int MPIDO_Gatherv(const void *sendbuf,
int sendcount,
MPI_Datatype sendtype,
void *recvbuf,
const int *recvcounts,
const int *displs,
MPI_Datatype recvtype,
int root,
MPID_Comm * comm_ptr,
int *mpierrno)
{
#ifndef HAVE_PAMI_IN_PLACE
if (sendbuf == MPI_IN_PLACE)
{
MPID_Abort (NULL, 0, 1, "'MPI_IN_PLACE' requries support for `PAMI_IN_PLACE`");
return -1;
}
#endif
TRACE_ERR("Entering MPIDO_Gatherv\n");
int i;
int contig ATTRIBUTE((unused)), rsize ATTRIBUTE((unused)), ssize ATTRIBUTE((unused));
int pamidt = 1;
MPID_Datatype *dt_ptr = NULL;
MPI_Aint send_true_lb, recv_true_lb;
char *sbuf, *rbuf;
pami_type_t stype, rtype;
int tmp;
volatile unsigned gatherv_active = 1;
const int rank = comm_ptr->rank;
const int size = comm_ptr->local_size;
#if ASSERT_LEVEL==0
/* We can't afford the tracing in ndebug/performance libraries */
const unsigned verbose = 0;
#else
const unsigned verbose = (MPIDI_Process.verbose >= MPIDI_VERBOSE_DETAILS_ALL) && (rank == 0);
#endif
const struct MPIDI_Comm* const mpid = &(comm_ptr->mpid);
const int selected_type = mpid->user_selected_type[PAMI_XFER_GATHERV_INT];
/* Check for native PAMI types and MPI_IN_PLACE on sendbuf */
/* MPI_IN_PLACE is a nonlocal decision. We will need a preallreduce if we ever have
* multiple "good" gathervs that work on different counts for example */
if((sendbuf != MPI_IN_PLACE) && (MPIDI_Datatype_to_pami(sendtype, &stype, -1, NULL, &tmp) != MPI_SUCCESS))
pamidt = 0;
if(MPIDI_Datatype_to_pami(recvtype, &rtype, -1, NULL, &tmp) != MPI_SUCCESS)
pamidt = 0;
if(pamidt == 0 || selected_type == MPID_COLL_USE_MPICH)
{
if(unlikely(verbose))
fprintf(stderr,"Using MPICH gatherv algorithm\n");
TRACE_ERR("GATHERV using MPICH\n");
MPIDI_Update_last_algorithm(comm_ptr, "GATHERV_MPICH");
#if CUDA_AWARE_SUPPORT
if(MPIDI_Process.cuda_aware_support_on)
{
MPI_Aint sdt_extent,rdt_extent;
MPID_Datatype_get_extent_macro(sendtype, sdt_extent);
MPID_Datatype_get_extent_macro(recvtype, rdt_extent);
char *scbuf = NULL;
char *rcbuf = NULL;
int is_send_dev_buf = MPIDI_cuda_is_device_buf(sendbuf);
int is_recv_dev_buf = (rank == root) ? MPIDI_cuda_is_device_buf(recvbuf) : 0;
if(is_send_dev_buf)
{
scbuf = MPL_malloc(sdt_extent * sendcount);
cudaError_t cudaerr = CudaMemcpy(scbuf, sendbuf, sdt_extent * sendcount, cudaMemcpyDeviceToHost);
if (cudaSuccess != cudaerr)
fprintf(stderr, "cudaMemcpy failed: %s\n", CudaGetErrorString(cudaerr));
}
else
scbuf = sendbuf;
size_t rtotal_buf;
if(is_recv_dev_buf)
{
//Since displs can be non-continous, we need to calculate max buffer size
int highest_displs = displs[size - 1];
int highest_recvcount = recvcounts[size - 1];
for(i = 0; i < size; i++)
{
if(displs[i]+recvcounts[i] > highest_displs+highest_recvcount)
{
highest_displs = displs[i];
highest_recvcount = recvcounts[i];
}
}
rtotal_buf = (highest_displs+highest_recvcount)*rdt_extent;
rcbuf = MPL_malloc(rtotal_buf);
if(sendbuf == MPI_IN_PLACE)
{
cudaError_t cudaerr = CudaMemcpy(rcbuf, recvbuf, rtotal_buf, cudaMemcpyDeviceToHost);
if (cudaSuccess != cudaerr)
fprintf(stderr, "cudaMemcpy failed: %s\n", CudaGetErrorString(cudaerr));
}
else
memset(rcbuf, 0, rtotal_buf);
}
else
rcbuf = recvbuf;
int cuda_res = MPIR_Gatherv(scbuf, sendcount, sendtype, rcbuf, recvcounts, displs, recvtype, root, comm_ptr, mpierrno);
if(is_send_dev_buf)MPL_free(scbuf);
if(is_recv_dev_buf)
{
cudaError_t cudaerr = CudaMemcpy(recvbuf, rcbuf, rtotal_buf, cudaMemcpyHostToDevice);
if (cudaSuccess != cudaerr)
fprintf(stderr, "cudaMemcpy failed: %s\n", CudaGetErrorString(cudaerr));
MPL_free(rcbuf);
}
return cuda_res;
}
else
#endif
return MPIR_Gatherv(sendbuf, sendcount, sendtype,
recvbuf, recvcounts, displs, recvtype,
root, comm_ptr, mpierrno);
}
MPIDI_Datatype_get_info(1, recvtype, contig, rsize, dt_ptr, recv_true_lb);
rbuf = (char *)recvbuf + recv_true_lb;
sbuf = (void *) sendbuf;
pami_xfer_t gatherv;
gatherv.cb_done = cb_gatherv;
gatherv.cookie = (void *)&gatherv_active;
gatherv.cmd.xfer_gatherv_int.root = MPIDI_Task_to_endpoint(MPID_VCR_GET_LPID(comm_ptr->vcr, root), 0);
gatherv.cmd.xfer_gatherv_int.rcvbuf = rbuf;
gatherv.cmd.xfer_gatherv_int.rtype = rtype;
gatherv.cmd.xfer_gatherv_int.rtypecounts = (int *) recvcounts;
gatherv.cmd.xfer_gatherv_int.rdispls = (int *) displs;
gatherv.cmd.xfer_gatherv_int.sndbuf = NULL;
gatherv.cmd.xfer_gatherv_int.stype = stype;
gatherv.cmd.xfer_gatherv_int.stypecount = sendcount;
if(rank == root)
{
if(sendbuf == MPI_IN_PLACE)
{
if(unlikely(verbose))
fprintf(stderr,"gatherv MPI_IN_PLACE buffering\n");
sbuf = PAMI_IN_PLACE;
gatherv.cmd.xfer_gatherv_int.stype = rtype;
gatherv.cmd.xfer_gatherv_int.stypecount = recvcounts[rank];
}
else
{
MPIDI_Datatype_get_info(1, sendtype, contig, ssize, dt_ptr, send_true_lb);
sbuf = (char *)sbuf + send_true_lb;
}
}
gatherv.cmd.xfer_gatherv_int.sndbuf = sbuf;
pami_algorithm_t my_gatherv;
const pami_metadata_t *my_md = (pami_metadata_t *)NULL;
int queryreq = 0;
if(selected_type == MPID_COLL_OPTIMIZED)
{
TRACE_ERR("Optimized gatherv %s was selected\n",
mpid->opt_protocol_md[PAMI_XFER_GATHERV_INT][0].name);
my_gatherv = mpid->opt_protocol[PAMI_XFER_GATHERV_INT][0];
my_md = &mpid->opt_protocol_md[PAMI_XFER_GATHERV_INT][0];
queryreq = mpid->must_query[PAMI_XFER_GATHERV_INT][0];
}
else
{
TRACE_ERR("Optimized gatherv %s was set by user\n",
mpid->user_metadata[PAMI_XFER_GATHERV_INT].name);
my_gatherv = mpid->user_selected[PAMI_XFER_GATHERV_INT];
my_md = &mpid->user_metadata[PAMI_XFER_GATHERV_INT];
queryreq = selected_type;
}
gatherv.algorithm = my_gatherv;
if(unlikely(queryreq == MPID_COLL_ALWAYS_QUERY ||
queryreq == MPID_COLL_CHECK_FN_REQUIRED))
{
metadata_result_t result = {0};
TRACE_ERR("querying gatherv protocol %s, type was %d\n",
my_md->name, queryreq);
if(my_md->check_fn == NULL)
{
/* process metadata bits */
if((!my_md->check_correct.values.inplace) && (sendbuf == MPI_IN_PLACE))
result.check.unspecified = 1;
/* Can't check ranges like this. Non-local. Comment out for now.
if(my_md->check_correct.values.rangeminmax)
{
MPI_Aint data_true_lb;
MPID_Datatype *data_ptr;
int data_size, data_contig;
MPIDI_Datatype_get_info(sendcount, sendtype, data_contig, data_size, data_ptr, data_true_lb);
if((my_md->range_lo <= data_size) &&
(my_md->range_hi >= data_size))
;
else
{
result.check.range = 1;
if(unlikely(verbose))
{
fprintf(stderr,"message size (%u) outside range (%zu<->%zu) for %s.\n",
data_size,
my_md->range_lo,
my_md->range_hi,
my_md->name);
}
}
}
*/
}
else /* calling the check fn is sufficient */
result = my_md->check_fn(&gatherv);
TRACE_ERR("bitmask: %#X\n", result.bitmask);
result.check.nonlocal = 0; /* #warning REMOVE THIS WHEN IMPLEMENTED */
if(result.bitmask)
{
if(unlikely(verbose))
fprintf(stderr,"Query failed for %s. Using MPICH gatherv.\n", my_md->name);
MPIDI_Update_last_algorithm(comm_ptr, "GATHERV_MPICH");
return MPIR_Gatherv(sendbuf, sendcount, sendtype,
recvbuf, recvcounts, displs, recvtype,
root, comm_ptr, mpierrno);
}
if(my_md->check_correct.values.asyncflowctl && !(--(comm_ptr->mpid.num_requests)))
{
comm_ptr->mpid.num_requests = MPIDI_Process.optimized.num_requests;
int tmpmpierrno;
if(unlikely(verbose))
fprintf(stderr,"Query barrier required for %s\n", my_md->name);
MPIDO_Barrier(comm_ptr, &tmpmpierrno);
}
}
MPIDI_Update_last_algorithm(comm_ptr, my_md->name);
if(unlikely(verbose))
{
unsigned long long int threadID;
MPL_thread_id_t tid;
MPL_thread_self(&tid);
threadID = (unsigned long long int)tid;
fprintf(stderr,"<%llx> Using protocol %s for gatherv on %u\n",
threadID,
my_md->name,
(unsigned) comm_ptr->context_id);
}
MPIDI_Post_coll_t gatherv_post;
MPIDI_Context_post(MPIDI_Context[0], &gatherv_post.state,
MPIDI_Pami_post_wrapper, (void *)&gatherv);
TRACE_ERR("Waiting on active %d\n", gatherv_active);
MPID_PROGRESS_WAIT_WHILE(gatherv_active);
TRACE_ERR("Leaving MPIDO_Gatherv\n");
return 0;
}
int MPIDO_Gatherv_simple(const void *sendbuf,
int sendcount,
MPI_Datatype sendtype,
void *recvbuf,
const int *recvcounts,
const int *displs,
MPI_Datatype recvtype,
int root,
MPID_Comm * comm_ptr,
int *mpierrno)
{
#ifndef HAVE_PAMI_IN_PLACE
if (sendbuf == MPI_IN_PLACE)
{
MPID_Abort (NULL, 0, 1, "'MPI_IN_PLACE' requries support for `PAMI_IN_PLACE`");
return -1;
}
#endif
TRACE_ERR("Entering MPIDO_Gatherv_optimized\n");
int snd_contig = 1, rcv_contig = 1;
void *snd_noncontig_buff = NULL, *rcv_noncontig_buff = NULL;
void *sbuf = NULL, *rbuf = NULL;
int *rcounts = NULL;
int *rdispls = NULL;
int send_size = 0;
int recv_size = 0;
int rcvlen = 0;
int totalrecvcount = 0;
pami_type_t rtype = PAMI_TYPE_NULL;
MPID_Segment segment;
MPID_Datatype *data_ptr = NULL;
int send_true_lb, recv_true_lb = 0;
int i, tmp;
volatile unsigned gatherv_active = 1;
const int rank = comm_ptr->rank;
const int size = comm_ptr->local_size;
#if ASSERT_LEVEL==0
/* We can't afford the tracing in ndebug/performance libraries */
const unsigned verbose = 0;
#else
const unsigned verbose = (MPIDI_Process.verbose >= MPIDI_VERBOSE_DETAILS_ALL) && (rank == 0);
#endif
const struct MPIDI_Comm* const mpid = &(comm_ptr->mpid);
int recvok=PAMI_SUCCESS, recvcontinuous=0;
if(sendbuf != MPI_IN_PLACE)
{
MPIDI_Datatype_get_info(sendcount, sendtype, snd_contig,
send_size, data_ptr, send_true_lb);
if(MPIDI_Pamix_collsel_advise != NULL && mpid->collsel_fast_query != NULL)
{
advisor_algorithm_t advisor_algorithms[1];
int num_algorithms = MPIDI_Pamix_collsel_advise(mpid->collsel_fast_query, PAMI_XFER_GATHERV_INT, 64, advisor_algorithms, 1);
if(num_algorithms)
{
if(advisor_algorithms[0].algorithm_type == COLLSEL_EXTERNAL_ALGO)
{
return MPIR_Gatherv(sendbuf, sendcount, sendtype,
recvbuf, recvcounts, displs, recvtype,
root, comm_ptr, mpierrno);
}
else if(advisor_algorithms[0].metadata && advisor_algorithms[0].metadata->check_correct.values.asyncflowctl && !(--(comm_ptr->mpid.num_requests)))
{
comm_ptr->mpid.num_requests = MPIDI_Process.optimized.num_requests;
int tmpmpierrno;
if(unlikely(verbose))
fprintf(stderr,"Query barrier required for %s\n", advisor_algorithms[0].metadata->name);
MPIDO_Barrier(comm_ptr, &tmpmpierrno);
}
}
}
sbuf = (char *)sendbuf + send_true_lb;
if(!snd_contig)
{
snd_noncontig_buff = MPL_malloc(send_size);
sbuf = snd_noncontig_buff;
if(snd_noncontig_buff == NULL)
{
MPID_Abort(NULL, MPI_ERR_NO_SPACE, 1,
"Fatal: Cannot allocate pack buffer");
}
DLOOP_Offset last = send_size;
MPID_Segment_init(sendbuf, sendcount, sendtype, &segment, 0);
MPID_Segment_pack(&segment, 0, &last, snd_noncontig_buff);
}
}
else
{
MPIDI_Datatype_get_info(1, recvtype, rcv_contig,
rcvlen, data_ptr, recv_true_lb);
if(MPIDI_Pamix_collsel_advise != NULL && mpid->collsel_fast_query != NULL)
{
advisor_algorithm_t advisor_algorithms[1];
int num_algorithms = MPIDI_Pamix_collsel_advise(mpid->collsel_fast_query, PAMI_XFER_GATHERV_INT, 64, advisor_algorithms, 1);
if(num_algorithms)
{
if(advisor_algorithms[0].algorithm_type == COLLSEL_EXTERNAL_ALGO)
{
return MPIR_Gatherv(sendbuf, sendcount, sendtype,
recvbuf, recvcounts, displs, recvtype,
root, comm_ptr, mpierrno);
}
else if(advisor_algorithms[0].metadata && advisor_algorithms[0].metadata->check_correct.values.asyncflowctl && !(--(comm_ptr->mpid.num_requests)))
{
comm_ptr->mpid.num_requests = MPIDI_Process.optimized.num_requests;
int tmpmpierrno;
if(unlikely(verbose))
fprintf(stderr,"Query barrier required for %s\n", advisor_algorithms[0].metadata->name);
MPIDO_Barrier(comm_ptr, &tmpmpierrno);
}
}
}
}
pami_xfer_t gatherv;
rbuf = (char *)recvbuf + recv_true_lb;
rcounts = (int*)recvcounts;
rdispls = (int*)displs;
if(rank == root)
{
if((recvok = MPIDI_Datatype_to_pami(recvtype, &rtype, -1, NULL, &tmp)) != MPI_SUCCESS)
{
MPIDI_Datatype_get_info(1, recvtype, rcv_contig,
rcvlen, data_ptr, recv_true_lb);
totalrecvcount = recvcounts[0];
recvcontinuous = displs[0] == 0? 1 : 0 ;
rcounts = (int*)MPL_malloc(size);
rdispls = (int*)MPL_malloc(size);
rdispls[0] = 0;
rcounts[0] = rcvlen * recvcounts[0];
for(i = 1; i < size; i++)
{
rdispls[i]= rcvlen * totalrecvcount;
totalrecvcount += recvcounts[i];
if(displs[i] != (displs[i-1] + recvcounts[i-1]))
recvcontinuous = 0;
rcounts[i] = rcvlen * recvcounts[i];
}
recv_size = rcvlen * totalrecvcount;
rcv_noncontig_buff = MPL_malloc(recv_size);
rbuf = rcv_noncontig_buff;
rtype = PAMI_TYPE_BYTE;
if(rcv_noncontig_buff == NULL)
{
MPID_Abort(NULL, MPI_ERR_NO_SPACE, 1,
"Fatal: Cannot allocate pack buffer");
}
if(sendbuf == MPI_IN_PLACE)
{
size_t extent;
MPID_Datatype_get_extent_macro(recvtype,extent);
MPIR_Localcopy(recvbuf + displs[rank]*extent, recvcounts[rank], recvtype,
rcv_noncontig_buff + rdispls[rank], rcounts[rank],MPI_CHAR);
}
}
if(sendbuf == MPI_IN_PLACE)
{
gatherv.cmd.xfer_gatherv_int.sndbuf = PAMI_IN_PLACE;
}
else
{
gatherv.cmd.xfer_gatherv_int.sndbuf = sbuf;
}
gatherv.cmd.xfer_gatherv_int.stype = PAMI_TYPE_BYTE;/* stype is ignored when sndbuf == PAMI_IN_PLACE */
gatherv.cmd.xfer_gatherv_int.stypecount = send_size;
}
else
{
gatherv.cmd.xfer_gatherv_int.sndbuf = sbuf;
gatherv.cmd.xfer_gatherv_int.stype = PAMI_TYPE_BYTE;
gatherv.cmd.xfer_gatherv_int.stypecount = send_size;
}
gatherv.cb_done = cb_gatherv;
gatherv.cookie = (void *)&gatherv_active;
gatherv.cmd.xfer_gatherv_int.root = MPIDI_Task_to_endpoint(MPID_VCR_GET_LPID(comm_ptr->vcr, root), 0);
gatherv.cmd.xfer_gatherv_int.rcvbuf = rbuf;
gatherv.cmd.xfer_gatherv_int.rtype = rtype;
gatherv.cmd.xfer_gatherv_int.rtypecounts = (int *) rcounts;
gatherv.cmd.xfer_gatherv_int.rdispls = (int *) rdispls;
const pami_metadata_t *my_gatherv_md;
gatherv.algorithm = mpid->coll_algorithm[PAMI_XFER_GATHERV_INT][0][0];
my_gatherv_md = &mpid->coll_metadata[PAMI_XFER_GATHERV_INT][0][0];
MPIDI_Update_last_algorithm(comm_ptr, my_gatherv_md->name);
MPIDI_Post_coll_t gatherv_post;
TRACE_ERR("%s gatherv\n", MPIDI_Process.context_post.active>0?"Posting":"Invoking");
MPIDI_Context_post(MPIDI_Context[0], &gatherv_post.state,
MPIDI_Pami_post_wrapper, (void *)&gatherv);
TRACE_ERR("Gatherv %s\n", MPIDI_Process.context_post.active>0?"posted":"invoked");
TRACE_ERR("Waiting on active %d\n", gatherv_active);
MPID_PROGRESS_WAIT_WHILE(gatherv_active);
if(!rcv_contig || recvok != PAMI_SUCCESS)
{
if(recvcontinuous)
{
MPIR_Localcopy(rcv_noncontig_buff, recv_size, MPI_CHAR,
recvbuf, totalrecvcount, recvtype);
}
else
{
size_t extent;
MPID_Datatype_get_extent_macro(recvtype,extent);
for(i=0; i<size; ++i)
{
char* scbuf = (char*)rcv_noncontig_buff+ rdispls[i];
char* rcbuf = (char*)recvbuf + displs[i]*extent;
MPIR_Localcopy(scbuf, rcounts[i], MPI_CHAR,
rcbuf, recvcounts[i], recvtype);
TRACE_ERR("Pack recv src extent %zu, displ[%zu]=%zu, count[%zu]=%zu buf[%zu]=%u\n",
(size_t)extent, (size_t)i,(size_t)precvdispls[i],(size_t)i,(size_t)precvcounts[i],(size_t)precvdispls[i], *(int*)scbuf);
TRACE_ERR("Pack recv dest extent %zu, displ[%zu]=%zu, count[%zu]=%zu buf[%zu]=%u\n",
(size_t)extent, (size_t)i,(size_t)displs[i],(size_t)i,(size_t)recvcounts[i],(size_t)displs[i], *(int*)rcbuf);
}
}
MPL_free(rcv_noncontig_buff);
if(rank == root)
{
MPL_free(rcounts);
MPL_free(rdispls);
}
}
if(!snd_contig) MPL_free(snd_noncontig_buff);
TRACE_ERR("Leaving MPIDO_Gatherv_optimized\n");
return MPI_SUCCESS;
}
int MPIDO_Scatterv_simple(const void *sendbuf,
const int *sendcounts,
const int *displs,
MPI_Datatype sendtype,
void *recvbuf,
int recvcount,
MPI_Datatype recvtype,
int root,
MPID_Comm *comm_ptr,
int *mpierrno)
{
#ifndef HAVE_PAMI_IN_PLACE
if (sendbuf == MPI_IN_PLACE)
{
MPID_Abort (NULL, 0, 1, "'MPI_IN_PLACE' requries support for `PAMI_IN_PLACE`");
return -1;
}
#endif
int snd_contig = 1;
int rcv_contig = 1;
int send_size = 0, recv_size = 0;
int ssize = 0;
MPID_Datatype *dt_ptr = NULL;
MPI_Aint send_true_lb=0, recv_true_lb=0;
void *snd_noncontig_buff = NULL, *rcv_noncontig_buff = NULL;
void *sbuf = NULL, *rbuf = NULL;
int *sdispls = NULL, *scounts = NULL;
int sndcount = 0;
MPID_Segment segment;
int tmp, i;
pami_type_t stype = PAMI_TYPE_NULL;
const int rank = comm_ptr->rank;
const int size = comm_ptr->local_size;
const struct MPIDI_Comm* const mpid = &(comm_ptr->mpid);
if (rank == root && sendtype != MPI_DATATYPE_NULL && sendcounts[0] >= 0)
{
MPIDI_Datatype_get_info(1, sendtype, snd_contig, ssize, dt_ptr, send_true_lb);
if(MPIDI_Pamix_collsel_advise != NULL && mpid->collsel_fast_query != NULL)
{
advisor_algorithm_t advisor_algorithms[1];
int num_algorithms = MPIDI_Pamix_collsel_advise(mpid->collsel_fast_query, PAMI_XFER_SCATTERV_INT, 64, advisor_algorithms, 1);
if(num_algorithms)
{
if(advisor_algorithms[0].algorithm_type == COLLSEL_EXTERNAL_ALGO)
{
return MPIR_Scatterv(sendbuf, sendcounts, displs, sendtype,
recvbuf, recvcount, recvtype,
root, comm_ptr, mpierrno);
}
else if(advisor_algorithms[0].metadata && advisor_algorithms[0].metadata->check_correct.values.asyncflowctl && !(--(comm_ptr->mpid.num_requests)))
{
comm_ptr->mpid.num_requests = MPIDI_Process.optimized.num_requests;
int tmpmpierrno;
MPIDO_Barrier(comm_ptr, &tmpmpierrno);
}
}
}
}
if (recvtype != MPI_DATATYPE_NULL && recvcount >= 0)
{
MPIDI_Datatype_get_info(recvcount, recvtype, rcv_contig,
recv_size, dt_ptr, recv_true_lb);
if(MPIDI_Pamix_collsel_advise != NULL && mpid->collsel_fast_query != NULL)
{
advisor_algorithm_t advisor_algorithms[1];
int num_algorithms = MPIDI_Pamix_collsel_advise(mpid->collsel_fast_query, PAMI_XFER_SCATTERV_INT, 64, advisor_algorithms, 1);
if(num_algorithms)
{
if(advisor_algorithms[0].algorithm_type == COLLSEL_EXTERNAL_ALGO)
{
return MPIR_Scatterv(sendbuf, sendcounts, displs, sendtype,
recvbuf, recvcount, recvtype,
root, comm_ptr, mpierrno);
}
else if(advisor_algorithms[0].metadata && advisor_algorithms[0].metadata->check_correct.values.asyncflowctl && !(--(comm_ptr->mpid.num_requests)))
{
comm_ptr->mpid.num_requests = MPIDI_Process.optimized.num_requests;
int tmpmpierrno;
MPIDO_Barrier(comm_ptr, &tmpmpierrno);
}
}
}
}
pami_xfer_t scatterv;
const pami_metadata_t *my_scatterv_md;
volatile unsigned scatterv_active = 1;
sbuf = (char *)sendbuf + send_true_lb;
rbuf = (char *)recvbuf + recv_true_lb;
scounts = (int*)sendcounts;
sdispls = (int*)displs;
if(rank == root)
{
if(MPIDI_Datatype_to_pami(sendtype, &stype, -1, NULL, &tmp) != MPI_SUCCESS)
{
if (!snd_contig)
{
scounts = (int*)MPIU_Malloc(size);
sdispls = (int*)MPIU_Malloc(size);
for(i = 0; i < size; i++)
{
scounts[i] = ssize * sendcounts[i];
sdispls[i] = ssize * displs[i];
send_size += scounts[i];
sndcount += sendcounts[i];
}
snd_noncontig_buff = MPIU_Malloc(send_size);
sbuf = snd_noncontig_buff;
stype = PAMI_TYPE_BYTE;
if(snd_noncontig_buff == NULL)
{
MPID_Abort(NULL, MPI_ERR_NO_SPACE, 1,
"Fatal: Cannot allocate pack buffer");
}
DLOOP_Offset last = send_size;
MPID_Segment_init(sendbuf, sndcount, sendtype, &segment, 0);
MPID_Segment_pack(&segment, 0, &last, snd_noncontig_buff);
}
}
if(recvbuf == MPI_IN_PLACE)
{
rbuf = PAMI_IN_PLACE;
}
}
if(recvbuf != MPI_IN_PLACE)
{
if (!rcv_contig)
{
rcv_noncontig_buff = MPIU_Malloc(recv_size);
rbuf = rcv_noncontig_buff;
if(rcv_noncontig_buff == NULL)
{
MPID_Abort(NULL, MPI_ERR_NO_SPACE, 1,
"Fatal: Cannot allocate pack buffer");
}
}
}
scatterv.cb_done = cb_scatterv;
scatterv.cookie = (void *)&scatterv_active;
scatterv.cmd.xfer_scatterv_int.root = MPIDI_Task_to_endpoint(MPID_VCR_GET_LPID(comm_ptr->vcr, root), 0);
scatterv.algorithm = mpid->coll_algorithm[PAMI_XFER_SCATTERV_INT][0][0];
my_scatterv_md = &mpid->coll_metadata[PAMI_XFER_SCATTERV_INT][0][0];
scatterv.cmd.xfer_scatterv_int.rcvbuf = rbuf;
scatterv.cmd.xfer_scatterv_int.sndbuf = sbuf;
scatterv.cmd.xfer_scatterv_int.stype = stype;
scatterv.cmd.xfer_scatterv_int.rtype = PAMI_TYPE_BYTE;/* rtype is ignored when rcvbuf == PAMI_IN_PLACE */
scatterv.cmd.xfer_scatterv_int.stypecounts = (int *) scounts;
scatterv.cmd.xfer_scatterv_int.rtypecount = recv_size;
scatterv.cmd.xfer_scatterv_int.sdispls = (int *) sdispls;
MPIDI_Update_last_algorithm(comm_ptr, my_scatterv_md->name);
MPIDI_Post_coll_t scatterv_post;
TRACE_ERR("%s scatterv\n", MPIDI_Process.context_post.active>0?"Posting":"Invoking");
MPIDI_Context_post(MPIDI_Context[0], &scatterv_post.state,
MPIDI_Pami_post_wrapper, (void *)&scatterv);
TRACE_ERR("Waiting on active %d\n", scatterv_active);
MPID_PROGRESS_WAIT_WHILE(scatterv_active);
if(!rcv_contig)
{
MPIR_Localcopy(rcv_noncontig_buff, recv_size, MPI_CHAR,
recvbuf, recvcount, recvtype);
MPIU_Free(rcv_noncontig_buff);
}
if(!snd_contig)
{
MPIU_Free(snd_noncontig_buff);
MPIU_Free(scounts);
MPIU_Free(sdispls);
}
TRACE_ERR("Leaving MPIDO_Scatterv_optimized\n");
return MPI_SUCCESS;
}
int MPIDO_Bcast(void *buffer,
int count,
MPI_Datatype datatype,
int root,
MPID_Comm *comm_ptr,
int *mpierrno)
{
TRACE_ERR("in mpido_bcast\n");
const size_t BCAST_LIMIT = 0x40000000;
int data_contig, rc;
void *data_buffer = NULL,
*noncontig_buff = NULL;
volatile unsigned active = 1;
MPI_Aint data_true_lb = 0;
MPID_Datatype *data_ptr;
MPID_Segment segment;
MPIDI_Post_coll_t bcast_post;
const struct MPIDI_Comm* const mpid = &(comm_ptr->mpid);
const int rank = comm_ptr->rank;
#if ASSERT_LEVEL==0
/* We can't afford the tracing in ndebug/performance libraries */
const unsigned verbose = 0;
#else
const unsigned verbose = (MPIDI_Process.verbose >= MPIDI_VERBOSE_DETAILS_ALL) && (rank == 0);
#endif
const int selected_type = mpid->user_selected_type[PAMI_XFER_BROADCAST];
/* Must calculate data_size based on count=1 in case it's total size is > integer */
int data_size_one;
MPIDI_Datatype_get_info(1, datatype,
data_contig, data_size_one, data_ptr, data_true_lb);
/* do this calculation once and use twice */
const size_t data_size_sz = (size_t)data_size_one*(size_t)count;
if(unlikely(verbose))
fprintf(stderr,"bcast count %d, size %d (%#zX), root %d, buffer %p\n",
count,data_size_one, (size_t)data_size_one*(size_t)count, root,buffer);
if(unlikely( data_size_sz > BCAST_LIMIT) )
{
void *new_buffer=buffer;
int c, new_count = (int)BCAST_LIMIT/data_size_one;
MPID_assert(new_count > 0);
for(c=1; ((size_t)c*(size_t)new_count) <= (size_t)count; ++c)
{
if ((rc = MPIDO_Bcast(new_buffer,
new_count,
datatype,
root,
comm_ptr,
mpierrno)) != MPI_SUCCESS)
return rc;
new_buffer = (char*)new_buffer + (size_t)data_size_one*(size_t)new_count;
}
new_count = count % new_count; /* 0 is ok, just returns no-op */
return MPIDO_Bcast(new_buffer,
new_count,
datatype,
root,
comm_ptr,
mpierrno);
}
/* Must use data_size based on count for byte bcast processing.
Previously calculated as a size_t but large data_sizes were
handled above so this cast to int should be fine here.
*/
const int data_size = (int)data_size_sz;
if(selected_type == MPID_COLL_USE_MPICH || data_size == 0)
{
if(unlikely(verbose))
fprintf(stderr,"Using MPICH bcast algorithm\n");
MPIDI_Update_last_algorithm(comm_ptr,"BCAST_MPICH");
return MPIR_Bcast_intra(buffer, count, datatype, root, comm_ptr, mpierrno);
}
data_buffer = (char *)buffer + data_true_lb;
if(!data_contig)
{
noncontig_buff = MPIU_Malloc(data_size);
data_buffer = noncontig_buff;
if(noncontig_buff == NULL)
{
MPID_Abort(NULL, MPI_ERR_NO_SPACE, 1,
"Fatal: Cannot allocate pack buffer");
}
if(rank == root)
{
DLOOP_Offset last = data_size;
MPID_Segment_init(buffer, count, datatype, &segment, 0);
MPID_Segment_pack(&segment, 0, &last, noncontig_buff);
}
}
pami_xfer_t bcast;
pami_algorithm_t my_bcast;
const pami_metadata_t *my_md = (pami_metadata_t *)NULL;
int queryreq = 0;
bcast.cb_done = cb_bcast;
bcast.cookie = (void *)&active;
bcast.cmd.xfer_broadcast.root = MPIDI_Task_to_endpoint(MPID_VCR_GET_LPID(comm_ptr->vcr, root), 0);
bcast.algorithm = mpid->user_selected[PAMI_XFER_BROADCAST];
bcast.cmd.xfer_broadcast.buf = data_buffer;
bcast.cmd.xfer_broadcast.type = PAMI_TYPE_BYTE;
/* Needs to be sizeof(type)*count since we are using bytes as * the generic type */
bcast.cmd.xfer_broadcast.typecount = data_size;
if(selected_type == MPID_COLL_OPTIMIZED)
{
TRACE_ERR("Optimized bcast (%s) and (%s) were pre-selected\n",
mpid->opt_protocol_md[PAMI_XFER_BROADCAST][0].name,
mpid->opt_protocol_md[PAMI_XFER_BROADCAST][1].name);
if(mpid->cutoff_size[PAMI_XFER_BROADCAST][1] != 0)/* SSS: There is FCA cutoff (FCA only sets cutoff for [PAMI_XFER_BROADCAST][1]) */
{
if(data_size <= mpid->cutoff_size[PAMI_XFER_BROADCAST][1])
{
my_bcast = mpid->opt_protocol[PAMI_XFER_BROADCAST][1];
my_md = &mpid->opt_protocol_md[PAMI_XFER_BROADCAST][1];
queryreq = mpid->must_query[PAMI_XFER_BROADCAST][1];
}
else
{
return MPIR_Bcast_intra(buffer, count, datatype, root, comm_ptr, mpierrno);
}
}
if(data_size > mpid->cutoff_size[PAMI_XFER_BROADCAST][0])
{
my_bcast = mpid->opt_protocol[PAMI_XFER_BROADCAST][1];
my_md = &mpid->opt_protocol_md[PAMI_XFER_BROADCAST][1];
queryreq = mpid->must_query[PAMI_XFER_BROADCAST][1];
}
else
{
my_bcast = mpid->opt_protocol[PAMI_XFER_BROADCAST][0];
my_md = &mpid->opt_protocol_md[PAMI_XFER_BROADCAST][0];
queryreq = mpid->must_query[PAMI_XFER_BROADCAST][0];
}
}
else
{
TRACE_ERR("Bcast (%s) was specified by user\n",
mpid->user_metadata[PAMI_XFER_BROADCAST].name);
my_bcast = mpid->user_selected[PAMI_XFER_BROADCAST];
my_md = &mpid->user_metadata[PAMI_XFER_BROADCAST];
queryreq = selected_type;
}
bcast.algorithm = my_bcast;
if(unlikely(queryreq == MPID_COLL_ALWAYS_QUERY ||
queryreq == MPID_COLL_CHECK_FN_REQUIRED))
{
metadata_result_t result = {0};
TRACE_ERR("querying bcast protocol %s, type was: %d\n",
my_md->name, queryreq);
if(my_md->check_fn != NULL) /* calling the check fn is sufficient */
{
metadata_result_t result = {0};
result = my_md->check_fn(&bcast);
result.check.nonlocal = 0; /* #warning REMOVE THIS WHEN IMPLEMENTED */
}
else /* no check_fn, manually look at the metadata fields */
{
TRACE_ERR("Optimzed selection line %d\n",__LINE__);
/* Check if the message range if restricted */
if(my_md->check_correct.values.rangeminmax)
{
if((my_md->range_lo <= data_size) &&
(my_md->range_hi >= data_size))
; /* ok, algorithm selected */
else
{
result.check.range = 1;
if(unlikely(verbose))
{
fprintf(stderr,"message size (%u) outside range (%zu<->%zu) for %s.\n",
data_size,
my_md->range_lo,
my_md->range_hi,
my_md->name);
}
}
}
/* \todo check the rest of the metadata */
}
TRACE_ERR("bitmask: %#X\n", result.bitmask);
if(result.bitmask)
{
if(unlikely(verbose))
fprintf(stderr,"Using MPICH bcast algorithm - query fn failed\n");
MPIDI_Update_last_algorithm(comm_ptr,"BCAST_MPICH");
return MPIR_Bcast_intra(buffer, count, datatype, root, comm_ptr, mpierrno);
}
if(my_md->check_correct.values.asyncflowctl && !(--(comm_ptr->mpid.num_requests)))
{
comm_ptr->mpid.num_requests = MPIDI_Process.optimized.num_requests;
int tmpmpierrno;
if(unlikely(verbose))
fprintf(stderr,"Query barrier required for %s\n", my_md->name);
MPIDO_Barrier(comm_ptr, &tmpmpierrno);
}
}
if(unlikely(verbose))
{
unsigned long long int threadID;
MPIU_Thread_id_t tid;
MPIU_Thread_self(&tid);
threadID = (unsigned long long int)tid;
fprintf(stderr,"<%llx> Using protocol %s for bcast on %u\n",
threadID,
my_md->name,
(unsigned) comm_ptr->context_id);
}
MPIDI_Context_post(MPIDI_Context[0], &bcast_post.state, MPIDI_Pami_post_wrapper, (void *)&bcast);
MPIDI_Update_last_algorithm(comm_ptr, my_md->name);
MPID_PROGRESS_WAIT_WHILE(active);
TRACE_ERR("bcast done\n");
if(!data_contig)
{
if(rank != root)
MPIR_Localcopy(noncontig_buff, data_size, MPI_CHAR,
buffer, count, datatype);
MPIU_Free(noncontig_buff);
}
TRACE_ERR("leaving bcast\n");
return 0;
}
int MPIDO_Bcast_simple(void *buffer,
int count,
MPI_Datatype datatype,
int root,
MPID_Comm *comm_ptr,
int *mpierrno)
{
TRACE_ERR("Entering MPIDO_Bcast_optimized\n");
int data_contig;
void *data_buffer = NULL,
*noncontig_buff = NULL;
volatile unsigned active = 1;
MPI_Aint data_true_lb = 0;
MPID_Datatype *data_ptr;
MPID_Segment segment;
MPIDI_Post_coll_t bcast_post;
const struct MPIDI_Comm* const mpid = &(comm_ptr->mpid);
const int rank = comm_ptr->rank;
/* Must calculate data_size based on count=1 in case it's total size is > integer */
int data_size_one;
MPIDI_Datatype_get_info(1, datatype,
data_contig, data_size_one, data_ptr, data_true_lb);
if(MPIDI_Pamix_collsel_advise != NULL && mpid->collsel_fast_query != NULL)
{
advisor_algorithm_t advisor_algorithms[1];
int num_algorithms = MPIDI_Pamix_collsel_advise(mpid->collsel_fast_query, PAMI_XFER_BROADCAST, data_size_one * count, advisor_algorithms, 1);
if(num_algorithms)
{
if(advisor_algorithms[0].algorithm_type == COLLSEL_EXTERNAL_ALGO)
{
return MPIR_Bcast_intra(buffer, count, datatype, root, comm_ptr, mpierrno);
}
}
}
const int data_size = data_size_one*(size_t)count;
data_buffer = (char *)buffer + data_true_lb;
if(!data_contig)
{
noncontig_buff = MPIU_Malloc(data_size);
data_buffer = noncontig_buff;
if(noncontig_buff == NULL)
{
MPID_Abort(NULL, MPI_ERR_NO_SPACE, 1,
"Fatal: Cannot allocate pack buffer");
}
if(rank == root)
{
DLOOP_Offset last = data_size;
MPID_Segment_init(buffer, count, datatype, &segment, 0);
MPID_Segment_pack(&segment, 0, &last, noncontig_buff);
}
}
pami_xfer_t bcast;
const pami_metadata_t *my_bcast_md;
int queryreq = 0;
bcast.cb_done = cb_bcast;
bcast.cookie = (void *)&active;
bcast.cmd.xfer_broadcast.root = MPIDI_Task_to_endpoint(MPID_VCR_GET_LPID(comm_ptr->vcr, root), 0);
bcast.algorithm = mpid->coll_algorithm[PAMI_XFER_BROADCAST][0][0];
bcast.cmd.xfer_broadcast.buf = data_buffer;
bcast.cmd.xfer_broadcast.type = PAMI_TYPE_BYTE;
/* Needs to be sizeof(type)*count since we are using bytes as * the generic type */
bcast.cmd.xfer_broadcast.typecount = data_size;
my_bcast_md = &mpid->coll_metadata[PAMI_XFER_BROADCAST][0][0];
MPIDI_Context_post(MPIDI_Context[0], &bcast_post.state, MPIDI_Pami_post_wrapper, (void *)&bcast);
MPIDI_Update_last_algorithm(comm_ptr, my_bcast_md->name);
MPID_PROGRESS_WAIT_WHILE(active);
TRACE_ERR("bcast done\n");
if(!data_contig)
{
if(rank != root)
MPIR_Localcopy(noncontig_buff, data_size, MPI_CHAR,
buffer, count, datatype);
MPIU_Free(noncontig_buff);
}
TRACE_ERR("Exiting MPIDO_Bcast_optimized\n");
return 0;
}
int MPIDO_Reduce(const void *sendbuf,
void *recvbuf,
int count,
MPI_Datatype datatype,
MPI_Op op,
int root,
MPID_Comm *comm_ptr,
int *mpierrno)
{
#ifndef HAVE_PAMI_IN_PLACE
if (sendbuf == MPI_IN_PLACE)
{
MPID_Abort (NULL, 0, 1, "'MPI_IN_PLACE' requries support for `PAMI_IN_PLACE`");
return -1;
}
#endif
MPID_Datatype *dt_null = NULL;
MPI_Aint true_lb = 0;
int dt_contig ATTRIBUTE((unused)), tsize;
int mu;
char *sbuf, *rbuf;
pami_data_function pop;
pami_type_t pdt;
int rc;
int alg_selected = 0;
const int rank = comm_ptr->rank;
#if ASSERT_LEVEL==0
/* We can't afford the tracing in ndebug/performance libraries */
const unsigned verbose = 0;
#else
const unsigned verbose = (MPIDI_Process.verbose >= MPIDI_VERBOSE_DETAILS_ALL) && (rank == 0);
#endif
const struct MPIDI_Comm* const mpid = &(comm_ptr->mpid);
const int selected_type = mpid->user_selected_type[PAMI_XFER_REDUCE];
rc = MPIDI_Datatype_to_pami(datatype, &pdt, op, &pop, &mu);
if(unlikely(verbose))
fprintf(stderr,"reduce - rc %u, root %u, count %d, dt: %p, op: %p, mu: %u, selectedvar %u != %u (MPICH) sendbuf %p, recvbuf %p\n",
rc, root, count, pdt, pop, mu,
(unsigned)selected_type, MPID_COLL_USE_MPICH,sendbuf, recvbuf);
pami_xfer_t reduce;
pami_algorithm_t my_reduce=0;
const pami_metadata_t *my_md = (pami_metadata_t *)NULL;
int queryreq = 0;
volatile unsigned reduce_active = 1;
MPIDI_Datatype_get_info(count, datatype, dt_contig, tsize, dt_null, true_lb);
rbuf = (char *)recvbuf + true_lb;
sbuf = (char *)sendbuf + true_lb;
if(sendbuf == MPI_IN_PLACE)
{
if(unlikely(verbose))
fprintf(stderr,"reduce MPI_IN_PLACE send buffering (%d,%d)\n",count,tsize);
sbuf = PAMI_IN_PLACE;
}
reduce.cb_done = reduce_cb_done;
reduce.cookie = (void *)&reduce_active;
if(mpid->optreduce) /* GLUE_ALLREDUCE */
{
char* tbuf = NULL;
if(unlikely(verbose))
fprintf(stderr,"Using protocol GLUE_ALLREDUCE for reduce (%d,%d)\n",count,tsize);
MPIDI_Update_last_algorithm(comm_ptr, "REDUCE_OPT_ALLREDUCE");
void *destbuf = recvbuf;
if(rank != root) /* temp buffer for non-root destbuf */
{
tbuf = destbuf = MPL_malloc(tsize);
}
/* Switch to comm->coll_fns->fn() */
MPIDO_Allreduce(sendbuf,
destbuf,
count,
datatype,
op,
comm_ptr,
mpierrno);
if(tbuf)
MPL_free(tbuf);
return 0;
}
if(selected_type == MPID_COLL_USE_MPICH || rc != MPI_SUCCESS)
{
if(unlikely(verbose))
fprintf(stderr,"Using MPICH reduce algorithm\n");
#if CUDA_AWARE_SUPPORT
if(MPIDI_Process.cuda_aware_support_on)
{
MPI_Aint dt_extent;
MPID_Datatype_get_extent_macro(datatype, dt_extent);
char *scbuf = NULL;
char *rcbuf = NULL;
int is_send_dev_buf = MPIDI_cuda_is_device_buf(sendbuf);
int is_recv_dev_buf = MPIDI_cuda_is_device_buf(recvbuf);
if(is_send_dev_buf)
{
scbuf = MPL_malloc(dt_extent * count);
cudaError_t cudaerr = CudaMemcpy(scbuf, sendbuf, dt_extent * count, cudaMemcpyDeviceToHost);
if (cudaSuccess != cudaerr)
fprintf(stderr, "cudaMemcpy failed: %s\n", CudaGetErrorString(cudaerr));
}
else
scbuf = sendbuf;
if(is_recv_dev_buf)
{
rcbuf = MPL_malloc(dt_extent * count);
if(sendbuf == MPI_IN_PLACE)
{
cudaError_t cudaerr = CudaMemcpy(rcbuf, recvbuf, dt_extent * count, cudaMemcpyDeviceToHost);
if (cudaSuccess != cudaerr)
fprintf(stderr, "cudaMemcpy failed: %s\n", CudaGetErrorString(cudaerr));
}
else
memset(rcbuf, 0, dt_extent * count);
}
else
rcbuf = recvbuf;
int cuda_res = MPIR_Reduce(scbuf, rcbuf, count, datatype, op, root, comm_ptr, mpierrno);
if(is_send_dev_buf)MPL_free(scbuf);
if(is_recv_dev_buf)
{
cudaError_t cudaerr = CudaMemcpy(recvbuf, rcbuf, dt_extent * count, cudaMemcpyHostToDevice);
if (cudaSuccess != cudaerr)
fprintf(stderr, "cudaMemcpy failed: %s\n", CudaGetErrorString(cudaerr));
MPL_free(rcbuf);
}
return cuda_res;
}
else
#endif
return MPIR_Reduce(sendbuf, recvbuf, count, datatype, op, root, comm_ptr, mpierrno);
}
if(selected_type == MPID_COLL_OPTIMIZED)
{
if((mpid->cutoff_size[PAMI_XFER_REDUCE][0] == 0) ||
(mpid->cutoff_size[PAMI_XFER_REDUCE][0] >= tsize && mpid->cutoff_size[PAMI_XFER_REDUCE][0] > 0))
{
TRACE_ERR("Optimized Reduce (%s) was pre-selected\n",
mpid->opt_protocol_md[PAMI_XFER_REDUCE][0].name);
my_reduce = mpid->opt_protocol[PAMI_XFER_REDUCE][0];
my_md = &mpid->opt_protocol_md[PAMI_XFER_REDUCE][0];
queryreq = mpid->must_query[PAMI_XFER_REDUCE][0];
}
}
else
{
TRACE_ERR("Optimized reduce (%s) was specified by user\n",
mpid->user_metadata[PAMI_XFER_REDUCE].name);
my_reduce = mpid->user_selected[PAMI_XFER_REDUCE];
my_md = &mpid->user_metadata[PAMI_XFER_REDUCE];
queryreq = selected_type;
}
reduce.algorithm = my_reduce;
reduce.cmd.xfer_reduce.sndbuf = sbuf;
reduce.cmd.xfer_reduce.rcvbuf = rbuf;
reduce.cmd.xfer_reduce.stype = pdt;
reduce.cmd.xfer_reduce.rtype = pdt;
reduce.cmd.xfer_reduce.stypecount = count;
reduce.cmd.xfer_reduce.rtypecount = count;
reduce.cmd.xfer_reduce.op = pop;
reduce.cmd.xfer_reduce.root = MPIDI_Task_to_endpoint(MPID_VCR_GET_LPID(comm_ptr->vcr, root), 0);
if(unlikely(queryreq == MPID_COLL_ALWAYS_QUERY ||
queryreq == MPID_COLL_CHECK_FN_REQUIRED))
{
metadata_result_t result = {0};
TRACE_ERR("Querying reduce protocol %s, type was %d\n",
my_md->name,
queryreq);
if(my_md->check_fn == NULL)
{
/* process metadata bits */
if((!my_md->check_correct.values.inplace) && (sendbuf == MPI_IN_PLACE))
result.check.unspecified = 1;
if(my_md->check_correct.values.rangeminmax)
{
MPI_Aint data_true_lb ATTRIBUTE((unused));
MPID_Datatype *data_ptr;
int data_size, data_contig ATTRIBUTE((unused));
MPIDI_Datatype_get_info(count, datatype, data_contig, data_size, data_ptr, data_true_lb);
if((my_md->range_lo <= data_size) &&
(my_md->range_hi >= data_size))
; /* ok, algorithm selected */
else
{
result.check.range = 1;
if(unlikely(verbose))
{
fprintf(stderr,"message size (%u) outside range (%zu<->%zu) for %s.\n",
data_size,
my_md->range_lo,
my_md->range_hi,
my_md->name);
}
}
}
}
