeof(uint16_t), (size_t)(SPACE3_DIM1 * SPACE3_DIM2));
    CHECK_PTR(rbuf, "HDcalloc");

    /* Initialize write buffer */
    for(i=0, tbuf=wbuf; i<SPACE2_DIM1; i++)
        for(j=0; j<SPACE2_DIM2; j++)
            *tbuf++=(uint16_t)((i*SPACE2_DIM2)+j);

    /* Create file */
    fid1 = H5Fcreate(FILENAME, H5F_ACC_TRUNC, H5P_DEFAULT, H5P_DEFAULT);
    CHECK(fid1, FAIL, "H5Fcreate");

    /* Create dataspace for dataset */
    sid1 = H5Screate_simple(SPACE1_RANK, dims1, NULL);
    CHECK(sid1, FAIL, "H5Screate_simple");

    /* Create dataspace for writing buffer */
    sid2 = H5Screate_simple(SPACE2_RANK, dims2, NULL);
    CHECK(sid2, FAIL, "H5Screate_simple");

    /* Select 2x3x3 count with a stride of 2x4x3 & 1x2x2 block hyperslab for disk dataset */
    start[0] = 0; start[1] = 0; start[2] = 0;
    stride[0] = 2; stride[1] = 4; stride[2] = 3;
    count[0] = 2; count[1] = 3; count[2] = 3;
    block[0] = 1; block[1] = 2; block[2] = 2;
    ret = H5Sselect_hyperslab(sid1, H5S_SELECT_SET, start, stride, count, block);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Select 4x2 count with a stride of 5x5 & 3x3 block hyperslab for memory dataset */
    start[0] = 1; start[1] = 1;
    stride[0] = 5; stride[1] = 5;
    count[0] = 4; count[1] = 2;
    block[0] = 3; block[1] = 3;
    ret = H5Sselect_hyperslab(sid2, H5S_SELECT_SET, start, stride, count, block);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Create a dataset */
    dataset = H5Dcreate2(fid1, SPACE2_NAME, H5T_STD_U16LE, sid1, H5P_DEFAULT, H5P_DEFAULT, H5P_DEFAULT);
    CHECK(dataset, FAIL, "H5Dcreate2");

    /* Write selection to disk */
    ret = H5Dwrite(dataset, H5T_NATIVE_USHORT, sid2, sid1, xfer_plist, wbuf);
    CHECK(ret, FAIL, "H5Dwrite");

    /* Close memory dataspace */
    ret = H5Sclose(sid2);
    CHECK(ret, FAIL, "H5Sclose");

    /* Create dataspace for reading buffer */
    sid2 = H5Screate_simple(SPACE3_RANK, dims3, NULL);
    CHECK(sid2, FAIL, "H5Screate_simple");

    /* Select 3x4 count with a stride of 4x4 & 2x3 block hyperslab for memory dataset */
    start[0]=0; start[1]=0;
    stride[0]=4; stride[1]=4;
    count[0]=3; count[1]=4;
    block[0]=2; block[1]=3;
    ret = H5Sselect_hyperslab(sid2,H5S_SELECT_SET,start,stride,count,block);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Read selection from disk */
    ret=H5Dread(dataset,H5T_NATIVE_USHORT,sid2,sid1,xfer_plist,rbuf);
    CHECK(ret, FAIL, "H5Dread");

    /* Sort the locations into the proper order */
    HDqsort(loc1, (size_t)72, sizeof(size_t), compare_size_t);
    HDqsort(loc2, (size_t)72, sizeof(size_t), compare_size_t);
    /* Compare data read with data written out */
    for(i=0; i<72; i++) {
        tbuf=wbuf+loc1[i];
        tbuf2=rbuf+loc2[i];
        if(*tbuf!=*tbuf2) {
            printf("%d: hyperslab values don't match!, loc1[%d]=%d, loc2[%d]=%d\n",__LINE__,i,(int)loc1[i],i,(int)loc2[i]);
            printf("wbuf=%p, tbuf=%p, rbuf=%p, tbuf2=%p\n",(void *)wbuf,(void *)tbuf,(void *)rbuf,(void *)tbuf2);
            TestErrPrintf("*tbuf=%u, *tbuf2=%u\n",(unsigned)*tbuf,(unsigned)*tbuf2);
        } /* end if */
    } /* end for */

    /* Close memory dataspace */
    ret = H5Sclose(sid2);
    CHECK(ret, FAIL, "H5Sclose");

    /* Close disk dataspace */
    ret = H5Sclose(sid1);
    CHECK(ret, FAIL, "H5Sclose");

    /* Close Dataset */
    ret = H5Dclose(dataset);
    CHECK(ret, FAIL, "H5Dclose");

    /* Close file */
    ret = H5Fclose(fid1);
    CHECK(ret, FAIL, "H5Fclose");

    /* Free memory buffers */
    HDfree(wbuf);
    HDfree(rbuf);
}   /* test_select_hyper_stride() */

/****************************************************************
**
**  test_select_hyper_contig(): Test H5S (dataspace) selection code.
**      Tests contiguous hyperslabs of various sizes and dimensionalities.
**
****************************************************************/
static void
test_select_hyper_contig(hid_t dset_type, hid_t xfer_plist)
{
    hid_t		fid1;		/* HDF5 File IDs		*/
    hid_t		dataset;	/* Dataset ID			*/
    hid_t		sid1,sid2;	/* Dataspace ID			*/
    hsize_t		dims2[] = {SPACE2_DIM2, SPACE2_DIM1};
    hsize_t		start[SPACE1_RANK];     /* Starting location of hyperslab */
    hsize_t		stride[SPACE1_RANK];    /* Stride of hyperslab */
    hsize_t		count[SPACE1_RANK];     /* Element count of hyperslab */
    hsize_t		block[SPACE1_RANK];     /* Block size of hyperslab */
    uint16_t   *wbuf,       /* buffer to write to disk */
               *rbuf,       /* buffer read from disk */
               *tbuf;       /* temporary buffer pointer */
    int        i,j;        /* Counters */
    herr_t		ret;		/* Generic return value		*/

    /* Output message about test being performed */
    MESSAGE(5, ("Testing Contiguous Hyperslabs Functionality\n"));

    /* Allocate write & read buffers */
    wbuf = (uint16_t *)HDmalloc(sizeof(uint16_t) * SPACE2_DIM1 * SPACE2_DIM2);
    CHECK_PTR(wbuf, "HDmalloc");
    rbuf = (uint16_t *)HDcalloc(sizeof(uint16_t), (size_t)(SPACE2_DIM1 * SPACE2_DIM2));
    CHECK_PTR(rbuf, "HDcalloc");

    /* Initialize write buffer */
    for(i=0, tbuf=wbuf; i<SPACE2_DIM1; i++)
        for(j=0; j<SPACE2_DIM2; j++)
            *tbuf++=(uint16_t)((i*SPACE2_DIM2)+j);

    /* Create file */
    fid1 = H5Fcreate(FILENAME, H5F_ACC_TRUNC, H5P_DEFAULT, H5P_DEFAULT);
    CHECK(fid1, FAIL, "H5Fcreate");

    /* Create dataspace for dataset */
    sid1 = H5Screate_simple(SPACE2_RANK, dims2, NULL);
    CHECK(sid1, FAIL, "H5Screate_simple");

    /* Create dataspace for writing buffer */
    sid2 = H5Screate_simple(SPACE2_RANK, dims2, NULL);
    CHECK(sid2, FAIL, "H5Screate_simple");

    /* Select 12x10 count with a stride of 1x3 & 3x3 block hyperslab for disk dataset */
    start[0] = 0; start[1] = 0;
    stride[0] = 1; stride[1] = 3;
    count[0] = 12; count[1] = 10;
    block[0] = 1; block[1] = 3;
    ret = H5Sselect_hyperslab(sid1, H5S_SELECT_SET, start, stride, count, block);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Select 4x5 count with a stride of 3x6 & 3x6 block hyperslab for memory dataset */
    start[0] = 0; start[1] = 0;
    stride[0] = 3; stride[1] = 6;
    count[0] = 4; count[1] = 5;
    block[0] = 3; block[1] = 6;
    ret = H5Sselect_hyperslab(sid2, H5S_SELECT_SET, start, stride, count, block);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Create a dataset */
    dataset = H5Dcreate2(fid1, SPACE2_NAME, dset_type, sid1, H5P_DEFAULT, H5P_DEFAULT, H5P_DEFAULT);
    CHECK(dataset, FAIL, "H5Dcreate2");

    /* Write selection to disk */
    ret = H5Dwrite(dataset, H5T_NATIVE_USHORT, sid2, sid1, xfer_plist, wbuf);
    CHECK(ret, FAIL, "H5Dwrite");

    /* Close memory dataspace */
    ret = H5Sclose(sid2);
    CHECK(ret, FAIL, "H5Sclose");

    /* Create dataspace for reading buffer */
    sid2 = H5Screate_simple(SPACE2_RANK, dims2, NULL);
    CHECK(sid2, FAIL, "H5Screate_simple");

    /* Select 6x5 count with a stride of 2x6 & 2x6 block hyperslab for disk dataset */
    start[0] = 0; start[1] = 0;
    stride[0] = 2; stride[1] = 6;
    count[0] = 6; count[1] = 5;
    block[0] = 2; block[1] = 6;
    ret = H5Sselect_hyperslab(sid1, H5S_SELECT_SET, start, stride, count, block);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Select 3x15 count with a stride of 4x2 & 4x2 block hyperslab for memory dataset */
    start[0] = 0; start[1] = 0;
    stride[0] = 4; stride[1] = 2;
    count[0] = 3; count[1] = 15;
    block[0] = 4; block[1] = 2;
    ret = H5Sselect_hyperslab(sid2, H5S_SELECT_SET, start, stride, count, block);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Read selection from disk */
    ret = H5Dread(dataset, H5T_NATIVE_USHORT, sid2, sid1, xfer_plist, rbuf);
    CHECK(ret, FAIL, "H5Dread");

    /* Compare data read with data written out */
    if(HDmemcmp(rbuf, wbuf, sizeof(uint16_t) * 30 * 12))
        TestErrPrintf("hyperslab values don't match! Line=%d\n",__LINE__);

    /* Close memory dataspace */
    ret = H5Sclose(sid2);
    CHECK(ret, FAIL, "H5Sclose");

    /* Close disk dataspace */
    ret = H5Sclose(sid1);
    CHECK(ret, FAIL, "H5Sclose");

    /* Close Dataset */
    ret = H5Dclose(dataset);
    CHECK(ret, FAIL, "H5Dclose");

    /* Close file */
    ret = H5Fclose(fid1);
    CHECK(ret, FAIL, "H5Fclose");

    /* Free memory buffers */
    HDfree(wbuf);
    HDfree(rbuf);
}   /* test_select_hyper_contig() */

/****************************************************************
**
**  test_select_hyper_contig2(): Test H5S (dataspace) selection code.
**      Tests more contiguous hyperslabs of various sizes and dimensionalities.
**
****************************************************************/
static void
test_select_hyper_contig2(hid_t dset_type, hid_t xfer_plist)
{
    hid_t		fid1;		/* HDF5 File IDs		*/
    hid_t		dataset;	/* Dataset ID			*/
    hid_t		sid1,sid2;	/* Dataspace ID			*/
    hsize_t		dims2[] = {SPACE8_DIM4, SPACE8_DIM3, SPACE8_DIM2, SPACE8_DIM1};
    hsize_t	        start[SPACE8_RANK];     /* Starting location of hyperslab */
    hsize_t		count[SPACE8_RANK];     /* Element count of hyperslab */
    uint16_t   *wbuf,       /* buffer to write to disk */
               *rbuf,       /* buffer read from disk */
               *tbuf;       /* temporary buffer pointer */
    int        i,j,k,l;     /* Counters */
    herr_t		ret;		/* Generic return value		*/

    /* Output message about test being performed */
    MESSAGE(5, ("Testing More Contiguous Hyperslabs Functionality\n"));

    /* Allocate write & read buffers */
    wbuf = (uint16_t *)HDmalloc(sizeof(uint16_t) * SPACE8_DIM1 * SPACE8_DIM2 * SPACE8_DIM3 * SPACE8_DIM4);
    CHECK_PTR(wbuf, "HDmalloc");
    rbuf = (uint16_t *)HDcalloc(sizeof(uint16_t), (size_t)(SPACE8_DIM1 * SPACE8_DIM2 * SPACE8_DIM3 * SPACE8_DIM4));
    CHECK_PTR(rbuf, "HDcalloc");

    /* Initialize write buffer */
    for(i=0, tbuf=wbuf; i<SPACE8_DIM1; i++)
        for(j=0; j<SPACE8_DIM2; j++)
            for(k=0; k<SPACE8_DIM3; k++)
                for(l=0; l<SPACE8_DIM4; l++)
                    *tbuf++=(uint16_t)((i*SPACE8_DIM2)+j);

    /* Create file */
    fid1 = H5Fcreate(FILENAME, H5F_ACC_TRUNC, H5P_DEFAULT, H5P_DEFAULT);
    CHECK(fid1, FAIL, "H5Fcreate");

    /* Create dataspace for dataset */
    sid1 = H5Screate_simple(SPACE8_RANK, dims2, NULL);
    CHECK(sid1, FAIL, "H5Screate_simple");

    /* Create dataspace for writing buffer */
    sid2 = H5Screate_simple(SPACE8_RANK, dims2, NULL);
    CHECK(sid2, FAIL, "H5Screate_simple");

    /* Select contiguous hyperslab for disk dataset */
    start[0]=0; start[1]=0; start[2]=0; start[3]=0;
    count[0]=2; count[1]=SPACE8_DIM3; count[2]=SPACE8_DIM2; count[3]=SPACE8_DIM1;
    ret = H5Sselect_hyperslab(sid1,H5S_SELECT_SET,start,NULL,count,NULL);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Select contiguous hyperslab in memory */
    start[0]=0; start[1]=0; start[2]=0; start[3]=0;
    count[0]=2; count[1]=SPACE8_DIM3; count[2]=SPACE8_DIM2; count[3]=SPACE8_DIM1;
    ret = H5Sselect_hyperslab(sid2, H5S_SELECT_SET, start, NULL, count, NULL);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Create a dataset */
    dataset = H5Dcreate2(fid1, SPACE8_NAME, dset_type, sid1, H5P_DEFAULT, H5P_DEFAULT, H5P_DEFAULT);
    CHECK(dataset, FAIL, "H5Dcreate2");

    /* Write selection to disk */
    ret = H5Dwrite(dataset, H5T_NATIVE_USHORT, sid2, sid1, xfer_plist, wbuf);
    CHECK(ret, FAIL, "H5Dwrite");

    /* Close memory dataspace */
    ret = H5Sclose(sid2);
    CHECK(ret, FAIL, "H5Sclose");

    /* Create dataspace for reading buffer */
    sid2 = H5Screate_simple(SPACE8_RANK, dims2, NULL);
    CHECK(sid2, FAIL, "H5Screate_simple");

    /* Select contiguous hyperslab in memory */
    start[0]=0; start[1]=0; start[2]=0; start[3]=0;
    count[0]=2; count[1]=SPACE8_DIM3; count[2]=SPACE8_DIM2; count[3]=SPACE8_DIM1;
    ret = H5Sselect_hyperslab(sid1,H5S_SELECT_SET,start,NULL,count,NULL);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Select contiguous hyperslab in memory */
    start[0]=0; start[1]=0; start[2]=0; start[3]=0;
    count[0]=2; count[1]=SPACE8_DIM3; count[2]=SPACE8_DIM2; count[3]=SPACE8_DIM1;
    ret = H5Sselect_hyperslab(sid2,H5S_SELECT_SET,start,NULL,count,NULL);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Read selection from disk */
    ret=H5Dread(dataset,H5T_NATIVE_USHORT,sid2,sid1,xfer_plist,rbuf);
    CHECK(ret, FAIL, "H5Dread");

    /* Compare data read with data written out */
    if(HDmemcmp(rbuf,wbuf,sizeof(uint16_t)*2*SPACE8_DIM3*SPACE8_DIM2*SPACE8_DIM1))
        TestErrPrintf("Error: hyperslab values don't match!\n");

    /* Close memory dataspace */
    ret = H5Sclose(sid2);
    CHECK(ret, FAIL, "H5Sclose");

    /* Close disk dataspace */
    ret = H5Sclose(sid1);
    CHECK(ret, FAIL, "H5Sclose");

    /* Close Dataset */
    ret = H5Dclose(dataset);
    CHECK(ret, FAIL, "H5Dclose");

    /* Close file */
    ret = H5Fclose(fid1);
    CHECK(ret, FAIL, "H5Fclose");

    /* Free memory buffers */
    HDfree(wbuf);
    HDfree(rbuf);
}   /* test_select_hyper_contig2() */

/****************************************************************
**
**  test_select_hyper_contig3(): Test H5S (dataspace) selection code.
**      Tests contiguous hyperslabs of various sizes and dimensionalities.
**  This test uses a hyperslab that is contiguous in the lowest dimension,
**  not contiguous in a dimension, then has a selection across the entire next
**  dimension (which should be "flattened" out also).
**
****************************************************************/
static void
test_select_hyper_contig3(hid_t dset_type, hid_t xfer_plist)
{
    hid_t		fid1;		/* HDF5 File IDs		*/
    hid_t		dataset;	/* Dataset ID			*/
    hid_t		sid1,sid2;	/* Dataspace ID			*/
    hsize_t		dims2[] = {SPACE8_DIM4, SPACE8_DIM3, SPACE8_DIM2, SPACE8_DIM1};
    hsize_t	        start[SPACE8_RANK];     /* Starting location of hyperslab */
    hsize_t		count[SPACE8_RANK];     /* Element count of hyperslab */
    uint16_t   *wbuf,           /* Buffer to write to disk */
               *rbuf,           /* Buffer read from disk */
               *tbuf, *tbuf2;   /* Temporary buffer pointers */
    unsigned   i,j,k,l;     /* Counters */
    herr_t		ret;		/* Generic return value		*/

    /* Output message about test being performed */
    MESSAGE(5, ("Testing Yet More Contiguous Hyperslabs Functionality\n"));

    /* Allocate write & read buffers */
    wbuf = (uint16_t *)HDmalloc(sizeof(uint16_t) * SPACE8_DIM1 * SPACE8_DIM2 * SPACE8_DIM3 * SPACE8_DIM4);
    CHECK_PTR(wbuf, "HDmalloc");
    rbuf = (uint16_t *)HDcalloc(sizeof(uint16_t), (size_t)(SPACE8_DIM1 * SPACE8_DIM2 * SPACE8_DIM3 * SPACE8_DIM4));
    CHECK_PTR(rbuf, "HDcalloc");

    /* Initialize write buffer */
    for(i=0, tbuf=wbuf; i<SPACE8_DIM4; i++)
        for(j=0; j<SPACE8_DIM3; j++)
            for(k=0; k<SPACE8_DIM2; k++)
                for(l=0; l<SPACE8_DIM1; l++)
                    *tbuf++=(uint16_t)((k*SPACE8_DIM2)+l);

    /* Create file */
    fid1 = H5Fcreate(FILENAME, H5F_ACC_TRUNC, H5P_DEFAULT, H5P_DEFAULT);
    CHECK(fid1, FAIL, "H5Fcreate");

    /* Create dataspace for dataset */
    sid1 = H5Screate_simple(SPACE8_RANK, dims2, NULL);
    CHECK(sid1, FAIL, "H5Screate_simple");

    /* Create dataspace for writing buffer */
    sid2 = H5Screate_simple(SPACE8_RANK, dims2, NULL);
    CHECK(sid2, FAIL, "H5Screate_simple");

    /* Select semi-contiguous hyperslab for disk dataset */
    start[0] = 0; start[1] = 0; start[2] = SPACE8_DIM2/2; start[3] = 0;
    count[0] = 2; count[1] = SPACE8_DIM3; count[2] = SPACE8_DIM2 / 2; count[3] = SPACE8_DIM1;
    ret = H5Sselect_hyperslab(sid1, H5S_SELECT_SET, start, NULL, count, NULL);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Select semi-contiguous hyperslab in memory */
    start[0] = 0; start[1] = 0; start[2] = SPACE8_DIM2 / 2; start[3] = 0;
    count[0] = 2; count[1] = SPACE8_DIM3; count[2] = SPACE8_DIM2 / 2; count[3] = SPACE8_DIM1;
    ret = H5Sselect_hyperslab(sid2, H5S_SELECT_SET, start, NULL, count, NULL);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Create a dataset */
    dataset = H5Dcreate2(fid1, SPACE8_NAME, dset_type, sid1, H5P_DEFAULT, H5P_DEFAULT, H5P_DEFAULT);
    CHECK(dataset, FAIL, "H5Dcreate2");

    /* Write selection to disk */
    ret = H5Dwrite(dataset, H5T_NATIVE_USHORT, sid2, sid1, xfer_plist, wbuf);
    CHECK(ret, FAIL, "H5Dwrite");

    /* Close memory dataspace */
    ret = H5Sclose(sid2);
    CHECK(ret, FAIL, "H5Sclose");

    /* Create dataspace for reading buffer */
    sid2 = H5Screate_simple(SPACE8_RANK, dims2, NULL);
    CHECK(sid2, FAIL, "H5Screate_simple");

    /* Select semi-contiguous hyperslab in memory */
    start[0]=0; start[1]=0; start[2]=SPACE8_DIM2/2; start[3]=0;
    count[0]=2; count[1]=SPACE8_DIM3; count[2]=SPACE8_DIM2/2; count[3]=SPACE8_DIM1;
    ret = H5Sselect_hyperslab(sid1,H5S_SELECT_SET,start,NULL,count,NULL);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Select semi-contiguous hyperslab in memory */
    start[0]=0; start[1]=0; start[2]=SPACE8_DIM2/2; start[3]=0;
    count[0]=2; count[1]=SPACE8_DIM3; count[2]=SPACE8_DIM2/2; count[3]=SPACE8_DIM1;
    ret = H5Sselect_hyperslab(sid2,H5S_SELECT_SET,start,NULL,count,NULL);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");

    /* Read selection from disk */
    ret=H5Dread(dataset,H5T_NATIVE_USHORT,sid2,sid1,xfer_plist,rbuf);
    CHECK(ret, FAIL, "H5Dread");

    /* Compare data read with data written out */
    for(i=0, tbuf=wbuf,tbuf2=rbuf; i<SPACE8_DIM4; i++)
        for(j=0; j<SPACE8_DIM3; j++)
            for(k=0; k<SPACE8_DIM2; k++)
                for(l=0; l<SPACE8_DIM1; l++,tbuf++,tbuf2++)
                    if( (i>=start[0] && i<(start[0]+count[0])) &&
                            (j>=start[1] && j<(start[1]+count[1])) &&
                            (k>=start[2] && k<(start[2]+count[2])) &&
                            (l>=start[3] && l<(start[3]+count[3])) ) {
                        if(*tbuf!=*tbuf2) {
                            printf("Error: hyperslab values don't match!\n");
                            TestErrPrintf("Line: %d, i=%u, j=%u, k=%u, l=%u, *tbuf=%u,*tbuf2=%u\n",__LINE__,i,j,k,l,(unsigned)*tbuf,(unsigned)*tbuf2);
                        } /* end if */
                    } /* end if */
                    else {
                        if(*tbuf2!=0) {
                            printf("Error: invalid data in read buffer!\n");
                            TestErrPrintf("Line: %d, i=%u, j=%u, k=%u, l=%u, *tbuf=%u,*tbuf2=%u\n",__LINE__,i,j,k,l,(unsigned)*tbuf,(unsigned)*tbuf2);
                        } /* end if */
                    } /* end else */

    /* Close memory dataspace */
    ret = H5Sclose(sid2);
    CHECK(ret, FAIL, "H5Sclose");

    /* Close disk dataspace */
    ret = H5Sclose(sid1);
    CHECK(ret, FAIL, "H5Sclose");

    /* Close Dataset */
    ret = H5Dclose(dataset);
    CHECK(ret, FAIL, "H5Dclose");

    /* Close file */
    ret = H5Fclose(fid1);
    CHECK(ret, FAIL, "H5Fclose");

    /* Free memory buffers */
    HDfree(wbuf);
    HDfree(rbuf);
}   /* test_select_hyper_contig3() */


/****************************************************************
**
**  verify_select_hyper_contig_dr__run_test(): Verify data from
**      test_select_hyper_contig_dr__run_test()
**
****************************************************************/
static void
verify_select_hyper_contig_dr__run_test(const uint16_t *cube_buf,
    size_t cube_size, unsigned edge_size, unsigned cube_rank)
{
    const uint16_t     *cube_ptr;           /* Pointer into the cube buffer */
    uint16_t		expected_value;     /* Expected value in dataset */
    unsigned            i, j, k, l, m;      /* Local index variables */
    size_t              s;                  /* Local index variable */
    hbool_t		mis_match;          /* Flag to indicate mis-match in expected value */

    HDassert(cube_buf);
    HDassert(cube_size > 0);

    expected_value = 0;
    mis_match = FALSE;
    cube_ptr = cube_buf;
    s = 0;
    i = 0;
    do {
        j = 0;
        do {
            k = 0;
            do {
                l = 0;
                do {
                    m = 0;
                    do {
                        /* Sanity check */
                        HDassert(s < cube_size);

                        /* Check for correct value */
                        if(*cube_ptr != expected_value)
                            mis_match = TRUE;

                        /* Advance to next element */
                        cube_ptr++;
                        expected_value++;
                        s++;
                        m++;
                    } while((cube_rank > 0) && (m < edge_size));
                    l++;
                } while((cube_rank > 1) && (l < edge_size));
                k++;
            } while((cube_rank > 2) && (k < edge_size));
            j++;
        } while((cube_rank > 3) && (j < edge_size));
        i++;
    } while((cube_rank > 4) && (i < edge_size));
    if(mis_match)
        TestErrPrintf("Initial cube data don't match! Line = %d\n", __LINE__);
}   /* verify_select_hyper_contig_dr__run_test() */


/****************************************************************
**
**  test_select_hyper_contig_dr__run_test(): Test H5S (dataspace)
**	selection code with contiguous source and target having
**	different ranks but the same shape.  We have already
**	tested H5S_shape_same in isolation, so now we try to do
**	I/O.
**
****************************************************************/
static void
test_select_hyper_contig_dr__run_test(int test_num, const uint16_t *cube_buf,
    const uint16_t *zero_buf, unsigned edge_size, unsigned chunk_edge_size,
    unsigned small_rank, unsigned large_rank, hid_t dset_type, hid_t xfer_plist)
{
    hbool_t		mis_match;              /* Flag indicating a value read in wasn't what was expected */
    hid_t               fapl;                   /* File access property list */
    hid_t		fid1;		        /* File ID */
    hid_t		small_cube_sid;         /* Dataspace ID for small cube in memory & file */
    hid_t		mem_large_cube_sid;     /* Dataspace ID for large cube in memory */
    hid_t		file_large_cube_sid;    /* Dataspace ID for large cube in file */
    hid_t		small_cube_dcpl_id = H5P_DEFAULT;   /* DCPL for small cube dataset */
    hid_t		large_cube_dcpl_id = H5P_DEFAULT;   /* DCPL for large cube dataset */
    hid_t		small_cube_dataset;	/* Dataset ID */
    hid_t		large_cube_dataset;	/* Dataset ID */
    size_t              start_index;            /* Offset within buffer to begin inspecting */
    size_t              stop_index;             /* Offset within buffer to end inspecting */
    uint16_t		expected_value;         /* Expected value in dataset */
    uint16_t	      * small_cube_buf_1;       /* Buffer for small cube data */
    uint16_t	      * large_cube_buf_1;       /* Buffer for large cube data */
    uint16_t	      * ptr_1;                  /* Temporary pointer into cube data */
    hsize_t		dims[SS_DR_MAX_RANK];   /* Dataspace dimensions */
    hsize_t     	start[SS_DR_MAX_RANK];  /* Shared hyperslab start offset */
    hsize_t     	stride[SS_DR_MAX_RANK]; /* Shared hyperslab stride */
    hsize_t     	count[SS_DR_MAX_RANK];  /* Shared hyperslab count */
    hsize_t     	block[SS_DR_MAX_RANK];  /* Shared hyperslab block size */
    hsize_t	      * start_ptr;          /* Actual hyperslab start offset */
    hsize_t	      * stride_ptr;         /* Actual hyperslab stride */
    hsize_t	      * count_ptr;          /* Actual hyperslab count */
    hsize_t	      * block_ptr;          /* Actual hyperslab block size */
    size_t              small_cube_size;    /* Number of elements in small cube */
    size_t              large_cube_size;    /* Number of elements in large cube */
    unsigned            u, v, w, x;     /* Local index variables */
    size_t              s;              /* Local index variable */
    htri_t      	check;          /* Shape comparison return value */
    herr_t      	ret;            /* Generic return value */

    MESSAGE(7, ("\tn-cube slice through m-cube I/O test %d.\n", test_num));
    MESSAGE(7, ("\tranks = %u/%u, edge_size = %u, chunk_edge_size = %u.\n", small_rank, large_rank, edge_size, chunk_edge_size));

    HDassert(edge_size >= 6);
    HDassert(edge_size >= chunk_edge_size);
    HDassert((chunk_edge_size == 0) || (chunk_edge_size >= 3));
    HDassert(small_rank > 0);
    HDassert(small_rank < large_rank);
    HDassert(large_rank <= SS_DR_MAX_RANK);

    /* Compute cube sizes */
    small_cube_size = large_cube_size = (size_t)1;
    for(u = 0; u < large_rank; u++) {
        if(u < small_rank)
            small_cube_size *= (size_t)edge_size;

        large_cube_size *= (size_t)edge_size;
    } /* end for */

    HDassert(large_cube_size < (size_t)UINT_MAX);

    /* set up the start, stride, count, and block pointers */
    start_ptr  = &(start[SS_DR_MAX_RANK - large_rank]);
    stride_ptr = &(stride[SS_DR_MAX_RANK - large_rank]);
    count_ptr  = &(count[SS_DR_MAX_RANK - large_rank]);
    block_ptr  = &(block[SS_DR_MAX_RANK - large_rank]);

    /* Allocate buffers */
    small_cube_buf_1 = (uint16_t *)HDcalloc(sizeof(uint16_t), small_cube_size);
    CHECK_PTR(small_cube_buf_1, "HDcalloc");
    large_cube_buf_1 = (uint16_t *)HDcalloc(sizeof(uint16_t), large_cube_size);
    CHECK_PTR(large_cube_buf_1, "HDcalloc");

    /* Create a dataset transfer property list */
    fapl = H5Pcreate(H5P_FILE_ACCESS);
    CHECK(fapl, FAIL, "H5Pcreate");

    /* Use the 'core' VFD for this test */
    ret = H5Pset_fapl_core(fapl, (size_t)(1024 * 1024), FALSE);
    CHECK(ret, FAIL, "H5Pset_fapl_core");

    /* Create file */
    fid1 = H5Fcreate(FILENAME, H5F_ACC_TRUNC, H5P_DEFAULT, fapl);
    CHECK(fid1, FAIL, "H5Fcreate");

    /* Close file access property list */
    ret = H5Pclose(fapl);
    CHECK(ret, FAIL, "H5Pclose");

    /* setup dims: */
    dims[0] = dims[1] = dims[2] = dims[3] = dims[4] = (hsize_t)edge_size;

    /* Create small cube dataspaces */
    small_cube_sid = H5Screate_simple((int)small_rank, dims, NULL);
    CHECK(small_cube_sid, FAIL, "H5Screate_simple");

    /* Create large cube dataspace */
    mem_large_cube_sid = H5Screate_simple((int)large_rank, dims, NULL);
    CHECK(mem_large_cube_sid, FAIL, "H5Screate_simple");
    file_large_cube_sid = H5Screate_simple((int)large_rank, dims, NULL);
    CHECK(file_large_cube_sid, FAIL, "H5Screate_simple");

    /* if chunk edge size is greater than zero, set up the small and
     * large data set creation property lists to specify chunked
     * datasets.
     */
    if(chunk_edge_size > 0) {
        hsize_t		chunk_dims[SS_DR_MAX_RANK];     /* Chunk dimensions */

        chunk_dims[0] = chunk_dims[1] =
		chunk_dims[2] = chunk_dims[3] = chunk_dims[4] = (hsize_t)chunk_edge_size;

        small_cube_dcpl_id = H5Pcreate(H5P_DATASET_CREATE);
        CHECK(small_cube_dcpl_id, FAIL, "H5Pcreate");

        ret = H5Pset_layout(small_cube_dcpl_id, H5D_CHUNKED);
        CHECK(ret, FAIL, "H5Pset_layout");

        ret = H5Pset_chunk(small_cube_dcpl_id, (int)small_rank, chunk_dims);
        CHECK(ret, FAIL, "H5Pset_chunk");


        large_cube_dcpl_id = H5Pcreate(H5P_DATASET_CREATE);
        CHECK(large_cube_dcpl_id, FAIL, "H5Pcreate");

        ret = H5Pset_layout(large_cube_dcpl_id, H5D_CHUNKED);
        CHECK(ret, FAIL, "H5Pset_layout");

        ret = H5Pset_chunk(large_cube_dcpl_id, (int)large_rank, chunk_dims);
        CHECK(ret, FAIL, "H5Pset_chunk");
    } /* end if */

    /* create the small cube dataset */
    small_cube_dataset = H5Dcreate2(fid1, "small_cube_dataset", dset_type,
            small_cube_sid, H5P_DEFAULT, small_cube_dcpl_id, H5P_DEFAULT);
    CHECK(small_cube_dataset, FAIL, "H5Dcreate2");

    /* Close non-default small dataset DCPL */
    if(small_cube_dcpl_id != H5P_DEFAULT) {
        ret = H5Pclose(small_cube_dcpl_id);
        CHECK(ret, FAIL, "H5Pclose");
    } /* end if */

    /* create the large cube dataset */
    large_cube_dataset = H5Dcreate2(fid1, "large_cube_dataset", dset_type,
            file_large_cube_sid, H5P_DEFAULT, large_cube_dcpl_id, H5P_DEFAULT);
    CHECK(large_cube_dataset, FAIL, "H5Dcreate2");

    /* Close non-default large dataset DCPL */
    if(large_cube_dcpl_id != H5P_DEFAULT) {
        ret = H5Pclose(large_cube_dcpl_id);
        CHECK(ret, FAIL, "H5Pclose");
    } /* end if */


    /* write initial data to the on disk datasets */
    ret = H5Dwrite(small_cube_dataset, H5T_NATIVE_UINT16, small_cube_sid,
            small_cube_sid, xfer_plist, cube_buf);
    CHECK(ret, FAIL, "H5Dwrite");

    ret = H5Dwrite(large_cube_dataset, H5T_NATIVE_UINT16, mem_large_cube_sid,
            file_large_cube_sid, xfer_plist, cube_buf);
    CHECK(ret, FAIL, "H5Dwrite");

    /* read initial data from disk and verify that it is as expected. */
    ret = H5Dread(small_cube_dataset, H5T_NATIVE_UINT16, small_cube_sid,
        small_cube_sid, xfer_plist, small_cube_buf_1);
    CHECK(ret, FAIL, "H5Dread");

    /* Check that the data is valid */
    verify_select_hyper_contig_dr__run_test(small_cube_buf_1, small_cube_size,
        edge_size, small_rank);

    ret = H5Dread(large_cube_dataset, H5T_NATIVE_UINT16, mem_large_cube_sid,
        file_large_cube_sid, xfer_plist, large_cube_buf_1);
    CHECK(ret, FAIL, "H5Dread");

    /* Check that the data is valid */
    verify_select_hyper_contig_dr__run_test(large_cube_buf_1, large_cube_size,
        edge_size, large_rank);


    /* first, verify that we can read from disk correctly using selections
     * of different rank that H5S_select_shape_same() views as being of the
     * same shape.
     *
     * Start by reading small_rank-D slice from the on disk large cube, and
     * verifying that the data read is correct.  Verify that H5S_select_shape_same()
     * returns true on the memory and file selections.
     */


    /* set up start, stride, count, and block -- note that we will
     * change start[] so as to read slices of the large cube.
     */
    for(u = 0; u < SS_DR_MAX_RANK; u++) {
        start[u] = 0;
        stride[u] = 1;
        count[u] = 1;
        if((SS_DR_MAX_RANK - u) > small_rank)
            block[u] = 1;
        else
            block[u] = (hsize_t)edge_size;
    } /* end for */

    u = 0;
    do {
        v = 0;
        do {
            w = 0;
            do {
                x = 0;
                do {
                    /* we know that small_rank >= 1 and that large_rank > small_rank
                     * by the assertions at the head of this function.  Thus no
                     * need for another inner loop.
                     */
                    start[0] = (hsize_t)u;
                    start[1] = (hsize_t)v;
                    start[2] = (hsize_t)w;
                    start[3] = (hsize_t)x;
                    start[4] = (hsize_t)0;

                    ret = H5Sselect_hyperslab(file_large_cube_sid,
                                              H5S_SELECT_SET,
                                              start_ptr,
                                              stride_ptr,
                                              count_ptr,
                                              block_ptr);
                    CHECK(ret, FAIL, "H5Sselect_hyperslab");

                    /* verify that H5S_select_shape_same() reports the two
                     * selections as having the same shape.
                     */
                    check = H5S__select_shape_same_test(small_cube_sid,
                                                       file_large_cube_sid);
                    VERIFY(check, TRUE, "H5S__select_shape_same_test");

                    /* Read selection from disk */
                    ret = H5Dread(large_cube_dataset,
                                  H5T_NATIVE_UINT16,
                                  small_cube_sid,
                                  file_large_cube_sid,
                                  xfer_plist,
                                  small_cube_buf_1);
                    CHECK(ret, FAIL, "H5Dread");

                    /* verify that expected data is retrieved */
                    mis_match = FALSE;
                    ptr_1 = small_cube_buf_1;
                    expected_value = (uint16_t)((u * edge_size * edge_size * edge_size * edge_size) +
                                     (v * edge_size * edge_size * edge_size) +
                                     (w * edge_size * edge_size) +
                                     (x * edge_size));
                    for(s = 0; s < small_cube_size; s++ ) {
                        if(*ptr_1 != expected_value )
                            mis_match = TRUE;
                        ptr_1++;
                        expected_value++;
                    } /* end for */
                    if(mis_match)
                        TestErrPrintf("small cube read from largecube has bad data! Line=%d\n",__LINE__);

                    x++;
                } while((large_rank >= 2) && (small_rank <= 1) && (x < edge_size));
                w++;
            } while((large_rank >= 3) && (small_rank <= 2) && (w < edge_size));
            v++;
        } while((large_rank >= 4) && (small_rank <= 3) && (v < edge_size));
        u++;
    } while((large_rank >= 5) && (small_rank <= 4) && (u < edge_size));


    /* similarly, read the on disk small cube into slices through the in memory
     * large cube, and verify that the correct data (and only the correct data)
     * is read.
     */

    /* zero out the in-memory large cube */
    HDmemset(large_cube_buf_1, 0, large_cube_size * sizeof(uint16_t));

    u = 0;
    do {
        v = 0;
        do {
            w = 0;
            do {
                x = 0;
                do {
                    /* we know that small_rank >= 1 and that large_rank > small_rank
                     * by the assertions at the head of this function.  Thus no
                     * need for another inner loop.
                     */
                    start[0] = (hsize_t)u;
                    start[1] = (hsize_t)v;
                    start[2] = (hsize_t)w;
                    start[3] = (hsize_t)x;
                    start[4] = (hsize_t)0;

                    ret = H5Sselect_hyperslab(mem_large_cube_sid,
                                              H5S_SELECT_SET,
                                              start_ptr,
                                              stride_ptr,
                                              count_ptr,
                                              block_ptr);
                    CHECK(ret, FAIL, "H5Sselect_hyperslab");


                    /* verify that H5S_select_shape_same() reports the two
                     * selections as having the same shape.
                     */
                    check = H5S__select_shape_same_test(small_cube_sid,
                                                       mem_large_cube_sid);
                    VERIFY(check, TRUE, "H5S__select_shape_same_test");


                    /* Read selection from disk */
                    ret = H5Dread(small_cube_dataset,
                                  H5T_NATIVE_UINT16,
                                  mem_large_cube_sid,
                                  small_cube_sid,
                                  xfer_plist,
                                  large_cube_buf_1);
                    CHECK(ret, FAIL, "H5Dread");


                    /* verify that the expected data and only the
                     * expected data was read.
                     */
                    start_index = (u * edge_size * edge_size * edge_size * edge_size) +
                                  (v * edge_size * edge_size * edge_size) +
                                  (w * edge_size * edge_size) +
                                  (x * edge_size);
                    stop_index = start_index + small_cube_size - 1;

                    HDassert(start_index < stop_index);
                    HDassert(stop_index <= large_cube_size);

                    mis_match = FALSE;
                    ptr_1 = large_cube_buf_1;
                    expected_value = 0;
                    for(s = 0; s < start_index; s++) {
                        if(*ptr_1 != 0)
                            mis_match = TRUE;
                        ptr_1++;
                    } /* end for */
                    for(; s <= stop_index; s++) {
                        if(*ptr_1 != expected_value)
                            mis_match = TRUE;
                        expected_value++;
                        ptr_1++;
                    } /* end for */
                    for(; s < large_cube_size; s++) {
                        if(*ptr_1 != 0)
                            mis_match = TRUE;
                        ptr_1++;
                    } /* end for */
                    if(mis_match)
                        TestErrPrintf("large cube read from small cube has bad data! Line=%u\n", __LINE__);

                    /* Zero out the buffer for the next pass */
                    HDmemset(large_cube_buf_1 + start_index, 0, small_cube_size * sizeof(uint16_t));

                    x++;
                } while((large_rank >= 2) && (small_rank <= 1) && (x < edge_size));
                w++;
            } while((large_rank >= 3) && (small_rank <= 2) && (w < edge_size));
            v++;
        } while((large_rank >= 4) && (small_rank <= 3) && (v < edge_size));
        u++;
    } while((large_rank >= 5) && (small_rank <= 4) && (u < edge_size));


    /* now we go in the opposite direction, verifying that we can write
     * from memory to file using selections of different rank that
     * H5S_select_shape_same() views as being of the same shape.
     *
     * Start by writing small_rank D slices from the in memory large cube, to
     * the the on disk small cube dataset.  After each write, read the small
     * cube dataset back from disk, and verify that it contains the expected
     * data. Verify that H5S_select_shape_same() returns true on the
     * memory and file selections.
     */

    u = 0;
    do {
        v = 0;
        do {
            w = 0;
            do {
                x = 0;
                do {
                    /* we know that small_rank >= 1 and that large_rank > small_rank
                     * by the assertions at the head of this function.  Thus no
                     * need for another inner loop.
                     */

                    /* zero out the on disk small cube */
                    ret = H5Dwrite(small_cube_dataset,
                                   H5T_NATIVE_UINT16,
                                   small_cube_sid,
                                   small_cube_sid,
                                   xfer_plist,
                                   zero_buf);
                    CHECK(ret, FAIL, "H5Dwrite");

                    /* select the portion of the in memory large cube from which we
                     * are going to write data.
                     */
                    start[0] = (hsize_t)u;
                    start[1] = (hsize_t)v;
                    start[2] = (hsize_t)w;
                    start[3] = (hsize_t)x;
                    start[4] = (hsize_t)0;

                    ret = H5Sselect_hyperslab(mem_large_cube_sid,
                                              H5S_SELECT_SET,
                                              start_ptr,
                                              stride_ptr,
                                              count_ptr,
                                              block_ptr);
                    CHECK(ret, FAIL, "H5Sselect_hyperslab");


                    /* verify that H5S_select_shape_same() reports the in
                     * memory slice through the cube selection and the
                     * on disk full small cube selections as having the same shape.
                     */
                    check = H5S__select_shape_same_test(small_cube_sid,
                                                       mem_large_cube_sid);
                    VERIFY(check, TRUE, "H5S__select_shape_same_test");


	            /* write the slice from the in memory large cube to the on disk small cube */
                    ret = H5Dwrite(small_cube_dataset,
                                   H5T_NATIVE_UINT16,
                                   mem_large_cube_sid,
                                   small_cube_sid,
                                   xfer_plist,
                                   cube_buf);
                    CHECK(ret, FAIL, "H5Dwrite");


                    /* read the on disk small cube into memory */
                    ret = H5Dread(small_cube_dataset,
                                  H5T_NATIVE_UINT16,
                                  small_cube_sid,
                                  small_cube_sid,
                                  xfer_plist,
                                  small_cube_buf_1);
                    CHECK(ret, FAIL, "H5Dread");


                    /* verify that expected data is retrieved */
                    mis_match = FALSE;
                    ptr_1 = small_cube_buf_1;
                    expected_value = (uint16_t)((u * edge_size * edge_size * edge_size * edge_size) +
                                     (v * edge_size * edge_size * edge_size) +
                                     (w * edge_size * edge_size) +
                                     (x * edge_size));
                    for(s = 0; s < small_cube_size; s++) {
                        if(*ptr_1 != expected_value)
                            mis_match = TRUE;
                        expected_value++;
                        ptr_1++;
                    } /* end for */
                    if(mis_match )
                        TestErrPrintf("small cube data don't match! Line=%d\n",__LINE__);

                    x++;
                } while((large_rank >= 2) && (small_rank <= 1) && (x < edge_size));
                w++;
            } while((large_rank >= 3) && (small_rank <= 2) && (w < edge_size));
            v++;
        } while((large_rank >= 4) && (small_rank <= 3) && (v < edge_size));
        u++;
    } while((large_rank >= 5) && (small_rank <= 4) && (u < edge_size));


    /* Now write the contents of the in memory small cube to slices of
     * the on disk cube.  After each write, read the on disk cube
     * into memeory, and verify that it contains the expected
     * data.  Verify that H5S_select_shape_same() returns true on
     * the memory and file selections.
     */

    /* select the entire memory and file cube dataspaces */
    ret = H5Sselect_all(mem_large_cube_sid);
    CHECK(ret, FAIL, "H5Sselect_all");

    ret = H5Sselect_all(file_large_cube_sid);
    CHECK(ret, FAIL, "H5Sselect_all");

    u = 0;
    do {
        v = 0;
        do {
            w = 0;
            do {
                x = 0;
                do {
                    /* we know that small_rank >= 1 and that large_rank > small_rank
                     * by the assertions at the head of this function.  Thus no
                     * need for another inner loop.
                     */

                    /* zero out the on disk cube */
                    ret = H5Dwrite(large_cube_dataset,
                                   H5T_NATIVE_USHORT,
                                   mem_large_cube_sid,
                                   file_large_cube_sid,
                                   xfer_plist,
                                   zero_buf);
                    CHECK(ret, FAIL, "H5Dwrite");


                    /* select the portion of the in memory large cube to which we
                     * are going to write data.
                     */
                    start[0] = (hsize_t)u;
                    start[1] = (hsize_t)v;
                    start[2] = (hsize_t)w;
                    start[3] = (hsize_t)x;
                    start[4] = (hsize_t)0;

                    ret = H5Sselect_hyperslab(file_large_cube_sid,
                                              H5S_SELECT_SET,
                                              start_ptr,
                                              stride_ptr,
                                              count_ptr,
                                              block_ptr);
                    CHECK(ret, FAIL, "H5Sselect_hyperslab");


                    /* verify that H5S_select_shape_same() reports the in
                     * memory full selection of the small cube and the
                     * on disk slice through the large cube selection
                     * as having the same shape.
                     */
                    check = H5S__select_shape_same_test(small_cube_sid,
                                                       file_large_cube_sid);
                    VERIFY(check, TRUE, "H5S__select_shape_same_test");


	            /* write the cube from memory to the target slice of the disk cube */
                    ret = H5Dwrite(large_cube_dataset,
                                   H5T_NATIVE_UINT16,
                                   small_cube_sid,
                                   file_large_cube_sid,
                                   xfer_plist,
                                   cube_buf);
                    CHECK(ret, FAIL, "H5Dwrite");


                    /* read the on disk cube into memory */
                    ret = H5Sselect_all(file_large_cube_sid);
                    CHECK(ret, FAIL, "H5Sselect_all");

                    ret = H5Dread(large_cube_dataset,
                                  H5T_NATIVE_UINT16,
                                  mem_large_cube_sid,
                                  file_large_cube_sid,
                                  xfer_plist,
                                  large_cube_buf_1);
                    CHECK(ret, FAIL, "H5Dread");


                    /* verify that the expected data and only the
                     * expected data was read.
                     */
                    start_index = (u * edge_size * edge_size * edge_size * edge_size) +
                                  (v * edge_size * edge_size * edge_size) +
                                  (w * edge_size * edge_size) +
                                  (x * edge_size);
                    stop_index = start_index + small_cube_size - 1;

                    HDassert(start_index < stop_index);
                    HDassert(stop_index <= large_cube_size);

                    mis_match = FALSE;
                    ptr_1 = large_cube_buf_1;
                    expected_value = 0;
                    for(s = 0; s < start_index; s++) {
                        if(*ptr_1 != 0)
                            mis_match = TRUE;
                        ptr_1++;
                    } /* end for */
                    for(; s <= stop_index; s++) {
                        if(*ptr_1 != expected_value)
                            mis_match = TRUE;
                        expected_value++;
                        ptr_1++;
                    } /* end for */
                    for(; s < large_cube_size; s++) {
                        if(*ptr_1 != 0)
                            mis_match = TRUE;
                        ptr_1++;
                    } /* end for */
                    if(mis_match)
                        TestErrPrintf("large cube written from small cube has bad data! Line=%d\n", __LINE__);

                    x++;
                } while((large_rank >= 2) && (small_rank <= 1) && (x < edge_size));
                w++;
            } while((large_rank >= 3) && (small_rank <= 2) && (w < edge_size));
            v++;
        } while((large_rank >= 4) && (small_rank <= 3) && (v < edge_size));
        u++;
    } while((large_rank >= 5) && (small_rank <= 4) && (u < edge_size));

    /* Close memory dataspaces */
    ret = H5Sclose(small_cube_sid);
    CHECK(ret, FAIL, "H5Sclose");

    ret = H5Sclose(mem_large_cube_sid);
    CHECK(ret, FAIL, "H5Sclose");


    /* Close disk dataspace */
    ret = H5Sclose(file_large_cube_sid);
    CHECK(ret, FAIL, "H5Sclose");


    /* Close Datasets */
    ret = H5Dclose(small_cube_dataset);
    CHECK(ret, FAIL, "H5Dclose");

    ret = H5Dclose(large_cube_dataset);
    CHECK(ret, FAIL, "H5Dclose");

    /* Close file */
    ret = H5Fclose(fid1);
    CHECK(ret, FAIL, "H5Fclose");

    /* Free memory buffers */
    HDfree(small_cube_buf_1);
    HDfree(large_cube_buf_1);

}   /* test_select_hyper_contig_dr__run_test() */


/****************************************************************
**
**  test_select_hyper_contig_dr(): Test H5S (dataspace)
**	selection code with contiguous source and target having
**	different ranks but the same shape.  We have already
**	tested H5S_shape_same in isolation, so now we try to do
**	I/O.
**
****************************************************************/
static void
test_select_hyper_contig_dr(hid_t dset_type, hid_t xfer_plist)
{
    int test_num = 0;
    unsigned chunk_edge_size;   /* Size of chunk's dataspace dimensions */
    unsigned edge_size = 6;     /* Size of dataset's dataspace dimensions */
    unsigned small_rank;        /* Current rank of small dataset */
    unsigned large_rank;        /* Current rank of large dataset */
    uint16_t *cube_buf;         /* Buffer for writing cube data */
    uint16_t *zero_buf;         /* Buffer for writing zeroed cube data */
    uint16_t *cube_ptr;         /* Temporary pointer into cube data */
    unsigned max_rank = 5;      /* Max. rank to use */
    size_t max_cube_size;       /* Max. number of elements in largest cube */
    size_t s;                   /* Local index variable */
    unsigned u;                 /* Local index variable */

    /* Output message about test being performed */
    MESSAGE(5, ("Testing Contiguous Hyperslabs With Different Rank I/O Functionality\n"));

    /* Compute max. cube size */
    max_cube_size = (size_t)1;
    for(u = 0; u < max_rank; u++)
        max_cube_size *= (size_t)edge_size;

    /* Allocate cube buffer for writing values */
    cube_buf = (uint16_t *)HDmalloc(sizeof(uint16_t) * max_cube_size);
    CHECK_PTR(cube_buf, "HDmalloc");

    /* Initialize the cube buffer */
    cube_ptr = cube_buf;
    for(s = 0; s < max_cube_size; s++)
        *cube_ptr++ = (uint16_t)s;

    /* Allocate cube buffer for zeroing values on disk */
    zero_buf = (uint16_t *)HDcalloc(sizeof(uint16_t), max_cube_size);
    CHECK_PTR(zero_buf, "HDcalloc");

    for(large_rank = 1; large_rank <= max_rank; large_rank++) {
        for(small_rank = 1; small_rank < large_rank; small_rank++) {
            chunk_edge_size = 0;
            test_select_hyper_contig_dr__run_test(test_num, cube_buf, zero_buf,
                    edge_size, chunk_edge_size, small_rank, large_rank,
                    dset_type, xfer_plist);
            test_num++;

            chunk_edge_size = 3;
            test_select_hyper_contig_dr__run_test(test_num, cube_buf, zero_buf,
                    edge_size, chunk_edge_size, small_rank, large_rank,
                    dset_type, xfer_plist);
            test_num++;
        } /* for loop on small rank */
    } /* for loop on large rank */

    HDfree(cube_buf);
    HDfree(zero_buf);

}   /* test_select_hyper_contig_dr() */


/****************************************************************
**
**  test_select_hyper_checker_board_dr__select_checker_board():
**	Given an n-cube data space with each edge of length
**	edge_size, and a checker_edge_size either select a checker
**	board selection of the entire cube(if sel_rank == n),
**	or select a checker board selection of a
**	sel_rank dimensional slice through n-cube parallel to the
**      sel_rank fastest changing indices, with origin (in the
**	higher indices) as indicated by the start array.
**
**	Note that this function, like all its relatives, is
**	hard coded to presume a maximum n-cube rank of 5.
**	While this maximum is declared as a constant, increasing
**	it will require extensive coding in addition to changing
**      the value of the constant.
**
**					JRM -- 9/9/09
**
****************************************************************/
static void
test_select_hyper_checker_board_dr__select_checker_board(hid_t tgt_n_cube_sid,
    unsigned tgt_n_cube_rank, unsigned edge_size, unsigned checker_edge_size,
    unsigned sel_rank, hsize_t sel_start[])
{
    hbool_t		first_selection = TRUE;
    unsigned		n_cube_offset;
    unsigned		sel_offset;
    hsize_t		base_count;
    hsize_t             offset_count;
    hsize_t     	start[SS_DR_MAX_RANK];  /* Offset of hyperslab selection */
    hsize_t     	stride[SS_DR_MAX_RANK]; /* Stride of hyperslab selection */
    hsize_t     	count[SS_DR_MAX_RANK];  /* Count of hyperslab selection */
    hsize_t     	block[SS_DR_MAX_RANK];  /* Block size of hyperslab selection */
    unsigned            i, j, k, l, m;  /* Local index variable */
    unsigned            u;              /* Local index variables */
    herr_t      	ret;            /* Generic return value */

    HDassert(edge_size >= 6);
    HDassert(0 < checker_edge_size);
    HDassert(checker_edge_size <= edge_size);
    HDassert(0 < sel_rank);
    HDassert(sel_rank <= tgt_n_cube_rank);
    HDassert(tgt_n_cube_rank <= SS_DR_MAX_RANK);

    sel_offset = SS_DR_MAX_RANK - sel_rank;
    n_cube_offset = SS_DR_MAX_RANK - tgt_n_cube_rank;
    HDassert(n_cube_offset <= sel_offset);

    /* First, compute the base count (which assumes start == 0
     * for the associated offset) and offset_count (which
     * assumes start == checker_edge_size for the associated
     * offset).
     */
    base_count = edge_size / (checker_edge_size * 2);
    if((edge_size % (checker_edge_size * 2)) > 0)
        base_count++;

    offset_count = (edge_size - checker_edge_size) / (checker_edge_size * 2);
    if(((edge_size - checker_edge_size) % (checker_edge_size * 2)) > 0)
        offset_count++;

    /* Now set up the stride and block arrays, and portions of the start
     * and count arrays that will not be altered during the selection of
     * the checker board.
     */
    u = 0;
    while(u < n_cube_offset) {
        /* these values should never be used */
        start[u] = 0;
        stride[u] = 0;
        count[u] = 0;
        block[u] = 0;

        u++;
    } /* end while */

    while(u < sel_offset) {
        start[u] = sel_start[u];
        stride[u] = 2 * edge_size;
        count[u] = 1;
        block[u] = 1;

        u++;
    } /* end while */

    while(u < SS_DR_MAX_RANK) {
        stride[u] = 2 * checker_edge_size;
        block[u] = checker_edge_size;

        u++;
    } /* end while */

    i = 0;
    do {
        if(0 >= sel_offset) {
            if(i == 0) {
                start[0] = 0;
                count[0] = base_count;
            } /* end if */
            else {
                start[0] = checker_edge_size;
                count[0] = offset_count;
            } /* end else */
        } /* end if */

        j = 0;
        do {
            if(1 >= sel_offset) {
                if(j == 0 ) {
                    start[1] = 0;
                    count[1] = base_count;
                } /* end if */
                else {
                    start[1] = checker_edge_size;
                    count[1] = offset_count;
                } /* end else */
            } /* end if */

            k = 0;
            do {
                if(2 >= sel_offset) {
                    if(k == 0) {
                        start[2] = 0;
                        count[2] = base_count;
                    } /* end if */
                    else {
                        start[2] = checker_edge_size;
                        count[2] = offset_count;
                    } /* end else */
                } /* end if */

                l = 0;
                do {
                    if(3 >= sel_offset) {
                        if(l == 0) {
                            start[3] = 0;
                            count[3] = base_count;
                        } /* end if */
                        else {
                            start[3] = checker_edge_size;
                            count[3] = offset_count;
                        } /* end else */
                    } /* end if */

                    m = 0;
                    do {
                        if(4 >= sel_offset) {
                            if(m == 0) {
                                start[4] = 0;
                                count[4] = base_count;
                            } /* end if */
                            else {
                                start[4] = checker_edge_size;
                                count[4] = offset_count;
                            } /* end else */
                        } /* end if */

                        if(((i + j + k + l + m) % 2) == 0) {
                            if(first_selection) {
                                first_selection = FALSE;

                                ret = H5Sselect_hyperslab(tgt_n_cube_sid,
                                        H5S_SELECT_SET,
                                        &(start[n_cube_offset]),
                                        &(stride[n_cube_offset]),
                                        &(count[n_cube_offset]),
                                        &(block[n_cube_offset]));
                                CHECK(ret, FAIL, "H5Sselect_hyperslab");
                            } /* end if */
                            else {
                                ret = H5Sselect_hyperslab(tgt_n_cube_sid,
                                        H5S_SELECT_OR,
                                        &(start[n_cube_offset]),
                                        &(stride[n_cube_offset]),
                                        &(count[n_cube_offset]),
                                        &(block[n_cube_offset]));
                                CHECK(ret, FAIL, "H5Sselect_hyperslab");
                            } /* end else */
                        } /* end if */

                        m++;
                    } while((m <= 1) && (4 >= sel_offset));
                    l++;
                } while((l <= 1) && (3 >= sel_offset));
                k++;
            } while((k <= 1) && (2 >= sel_offset));
            j++;
        } while((j <= 1) && (1 >= sel_offset));
        i++;
    } while((i <= 1) && (0 >= sel_offset));

    /* Wierdness alert:
     *
     * Some how, it seems that selections can extend beyond the
     * boundaries of the target data space -- hence the following
     * code to manually clip the selection back to the data space
     * proper.
     */
    for(u = 0; u < SS_DR_MAX_RANK; u++) {
        start[u]  = 0;
        stride[u] = edge_size;
        count[u]  = 1;
        block[u]  = edge_size;
    } /* end for */

    ret = H5Sselect_hyperslab(tgt_n_cube_sid, H5S_SELECT_AND, start, stride, count, block);
    CHECK(ret, FAIL, "H5Sselect_hyperslab");
} /* test_select_hyper_checker_board_dr__select_checker_board() */


/****************************************************************
**
**  test_select_hyper_checker_board_dr__verify_data():
**
**	Examine the supplied buffer to see if it contains the
**	expected data.  Return TRUE if it does, and FALSE
**      otherwise.
**
**	The supplied buffer is presumed to contain the results
**	of read or writing a checkerboard selection of an
**	n-cube, or a checkerboard selection of an m (1 <= m < n)
**	dimensional slice through an n-cube parallel to the
**      fastest changing indices.
**
**	It is further presumed that the buffer was zeroed before
**	the read, and that the n-cube was initialize with the
**      natural numbers listed in order from the origin along
**      the fastest changing axis.
**
**      Thus for a 10x10x10 3-cube, the value stored in location
**	(x, y, z) (assuming that z is the fastest changing index
**	and x the slowest) is assumed to be:
**
**		(10 * 10 * x) + (10 * y) + z
**
**	Thus, if the buffer contains the result of reading a
**	checker board selection of a 10x10x10 3-cube, location
**	(x, y, z) will contain zero if it is not in a checker,
**	and 100x + 10y + z if (x, y, z) is in a checker.
**
**	If the buffer contains the result of reading a 3
**	dimensional slice (parallel to the three fastest changing
**	indices) through an n cube (n > 3), then the expected
**	values in the buffer will be the same, save that we will
**	add a constant determined by the origin of the 3-cube
**	in the n-cube.
**
**	Finally, the function presumes that the first element
**	of the buffer resides either at the origin of either
**	a selected or an unselected checker.
**
****************************************************************/
H5_ATTR_PURE static hbool_t
test_select_hyper_checker_board_dr__verify_data(uint16_t * buf_ptr,
    unsigned rank, unsigned edge_size, unsigned checker_edge_size,
    uint16_t first_expected_val, hbool_t buf_starts_in_checker)
{
    hbool_t good_data = TRUE;
    hbool_t in_checker;
    hbool_t start_in_checker[5];
    uint16_t expected_value;
    uint16_t * val_ptr;
    unsigned i, j, k, l, m;              /* to track position in n-cube */
    unsigned v, w, x, y, z;              /* to track position in checker */
    const unsigned test_max_rank = 5;    /* code changes needed if this is increased */

    HDassert(buf_ptr != NULL);
    HDassert(0 < rank);
    HDassert(rank <= test_max_rank);
    HDassert(edge_size >= 6);
    HDassert(0 < checker_edge_size);
    HDassert(checker_edge_size <= edge_size);
    HDassert(test_max_rank <= SS_DR_MAX_RANK);

    val_ptr = buf_ptr;
    expected_value = first_expected_val;

    i = 0;
    v = 0;
    start_in_checker[0] = buf_starts_in_checker;
    do {
        if(v >= checker_edge_size) {
            start_in_checker[0] = !start_in_checker[0];
            v = 0;
        } /* end if */

        j = 0;
        w = 0;
        start_in_checker[1] = start_in_checker[0];
        do {
            if(w >= checker_edge_size) {
                start_in_checker[1] = !start_in_checker[1];
                w = 0;
            } /* end if */

            k = 0;
            x = 0;
            start_in_checker[2] = start_in_checker[1];
            do {
                if(x >= checker_edge_size) {
                    start_in_checker[2] = !start_in_checker[2];
                    x = 0;
                } /* end if */

                l = 0;
                y = 0;
                start_in_checker[3] = start_in_checker[2];
                do {
                    if(y >= checker_edge_size) {
                        start_in_checker[3] = ! start_in_checker[3];
                        y = 0;
                    } /* end if */

                    m = 0;
                    z = 0;
                    in_checker = start_in_checker[3];
                    do {
                        if(z >= checker_edge_size) {
                            in_checker = ! in_checker;
                            z = 0;
                        } /* end if */

                        if(in_checker) {
                            if(*val_ptr != expected_value)
                                good_data = FALSE;
                        } /* end if */
                        else {
                            if(*val_ptr != 0)
                                good_data = FALSE;
                        } /* end else */

                        val_ptr++;
                        expected_value++;

                        m++;
                        z++;
                    } while((rank >= (test_max_rank - 4)) && (m < edge_size));
                    l++;
                    y++;
                } while((rank >= (test_max_rank - 3)) && (l < edge_size));
                k++;
                x++;
            } while((rank >= (test_max_rank - 2)) && (k < edge_size));
            j++;
            w++;
        } while((rank >= (test_max_rank - 1)) && (j < edge_size));
        i++;
        v++;
    } while((rank >= test_max_rank) && (i < edge_size));

    return(good_data);
} /* test_select_hyper_checker_board_dr__verify_data() */


/****************************************************************
**
**  test_select_hyper_checker_board_dr__run_test(): Test H5S
**      (dataspace) selection code with checker board source and
**	target selections having different ranks but the same
**	shape.  We have already tested H5S_shape_same in
**	isolation, so now we try to do I/O.
**
****************************************************************/
static void
test_select_hyper_checker_board_dr__run_test(int test_num, const uint16_t *cube_buf,
    const uint16_t *zero_buf, unsigned edge_size, unsigned checker_edge_size,
    unsigned chunk_edge_size, unsigned small_rank, unsigned large_rank,
    hid_t dset_type, hid_t xfer_plist)
{
    hbool_t		data_ok;
    hid_t               fapl;                   /* File access property list */
    hid_t		fid;			/* HDF5 File IDs		*/
    hid_t		full_small_cube_sid;    /* Dataspace for small cube w/all selection */
    hid_t		mem_small_cube_sid;
    hid_t		file_small_cube_sid;
    hid_t		full_large_cube_sid;    /* Dataspace for large cube w/all selection */
    hid_t		mem_large_cube_sid;
    hid_t		file_large_cube_sid;
    hid_t		small_cube_dcpl_id = H5P_DEFAULT;   /* DCPL for small cube dataset */
    hid_t		large_cube_dcpl_id = H5P_DEFAULT;   /* DCPL for large cube dataset */
    hid_t		small_cube_dataset;	/* Dataset ID			*/
    hid_t		large_cube_dataset;	/* Dataset ID			*/
    unsigned		small_rank_offset;      /* Rank offset of slice */
    const unsigned	test_max_rank = 5;  /* must update code if this changes */
    size_t              start_index;            /* Offset within buffer to begin inspecting */
    size_t              stop_index;             /* Offset within buffer to end inspecting */
    uint16_t		expected_value;
    uint16_t	      * small_cube_buf_1;
    uint16_t	      * large_cube_buf_1;
    uint16_t	      * ptr_1;
    size_t              small_cube_size;    /* Number of elements in small cube */
    size_t              large_cube_size;    /* Number of elements in large cube */
    hsize_t		dims[SS_DR_MAX_RANK];
    hsize_t		chunk_dims[SS_DR_MAX_RANK];
    hsize_t     	sel_start[SS_DR_MAX_RANK];
    unsigned            u, v, w, x;     /* Local index variables */
    size_t              s;              /* Local index variable */
    htri_t      	check;          /* Shape comparison return value */
    herr_t      	ret;            /* Generic return value */

    MESSAGE(7, ("\tn-cube slice through m-cube I/O test %d.\n", test_num));
    MESSAGE(7, ("\tranks = %d/%d, edge_size = %d, checker_edge_size = %d, chunk_edge_size = %d.\n", small_rank, large_rank, edge_size, checker_edge_size, chunk_edge_size));

    HDassert(edge_size >= 6);
    HDassert(checker_edge_size > 0);
    HDassert(checker_edge_size <= edge_size);
    HDassert(edge_size >= chunk_edge_size);
    HDassert((chunk_edge_size == 0) || (chunk_edge_size >= 3));
    HDassert(small_rank > 0);
    HDassert(small_rank < large_rank);
    HDassert(large_rank <= test_max_rank);
    HDassert(test_max_rank <= SS_DR_MAX_RANK);

    /* Compute cube sizes */
    small_cube_size = large_cube_size = (size_t)1;
    for(u = 0; u < large_rank; u++) {
        if(u < small_rank)
            small_cube_size *= (size_t)edge_size;

        large_cube_size *= (size_t)edge_size;
    } /* end for */
    HDassert(large_cube_size < (size_t)(UINT_MAX));

    small_rank_offset = test_max_rank - small_rank;
    HDassert(small_rank_offset >= 1);

    /* also, at present, we use 16 bit values in this test --
     * hence the following assertion.  Delete it if we convert
     * to 32 bit values.
     */
    HDassert(large_cube_size < (size_t)(64 * 1024));


    /* Allocate & initialize buffers */
    small_cube_buf_1 = (uint16_t *)HDcalloc(sizeof(uint16_t), small_cube_size);
    CHECK_PTR(small_cube_buf_1, "HDcalloc");
    large_cube_buf_1 = (uint16_t *)HDcalloc(sizeof(uint16_t), large_cube_size);
    CHECK_PTR(large_cube_buf_1, "HDcalloc");


    /* Create a dataset transfer property list */
    fapl = H5Pcreate(H5P_FILE_ACCESS);
    CHECK(fapl, FAIL, "H5Pcreate");

    /* Use the 'core' VFD for this test */
    ret = H5Pset_fapl_core(fapl, (size_t)(1024 * 1024), FALSE);
    CHECK(ret, FAIL, "H5Pset_fapl_core");

    /* Create file */
    fid = H5Fcreate(FILENAME, H5F_ACC_TRUNC, H5P_DEFAULT, fapl);
    CHECK(fid, FAIL, "H5Fcreate");

    /* Close file access property list */
    ret = H5Pclose(fapl);
    CHECK(ret, FAIL, "H5Pclose");


    /* setup dims: */
    dims[0] = dims[1] = dims[2] = dims[3] = dims[4] = edge_size;


    /* Create small cube dataspaces */
    full_small_cube_sid = H5Screate_simple((int)small_rank, dims, NULL);
    CHECK(full_small_cube_sid, FAIL, "H5Screate_simple");

    mem_small_cube_sid = H5Screate_simple((int)small_rank, dims, NULL);
    CHECK(mem_small_cube_sid, FAIL, "H5Screate_simple");

    file_small_cube_sid = H5Screate_simple((int)small_rank, dims, NULL);
    CHECK(file_small_cube_sid, FAIL, "H5Screate_simple");


    /* Create large cube dataspace */
    full_large_cube_sid = H5Screate_simple((int)large_rank, dims, NULL);
    CHECK(full_large_cube_sid, FAIL, "H5Screate_simple");

    mem_large_cube_sid = H5Screate_simple((int)large_rank, dims, NULL);
    CHECK(mem_large_cube_sid, FAIL, "H5Screate_simple");

    file_large_cube_sid = H5Screate_simple((int)large_rank, dims, NULL);
    CHECK(file_large_cube_sid, FAIL, "H5Screate_simple");


    /* if chunk edge size is greater than zero, set up the small and
     * large data set creation property lists to specify chunked
     * datasets.
     */
    if(chunk_edge_size > 0) {
        chunk_dims[0] = chunk_dims[1] =
		chunk_dims[2] = chunk_dims[3] = chunk_dims[4] = chunk_edge_size;

        small_cube_dcpl_id = H5Pcreate(H5P_DATASET_CREATE);
        CHECK(small_cube_dcpl_id, FAIL, "H5Pcreate");

        ret = H5Pset_layout(small_cube_dcpl_id, H5D_CHUNKED);
        CHECK(ret, FAIL, "H5Pset_layout");

        ret = H5Pset_chunk(small_cube_dcpl_id, (int)small_rank, chunk_dims);
        CHECK(ret, FAIL, "H5Pset_chunk");


        large_cube_dcpl_id = H5Pcreate(H5P_DATASET_CREATE);
        CHECK(large_cube_dcpl_id, FAIL, "H5Pcreate");

        ret = H5Pset_layout(large_cube_dcpl_id, H5D_CHUNKED);
        CHECK(ret, FAIL, "H5Pset_layout");

        ret = H5Pset_chunk(large_cube_dcpl_id, (int)large_rank, chunk_dims);
        CHECK(ret, FAIL, "H5Pset_chunk");
    } /* end if */


    /* create the small cube dataset */
    small_cube_dataset = H5Dcreate2(fid, "small_cube_dataset", dset_type,
            file_small_cube_sid, H5P_DEFAULT, small_cube_dcpl_id, H5P_DEFAULT);
    CHECK(small_cube_dataset, FAIL, "H5Dcreate2");

    /* Close non-default small dataset DCPL */
    if(small_cube_dcpl_id != H5P_DEFAULT) {
        ret = H5Pclose(small_cube_dcpl_id);
        CHECK(ret, FAIL, "H5Pclose");
    } /* end if */

    /* create the large cube dataset */
    large_cube_dataset = H5Dcreate2(fid, "large_cube_dataset", dset_type,
            file_large_cube_sid, H5P_DEFAULT, large_cube_dcpl_id, H5P_DEFAULT);
    CHECK(large_cube_dataset, FAIL, "H5Dcreate2");

    /* Close non-default large dataset DCPL */
    if(large_cube_dcpl_id != H5P_DEFAULT) {
        ret = H5Pclose(large_cube_dcpl_id);
        CHECK(ret, FAIL, "H5Pclose");
    } /* end if */


    /* write initial data to the on disk datasets */
    ret = H5Dwrite(small_cube_dataset, H5T_NATIVE_UINT16, full_small_cube_sid,
            full_small_cube_sid, xfer_plist, cube_buf);
    CHECK(ret, FAIL, "H5Dwrite");

    ret = H5Dwrite(large_cube_dataset, H5T_NATIVE_UINT16, full_large_cube_sid,
            full_large_cube_sid, xfer_plist, cube_buf);
    CHECK(ret, FAIL, "H5Dwrite");


    /* read initial small cube data from disk and verify that it is as expected. */
    ret = H5Dread(small_cube_dataset, H5T_NATIVE_UINT16, full_small_cube_sid,
            full_small_cube_sid, xfer_plist, small_cube_buf_1);
    CHECK(ret, FAIL, "H5Dread");

    /* Check that the data is valid */
    verify_select_hyper_contig_dr__run_test(small_cube_buf_1, small_cube_size,
        edge_size, small_rank);

    /* read initial large cube data from disk and verify that it is as expected. */
    ret = H5Dread(large_cube_dataset, H5T_NATIVE_UINT16, full_large_cube_sid,
            full_large_cube_sid, xfer_plist, large_cube_buf_1);
    CHECK(ret, FAIL, "H5Dread");

    /* Check that the data is valid */
    verify_select_hyper_contig_dr__run_test(large_cube_buf_1, large_cube_size,
        edge_size, large_rank);


    /* first, verify that we can read from disk correctly using selections
     * of different rank that H5S_select_shape_same() views as being of the
     * same shape.
     *
     * Start by reading small_rank-D slice from the on disk large cube, and
     * verifying that the data read is correct.  Verify that H5S_select_shape_same()
     * returns true on the memory and file selections.
     *
     * The first step is to set up the needed checker board selection in the
     * in memory small small cube
     */

    sel_start[0] = sel_start[1] = sel_start[2] = sel_start[3] = sel_start[4] = 0;

    test_select_hyper_checker_board_dr__select_checker_board(mem_small_cube_sid,
                                                             small_rank,
                                                             edge_size,
                                                             checker_edge_size,
                                                             small_rank,
                                                             sel_start);

    /* now read slices from the large, on-disk cube into the small cube.
     * Note how we adjust sel_start only in the dimensions peculiar to the
     * large cube.
     */

    u = 0;
    do {
        if(small_rank_offset > 0)
            sel_start[0] = u;

        v = 0;
        do {
            if(small_rank_offset > 1)
                sel_start[1] = v;

            w = 0;
            do {
                if(small_rank_offset > 2)
                    sel_start[2] = w;

                x = 0;
                do {
                    if(small_rank_offset > 3)
                        sel_start[3] = x;

                    /* we know that small_rank >= 1 and that large_rank > small_rank
                     * by the assertions at the head of this function.  Thus no
                     * need for another inner loop.
                     */

                    HDassert((sel_start[0] == 0) || (0 < small_rank_offset));
                    HDassert((sel_start[1] == 0) || (1 < small_rank_offset));
                    HDassert((sel_start[2] == 0) || (2 < small_rank_offset));
                    HDassert((sel_start[3] == 0) || (3 < small_rank_offset));
                    HDassert((sel_start[4] == 0) || (4 < small_rank_offset));

                    test_select_hyper_checker_board_dr__select_checker_board
                    (
                      file_large_cube_sid,
                      large_rank,
                      edge_size,
                      checker_edge_size,
                      small_rank,
                      sel_start
                    );

                    /* verify that H5S_select_shape_same() reports the two
                     * selections as having the same shape.
                     */
                    check = H5S__select_shape_same_test(mem_small_cube_sid,
                                                       file_large_cube_sid);
                    VERIFY(check, TRUE, "H5S__select_shape_same_test");

                    /* zero the buffer that we will be using for reading */
                    HDmemset(small_cube_buf_1, 0, sizeof(*small_cube_buf_1) * small_cube_size);

                    /* Read selection from disk */
                    ret = H5Dread(large_cube_dataset,
                                  H5T_NATIVE_UINT16,
                                  mem_small_cube_sid,
                                  file_large_cube_sid,
                                  xfer_plist,
                                  small_cube_buf_1);
                    CHECK(ret, FAIL, "H5Dread");

                    expected_value = (uint16_t)
                                     ((u * edge_size * edge_size * edge_size * edge_size) +
                                      (v * edge_size * edge_size * edge_size) +
                                      (w * edge_size * edge_size) +
                                      (x * edge_size));

                    data_ok = test_select_hyper_checker_board_dr__verify_data
                              (
                                small_cube_buf_1,
                                small_rank,
                                edge_size,
                                checker_edge_size,
                                expected_value,
                                (hbool_t)TRUE
                              );
                    if(!data_ok)
                        TestErrPrintf("small cube read from largecube has bad data! Line=%d\n",__LINE__);

                    x++;
                } while((large_rank >= (test_max_rank - 3)) &&
                        (small_rank <= (test_max_rank - 4)) && (x < edge_size));
                w++;
            } while((large_rank >= (test_max_rank - 2)) &&
                    (small_rank <= (test_max_rank - 3)) && (w < edge_size));
            v++;
        } while((large_rank >= (test_max_rank - 1)) &&
                (small_rank <= (test_max_rank - 2)) && (v < edge_size));
        u++;
    } while((large_rank >= test_max_rank) &&
            (small_rank <= (test_max_rank - 1)) && (u < edge_size));


    /* similarly, read the on disk small cube into slices through the in memory
     * large cube, and verify that the correct data (and only the correct data)
     * is read.
     */

    /* select a checker board in the file small cube dataspace */
    sel_start[0] = sel_start[1] = sel_start[2] = sel_start[3] = sel_start[4] = 0;
    test_select_hyper_checker_board_dr__select_checker_board(file_small_cube_sid,
                                                             small_rank,
                                                             edge_size,
                                                             checker_edge_size,
                                                             small_rank,
                                                             sel_start);


    u = 0;
    do {
        if(0 < small_rank_offset)
            sel_start[0] = u;

        v = 0;
        do {
            if(1 < small_rank_offset)
                sel_start[1] = v;

            w = 0;
            do {
                if(2 < small_rank_offset)
                    sel_start[2] = w;

                x = 0;
                do {
                    if(3 < small_rank_offset)
                        sel_start[3] = x;

                    /* we know that small_rank >= 1 and that large_rank > small_rank
                     * by the assertions at the head of this function.  Thus no
                     * need for another inner loop.
                     */

                    HDassert((sel_start[0] == 0) || (0 < small_rank_offset));
                    HDassert((sel_start[1] == 0) || (1 < small_rank_offset));
                    HDassert((sel_start[2] == 0) || (2 < small_rank_offset));
                    HDassert((sel_start[3] == 0) || (3 < small_rank_offset));
                    HDassert((sel_start[4] == 0) || (4 < small_rank_offset));

                    test_select_hyper_checker_board_dr__select_checker_board
                    (
                      mem_large_cube_sid,
                      large_rank,
                      edge_size,
                      checker_edge_size,
                      small_rank,
                      sel_start
                    );

                    /* verify that H5S_select_shape_same() reports the two
                     * selections as having the same shape.
                     */
                    check = H5S__select_shape_same_test(file_small_cube_sid,
                                                       mem_large_cube_sid);
                    VERIFY(check, TRUE, "H5S__select_shape_same_test");


                    /* zero out the in memory large cube */
                    HDmemset(large_cube_buf_1, 0, sizeof(*large_cube_buf_1) * large_cube_size);

                    /* Read selection from disk */
                    ret = H5Dread(small_cube_dataset,
                                  H5T_NATIVE_UINT16,
                                  mem_large_cube_sid,
                                  file_small_cube_sid,
                                  xfer_plist,
                                  large_cube_buf_1);
                    CHECK(ret, FAIL, "H5Dread");


                    /* verify that the expected data and only the
                     * expected data was read.
                     */
                    data_ok = TRUE;
                    ptr_1 = large_cube_buf_1;
                    expected_value = 0;
                    start_index = (u * edge_size * edge_size * edge_size * edge_size) +
                                  (v * edge_size * edge_size * edge_size) +
                                  (w * edge_size * edge_size) +
                                  (x * edge_size);
                    stop_index = start_index + small_cube_size - 1;

                    HDassert( start_index < stop_index );
                    HDassert( stop_index <= large_cube_size );

                    /* verify that the large cube contains only zeros before the slice */
                    for(s = 0; s < start_index; s++) {
                        if(*ptr_1 != 0)
                            data_ok = FALSE;
                        ptr_1++;
                    } /* end for */
                    HDassert(s == start_index);

                    data_ok &= test_select_hyper_checker_board_dr__verify_data
                               (
                                 ptr_1,
                                 small_rank,
                                 edge_size,
                                 checker_edge_size,
                                 (uint16_t)0,
                                 (hbool_t)TRUE
                              );

                    ptr_1 += small_cube_size;
                    s += small_cube_size;

                    HDassert(s == stop_index + 1);

                    /* verify that the large cube contains only zeros after the slice */
                    for(s = stop_index + 1; s < large_cube_size; s++) {
                        if(*ptr_1 != 0)
                            data_ok = FALSE;
                        ptr_1++;
                    } /* end for */
                    if(!data_ok)
                        TestErrPrintf("large cube read from small cube has bad data! Line=%d\n",__LINE__);

                    x++;
                } while((large_rank >= (test_max_rank - 3)) &&
                        (small_rank <= (test_max_rank - 4)) && (x < edge_size));
                w++;
            } while((large_rank >= (test_max_rank - 2)) &&
                    (small_rank <= (test_max_rank - 3)) && (w < edge_size));
            v++;
        } while((large_rank >= (test_max_rank - 1)) &&
                (small_rank <= (test_max_rank - 2)) && (v < edge_size));
        u++;
    } while((large_rank >= test_max_rank) &&
            (small_rank <= (test_max_rank - 1)) && (u < edge_size));


    /* now we go in the opposite direction, verifying that we can write
     * from memory to file using selections of different rank that
     * H5S_select_shape_same() views as being of the same shape.
     *
     * Start by writing small_rank D slices from the in memory large cube, to
     * the the on disk small cube dataset.  After each write, read the small
     * cube dataset back from disk, and verify that it contains the expected
     * data. Verify that H5S_select_shape_same() returns true on the
     * memory and file selections.
     */

    /* select a checker board in the file small cube dataspace */
    sel_start[0] = sel_start[1] = sel_start[2] = sel_start[3] = sel_start[4] = 0;
    test_select_hyper_checker_board_dr__select_checker_board(file_small_cube_sid,
                                                             small_rank,
                                                             edge_size,
                                                             checker_edge_size,
                                                             small_rank,
                                                             sel_start);

    u = 0;
    do {
        if(small_rank_offset > 0)
            sel_start[0] = u;

        v = 0;
        do {
            if(small_rank_offset > 1)
                sel_start[1] = v;

            w = 0;
            do {
                if(small_rank_offset > 2)
                    sel_start[2] = w;

                x = 0;
                do {
                    if(small_rank_offset > 3)
                        sel_start[3] = x;

                    /* zero out the on disk small cube */
                    ret = H5Dwrite(small_cube_dataset,
                                   H5T_NATIVE_UINT16,
                                   full_small_cube_sid,
                                   full_small_cube_sid,
                                   xfer_plist,
                                   zero_buf);
                    CHECK(ret, FAIL, "H5Dwrite");


                    /* we know that small_rank >= 1 and that large_rank > small_rank
                     * by the assertions at the head of this function.  Thus no
                     * need for another inner loop.
                     */

                    HDassert((sel_start[0] == 0) || (0 < small_rank_offset));
                    HDassert((sel_start[1] == 0) || (1 < small_rank_offset));
                    HDassert((sel_start[2] == 0) || (2 < small_rank_offset));
                    HDassert((sel_start[3] == 0) || (3 < small_rank_offset));
                    HDassert((sel_start[4] == 0) || (4 < small_rank_offset));

                    test_select_hyper_checker_board_dr__select_checker_board
                    (
                      mem_large_cube_sid,
                      large_rank,
                      edge_size,
                      checker_edge_size,
                      small_rank,
                      sel_start
                    );

                    /* verify that H5S_select_shape_same() reports the two
                     * selections as having the same shape.
                     */
                    check = H5S__select_shape_same_test(file_small_cube_sid,
                                                       mem_large_cube_sid);
                    VERIFY(check, TRUE, "H5S__select_shape_same_test");


	            /* write the slice from the in memory large cube to the
                     * on disk small cube
                     */
                    ret = H5Dwrite(small_cube_dataset,
                                   H5T_NATIVE_UINT16,
                                   mem_large_cube_sid,
                                   file_small_cube_sid,
                                   xfer_plist,
                                   cube_buf);
                    CHECK(ret, FAIL, "H5Dwrite");


                    /* zero the buffer that we will be using for reading */
                    HDmemset(small_cube_buf_1, 0, sizeof(*small_cube_buf_1) * small_cube_size);

                    /* read the on disk small cube into memory */
                    ret = H5Dread(small_cube_dataset,
                                  H5T_NATIVE_UINT16,
                                  full_small_cube_sid,
                                  full_small_cube_sid,
                                  xfer_plist,
                                  small_cube_buf_1);
                    CHECK(ret, FAIL, "H5Dread");

                    expected_value = (uint16_t)
                                     ((u * edge_size * edge_size * edge_size * edge_size) +
                                      (v * edge_size * edge_size * edge_size) +
                                      (w * edge_size * edge_size) +
                                      (x * edge_size));

                    data_ok = test_select_hyper_checker_board_dr__verify_data
                              (
                                small_cube_buf_1,
                                small_rank,
                                edge_size,
                                checker_edge_size,
                                expected_value,
                                (hbool_t)TRUE
                              );
                    if(!data_ok)
                        TestErrPrintf("small cube read from largecube has bad data! Line=%d\n",__LINE__);

                    x++;
                } while((large_rank >= (test_max_rank - 3)) &&
                        (small_rank <= (test_max_rank - 4)) && (x < edge_size));
                w++;
            } while((large_rank >= (test_max_rank - 2)) &&
                    (small_rank <= (test_max_rank - 3)) && (w < edge_size));
            v++;
        } while((large_rank >= (test_max_rank - 1)) &&
                (small_rank <= (test_max_rank - 2)) && (v < edge_size));
        u++;
    } while((large_rank >= test_max_rank) &&
            (small_rank <= (test_max_rank - 1)) && (u < edge_size));


    /* Now write checker board selections of the entries in memory
     * small cube to slices of the on disk cube.  After each write,
     * read the on disk large cube * into memeory, and verify that
     * it contains the expected * data.  Verify that
     * H5S_select_shape_same() returns true on the memory and file
     * selections.
     */

    /* select a checker board in the in memory small cube dataspace */
    sel_start[0] = sel_start[1] = sel_start[2] = sel_start[3] = sel_start[4] = 0;
    test_select_hyper_checker_board_dr__select_checker_board(mem_small_cube_sid,
                                                             small_rank,
                                                             edge_size,
                                                             checker_edge_size,
                                                             small_rank,
                                                             sel_start);

    u = 0;
    do {
        if(small_rank_offset > 0)
            sel_start[0] = u;

        v = 0;
        do {
            if(small_rank_offset > 1)
                sel_start[1] = v;

            w = 0;
            do {
                if(small_rank_offset > 2)
                    sel_start[2] = w;

                x = 0;
                do {
                    if(small_rank_offset > 3)
                        sel_start[3] = x;

                    /* zero out the on disk cube */
                    ret = H5Dwrite(large_cube_dataset,
                                   H5T_NATIVE_USHORT,
                                   full_large_cube_sid,
                                   full_large_cube_sid,
                                   xfer_plist,
                                   zero_buf);
                    CHECK(ret, FAIL, "H5Dwrite");

                    /* we know that small_rank >= 1 and that large_rank > small_rank
                     * by the assertions at the head of this function.  Thus no
                     * need for another inner loop.
                     */

                    HDassert((sel_start[0] == 0) || (0 < small_rank_offset));
                    HDassert((sel_start[1] == 0) || (1 < small_rank_offset));
                    HDassert((sel_start[2] == 0) || (2 < small_rank_offset));
                    HDassert((sel_start[3] == 0) || (3 < small_rank_offset));
                    HDassert((sel_start[4] == 0) || (4 < small_rank_offset));


                    test_select_hyper_checker_board_dr__select_checker_board
                    (
                      file_large_cube_sid,
                      large_rank,
                      edge_size,
                      checker_edge_size,
                      small_rank,
                      sel_start
                    );

                    /* verify that H5S_select_shape_same() reports the two
                     * selections as having the same shape.
                     */
                    check = H5S__select_shape_same_test(file_large_cube_sid,
                                                       mem_small_cube_sid);
                    VERIFY(check, TRUE, "H5S__select_shape_same_test");


	            /* write the checker board selection of the in memory
                     * small cube to a slice through the on disk large
                     * cube.
                     */
                    ret = H5Dwrite(large_cube_dataset,
                                   H5T_NATIVE_UINT16,
                                   mem_small_cube_sid,
                                   file_large_cube_sid,
                                   xfer_plist,
                                   cube_buf);
                    CHECK(ret, FAIL, "H5Dwrite");


                    /* zero out the in memory large cube */
                    HDmemset(large_cube_buf_1, 0, sizeof(*large_cube_buf_1) * large_cube_size);

                    /* read the on disk large cube into memory */
                    ret = H5Dread(large_cube_dataset,
                                  H5T_NATIVE_UINT16,
                                  full_large_cube_sid,