1
1

Dynamic Connection management is now working using

OOB non-blocking sends and receives.

This commit was SVN r2568.
Этот коммит содержится в:
Sayantan Sur 2004-09-09 20:33:28 +00:00
родитель e1c71f8c9a
Коммит 81df1c97b6
12 изменённых файлов: 902 добавлений и 917 удалений

Просмотреть файл

@ -47,9 +47,7 @@ int mca_ptl_ib_add_procs(struct mca_ptl_base_module_t* base_module,
{
int i, rc;
struct ompi_proc_t* ompi_proc;
mca_ptl_ib_proc_t* module_proc;
mca_ptl_base_peer_t* module_peer;
D_PRINT("Adding %d procs\n", nprocs);
@ -99,6 +97,9 @@ int mca_ptl_ib_add_procs(struct mca_ptl_base_module_t* base_module,
OMPI_THREAD_UNLOCK(&module_proc->proc_lock);
peers[i] = module_peer;
}
D_PRINT("Added %d procs\n", nprocs);
return OMPI_SUCCESS;
}
@ -122,16 +123,16 @@ int mca_ptl_ib_finalize(struct mca_ptl_base_module_t* ptl)
int mca_ptl_ib_request_init( struct mca_ptl_base_module_t* ptl,
struct mca_pml_base_send_request_t* request)
{
/* Stub */
D_PRINT("Stub\n");
D_PRINT("");
OBJ_CONSTRUCT(request+1, mca_ptl_ib_send_frag_t);
return OMPI_SUCCESS;
}
void mca_ptl_ib_request_fini( struct mca_ptl_base_module_t* ptl,
struct mca_pml_base_send_request_t* request)
{
/* Stub */
D_PRINT("Stub\n");
D_PRINT("");
OBJ_DESTRUCT(request+1);
}
/*
@ -148,95 +149,32 @@ int mca_ptl_ib_send( struct mca_ptl_base_module_t* ptl,
size_t size,
int flags)
{
int rc;
VAPI_ret_t ret;
mca_ptl_ib_send_frag_t* sendfrag;
ompi_list_item_t* item;
vapi_descriptor_t* desc;
mca_ptl_base_header_t *hdr;
int header_length;
int rc;
if (0 == offset) {
sendfrag = &((mca_ptl_ib_send_request_t*)sendreq)->req_frag;
} else {
ompi_list_item_t* item;
OMPI_FREE_LIST_GET(&mca_ptl_ib_component.ib_send_frags, item, rc);
if(NULL == (sendfrag = (mca_ptl_ib_send_frag_t*)item)) {
return rc;
}
}
hdr = (mca_ptl_base_header_t *)
ptl_peer->peer_module->send_buf[0].buf;
if(offset == 0) {
hdr->hdr_common.hdr_type = MCA_PTL_HDR_TYPE_MATCH;
hdr->hdr_common.hdr_flags = flags;
hdr->hdr_common.hdr_size = sizeof (mca_ptl_base_match_header_t);
hdr->hdr_frag.hdr_frag_offset = offset;
hdr->hdr_frag.hdr_frag_seq = 0;
/* Frag descriptor, so that incoming ack
* will locate it */
hdr->hdr_frag.hdr_src_ptr.lval = 0;
hdr->hdr_frag.hdr_src_ptr.pval = sendfrag;
hdr->hdr_frag.hdr_dst_ptr.pval = 0;
hdr->hdr_frag.hdr_dst_ptr.lval = 0;
hdr->hdr_match.hdr_contextid = sendreq->req_base.req_comm->c_contextid;
hdr->hdr_match.hdr_src = sendreq->req_base.req_comm->c_my_rank;
hdr->hdr_match.hdr_dst = sendreq->req_base.req_peer;
hdr->hdr_match.hdr_tag = sendreq->req_base.req_tag;
hdr->hdr_match.hdr_msg_length = sendreq->req_bytes_packed;
hdr->hdr_match.hdr_msg_seq = sendreq->req_base.req_sequence;
header_length = sizeof (mca_ptl_base_match_header_t);
} else {
hdr->hdr_common.hdr_type = MCA_PTL_HDR_TYPE_FRAG;
hdr->hdr_common.hdr_flags = flags;
hdr->hdr_common.hdr_size = sizeof (mca_ptl_base_frag_header_t);
hdr->hdr_frag.hdr_frag_offset = offset;
hdr->hdr_frag.hdr_frag_seq = 0;
hdr->hdr_frag.hdr_src_ptr.lval = 0;
hdr->hdr_frag.hdr_src_ptr.pval = sendfrag; /* Frag descriptor */
hdr->hdr_frag.hdr_dst_ptr = sendreq->req_peer_match;
header_length = sizeof (mca_ptl_base_frag_header_t);
rc = mca_ptl_ib_send_frag_init(sendfrag, ptl_peer,
sendreq, offset, &size, flags);
if(rc != OMPI_SUCCESS) {
return rc;
}
ptl_peer->peer_module->send_buf[0].req = &sendreq->req_base;
/* Update the offset after actual fragment size is determined,
* and before attempting to send the fragment */
sendreq->req_offset += size;
desc = &ptl_peer->peer_module->send_buf[0].desc;
rc = mca_ptl_ib_peer_send(ptl_peer, sendfrag);
desc->sr.comp_type = VAPI_SIGNALED;
desc->sr.opcode = VAPI_SEND;
desc->sr.remote_qkey = 0;
desc->sr.remote_qp = ptl_peer->peer_proc->proc_addrs[0].qp_num;
desc->sr.id = &ptl_peer->peer_module->send_buf[0];
desc->sr.sg_lst_len = 1;
desc->sr.sg_lst_p = &(desc->sg_entry);
/* Copy the data stuff */
/* Check this later on ... */
memcpy((void*)((char*)ptl_peer->peer_module->send_buf[0].buf +
header_length), sendreq->req_base.req_addr,
size);
desc->sg_entry.len = header_length + size;
D_PRINT("Sent length : %d\n", desc->sg_entry.len);
desc->sg_entry.lkey = ptl_peer->peer_module->send_buf_hndl.lkey;
desc->sg_entry.addr = (VAPI_virt_addr_t) (MT_virt_addr_t)
(ptl_peer->peer_module->send_buf[0].buf);
ret = VAPI_post_sr(ptl_peer->peer_module->nic,
ptl_peer->peer_module->my_qp_hndl,
&desc->sr);
if(VAPI_OK != ret) {
MCA_PTL_IB_VAPI_RET(ret, "VAPI_post_sr");
return OMPI_ERROR;
}
return OMPI_SUCCESS;
return rc;
}

Просмотреть файл

@ -35,21 +35,50 @@
*/
struct mca_ptl_ib_component_t {
mca_ptl_base_component_1_0_0_t super; /**< base PTL component */
struct mca_ptl_ib_module_t** ib_ptl_modules; /**< array of available PTLs */
uint32_t ib_num_ptl_modules; /**< number of ptl modules actually used */
uint32_t ib_max_ptl_modules; /**< maximum number of ptls */
int ib_free_list_num; /**< initial size of free lists */
int ib_free_list_max; /**< maximum size of free lists */
int ib_free_list_inc; /**< number of elements to alloc when growing free lists */
ompi_free_list_t ib_send_requests; /**< free list of ib send requests -- sendreq + IB */
ompi_free_list_t ib_send_frags; /**< free list of ib send fragments */
ompi_free_list_t ib_recv_frags; /**< free list of ib recv fragments */
ompi_list_t ib_procs; /**< list of ib proc structures */
ompi_event_t ib_send_event; /**< event structure for sends */
ompi_event_t ib_recv_event; /**< event structure for recvs */
ompi_mutex_t ib_lock; /**< lock for accessing module state */
uint32_t ib_num_hcas; /* number of hcas available to the IB component */
mca_ptl_base_component_1_0_0_t super;
/**< base PTL component */
struct mca_ptl_ib_module_t **ib_ptl_modules;
/**< array of available PTLs */
uint32_t ib_num_ptl_modules;
/**< number of ptl modules actually used */
uint32_t ib_max_ptl_modules;
/**< maximum number of ptls */
int ib_free_list_num;
/**< initial size of free lists */
int ib_free_list_max;
/**< maximum size of free lists */
int ib_free_list_inc;
/**< number of elements to alloc when growing free lists */
ompi_free_list_t ib_send_requests;
/**< free list of ib send requests -- sendreq + IB */
ompi_free_list_t ib_send_frags;
/**< free list of ib send fragments */
ompi_free_list_t ib_recv_frags;
/**< free list of ib recv fragments */
ompi_list_t ib_procs;
/**< list of ib proc structures */
ompi_event_t ib_send_event;
/**< event structure for sends */
ompi_event_t ib_recv_event;
/**< event structure for recvs */
ompi_mutex_t ib_lock;
/**< lock for accessing module state */
uint32_t ib_num_hcas;
/* number of hcas available to the IB component */
};
typedef struct mca_ptl_ib_component_t mca_ptl_ib_component_t;
struct mca_ptl_ib_recv_frag_t;
@ -61,38 +90,10 @@ extern mca_ptl_ib_component_t mca_ptl_ib_component;
*/
struct mca_ptl_ib_module_t {
mca_ptl_base_module_t super; /**< base PTL interface */
VAPI_hca_id_t hca_id; /* ID of HCA this PTL is tied to */
VAPI_hca_port_t port; /* InfiniBand port of this PTL */
VAPI_hca_hndl_t nic; /* NIC handle */
VAPI_pd_hndl_t ptag; /* Protection Domain tag */
VAPI_cq_hndl_t cq_hndl; /* Completion Queue handle */
EVAPI_async_handler_hndl_t async_handler; /* Async event handler used to detect
weird events */
VAPI_cq_hndl_t ud_scq_hndl;/* UD send completion queue handle */
VAPI_cq_hndl_t ud_rcq_hndl;/* UD recv completion queue handle */
mca_ptl_ib_ud_buf_ctrl_t* ud_recv; /* Link to UD recv buffer structures */
mca_ptl_ib_ud_buf_ctrl_t* ud_send; /* Link to UD bufs which are used for sending */
VAPI_qp_hndl_t ud_qp_hndl; /* UD queue pair handle */
VAPI_qp_prop_t ud_qp_prop; /* UD queue pair properties */
VAPI_rr_desc_t* ud_rr_hndl; /* UD receive descriptor pool */
VAPI_completion_event_handler_t ud_comp_ev_handler; /* UD completion handler */
EVAPI_compl_handler_hndl_t ud_comp_ev_hndl; /* UD completion handler handle */
/* Temporary fields remove after dynamic connection
* management is in place */
VAPI_qp_hndl_t my_qp_hndl;
VAPI_qp_prop_t my_qp_prop;
/* Circular buffers */
mca_ptl_ib_send_buf_t* send_buf;
int send_index;
mca_ptl_ib_recv_buf_t* recv_buf;
int recv_index;
vapi_memhandle_t send_buf_hndl;
vapi_memhandle_t recv_buf_hndl;
/* IB state holds info about queue handles, HCA handles,
* protection domain etc. which are private to this module */
mca_ptl_ib_state_t *ib_state;
};
typedef struct mca_ptl_ib_module_t mca_ptl_ib_module_t;

Просмотреть файл

@ -135,6 +135,7 @@ int mca_ptl_ib_component_close(void)
static int mca_ptl_ib_component_send(void)
{
#if 0
int i, rc, size;
mca_ptl_ib_ud_addr_t* ud_qp_addr = NULL;
@ -171,6 +172,8 @@ static int mca_ptl_ib_component_send(void)
free(ud_qp_addr);
return rc;
#endif
return OMPI_SUCCESS;
}
/*
@ -238,6 +241,8 @@ mca_ptl_base_module_t** mca_ptl_ib_component_init(int *num_ptl_modules,
mca_ptl_ib_component.ib_max_ptl_modules =
mca_ptl_ib_component.ib_num_hcas;
/* Allocate space for number of modules available
* to this component */
ib_modules = (mca_ptl_ib_module_t*) malloc(sizeof(mca_ptl_ib_module_t) *
mca_ptl_ib_component.ib_num_ptl_modules);
if(NULL == ib_modules) {
@ -255,132 +260,27 @@ mca_ptl_base_module_t** mca_ptl_ib_component_init(int *num_ptl_modules,
sizeof(mca_ptl_ib_module));
}
/* For each module, do this */
/* For each module, Initialize! */
for(i = 0; i < mca_ptl_ib_component.ib_num_ptl_modules; i++) {
if(mca_ptl_ib_get_hca_id(i, &ib_modules[i].hca_id)
/* Allocate space for the state of the IB module */
ib_modules[i].ib_state = malloc(sizeof(mca_ptl_ib_state_t));
if(NULL == ib_modules[i].ib_state) {
return NULL;
}
if(mca_ptl_ib_init_module(ib_modules[i].ib_state, i)
!= OMPI_SUCCESS) {
return NULL;
}
D_PRINT("hca_id: %s\n", ib_modules[i].hca_id);
if(mca_ptl_ib_get_hca_hndl(ib_modules[i].hca_id, &ib_modules[i].nic)
!= OMPI_SUCCESS) {
return NULL;
}
D_PRINT("hca_hndl: %d\n", ib_modules[i].nic);
if(mca_ptl_ib_alloc_pd(ib_modules[i].nic, &ib_modules[i].ptag)
!= OMPI_SUCCESS) {
return NULL;
}
D_PRINT("Protection Domain: %d\n", ib_modules[i].ptag);
/* Each HCA uses only port 1. Need to change
* this so that each ptl can choose different
* ports */
if(mca_ptl_ib_query_hca_prop(ib_modules[i].nic, &ib_modules[i].port)
!= OMPI_SUCCESS) {
return NULL;
}
D_PRINT("LID: %d\n", ib_modules[i].port.lid);
if(mca_ptl_ib_create_cq(ib_modules[i].nic, &ib_modules[i].cq_hndl)
!= OMPI_SUCCESS) {
return NULL;
}
D_PRINT("CQ handle: %d\n", ib_modules[i].cq_hndl);
if(mca_ptl_ib_create_cq(ib_modules[i].nic, &ib_modules[i].ud_scq_hndl)
!= OMPI_SUCCESS) {
return NULL;
}
if(mca_ptl_ib_create_cq(ib_modules[i].nic, &ib_modules[i].ud_rcq_hndl)
!= OMPI_SUCCESS) {
return NULL;
}
D_PRINT("UD_SCQ handle: %d, UD_RCQ handle: %d\n",
ib_modules[i].ud_scq_hndl, ib_modules[i].ud_rcq_hndl);
if(mca_ptl_ib_create_qp(ib_modules[i].nic, ib_modules[i].ptag,
ib_modules[i].ud_rcq_hndl, ib_modules[i].ud_scq_hndl,
&ib_modules[i].ud_qp_hndl, &ib_modules[i].ud_qp_prop,
VAPI_TS_UD)
!= OMPI_SUCCESS) {
return NULL;
}
D_PRINT("UD Qp handle: %d, Qp num: %d\n",
ib_modules[i].ud_qp_hndl, ib_modules[i].ud_qp_prop.qp_num);
if(mca_ptl_ib_ud_qp_init(ib_modules[i].nic, ib_modules[i].ud_qp_hndl)
!= OMPI_SUCCESS) {
return NULL;
}
/* Attach asynchronous handler */
if(mca_ptl_ib_set_async_handler(ib_modules[i].nic,
&ib_modules[i].async_handler)
!= OMPI_SUCCESS) {
return NULL;
}
#if 0
if(mca_ptl_ib_get_comp_ev_hndl(&ib_modules[i].ud_comp_ev_handler)
!= OMPI_SUCCESS) {
return NULL;
}
/* Set the completion event handler for the UD recv queue */
if(mca_ptl_ib_set_comp_ev_hndl(ib_modules[i].nic,
ib_modules[i].cq_hndl,
ib_modules[i].ud_comp_ev_handler,
(void*)NULL, &ib_modules[i].ud_comp_ev_hndl)
!= OMPI_SUCCESS) {
return NULL;
}
/* Request for interrupts on the UD recv queue */
if(mca_ptl_ib_req_comp_notif(ib_modules[i].nic,
ib_modules[i].cq_hndl)
!= OMPI_SUCCESS) {
return NULL;
}
#endif
/* Just for point-to-point communication */
/* Till dynamic connection management comes */
/* Create the QP I am going to use to communicate
* with this peer */
if(mca_ptl_ib_create_qp(ib_modules[i].nic,
ib_modules[i].ptag,
ib_modules[i].cq_hndl,
ib_modules[i].cq_hndl,
&ib_modules[i].my_qp_hndl,
&ib_modules[i].my_qp_prop,
VAPI_TS_RC)
!= OMPI_SUCCESS) {
}
D_PRINT("QP hndl:%d, num: %d for 1-to-1 communication\n",
ib_modules[i].my_qp_hndl,
ib_modules[i].my_qp_prop.qp_num);
ib_modules[i].send_index = 0;
ib_modules[i].recv_index = 0;
DUMP_IB_STATE(ib_modules[i].ib_state);
}
/* Post OOB receives */
mca_ptl_ib_post_oob_recv_nb();
/* Allocate list of IB ptl pointers */
mca_ptl_ib_component.ib_ptl_modules = (struct mca_ptl_ib_module_t**)
malloc(mca_ptl_ib_component.ib_num_ptl_modules *
@ -399,7 +299,8 @@ mca_ptl_base_module_t** mca_ptl_ib_component_init(int *num_ptl_modules,
}
/* Allocate list of MCA ptl pointers */
modules = (mca_ptl_base_module_t**) malloc(mca_ptl_ib_component.ib_num_ptl_modules *
modules = (mca_ptl_base_module_t**)
malloc(mca_ptl_ib_component.ib_num_ptl_modules *
sizeof(mca_ptl_base_module_t*));
if(NULL == modules) {
return NULL;
@ -446,6 +347,7 @@ int mca_ptl_ib_component_control(int param, void* value, size_t size)
int mca_ptl_ib_component_progress(mca_ptl_tstamp_t tstamp)
{
#if 0
VAPI_ret_t ret;
VAPI_wc_desc_t comp;
@ -506,6 +408,7 @@ int mca_ptl_ib_component_progress(mca_ptl_tstamp_t tstamp)
comp.opcode);
}
}
#endif
return OMPI_SUCCESS;
}

Просмотреть файл

@ -4,11 +4,11 @@
#include "include/types.h"
#include "mca/pml/base/pml_base_sendreq.h"
#include "mca/ns/base/base.h"
#include "mca/oob/base/base.h"
#include "ptl_ib.h"
#include "ptl_ib_addr.h"
#include "ptl_ib_peer.h"
#include "ptl_ib_proc.h"
#include "ptl_ib_priv.h"
#include "ptl_ib_sendfrag.h"
static void mca_ptl_ib_peer_construct(mca_ptl_base_peer_t* module_peer);
@ -18,15 +18,61 @@ OBJ_CLASS_INSTANCE(mca_ptl_ib_peer_t,
ompi_list_item_t, mca_ptl_ib_peer_construct,
mca_ptl_ib_peer_destruct);
/*
* Callback function for OOB send completion.
* Not much to do over here right now ...
*
*/
static void mca_ptl_ib_peer_connect_send_callback(int status,
ompi_process_name_t* peer, ompi_buffer_t buffer,
int tag, void* cbdata)
{
D_PRINT("OOB Send to %d complete", peer->vpid);
}
/*
* Wrapper around mca_oob_send_packed_nb
*
* Post a non-blocking OOB send request to peer with
* pre-allocated user buffer
*
*/
static int mca_ptl_ib_post_oob_send_nb(ompi_process_name_t *name,
void* user_buf, int len)
{
int rc;
ompi_buffer_t buffer;
rc = ompi_buffer_init_preallocated(&buffer, user_buf,
len);
if(rc != OMPI_SUCCESS) {
return rc;
}
rc = mca_oob_send_packed_nb(name, buffer,
131313, 0,
(mca_oob_callback_packed_fn_t)mca_ptl_ib_peer_connect_send_callback,
NULL);
if(rc != OMPI_SUCCESS) {
return rc;
}
return rc;
}
/*
* Initialize state of the peer instance.
*
*/
static void mca_ptl_ib_peer_construct(mca_ptl_base_peer_t* module_peer)
{
module_peer->peer_module = 0;
module_peer->peer_proc = 0;
module_peer->peer_addr = 0;
module_peer->peer_ts = 0.0;
module_peer->peer_send_frag = 0;
module_peer->peer_recv_frag = 0;
@ -39,43 +85,300 @@ static void mca_ptl_ib_peer_construct(mca_ptl_base_peer_t* module_peer)
OBJ_CONSTRUCT(&module_peer->peer_recv_lock, ompi_mutex_t);
}
/*
* Destroy a peer
*
*/
static void mca_ptl_ib_peer_destruct(mca_ptl_base_peer_t* module_peer)
{
}
static int mca_ptl_ib_peer_check_timeout(mca_ptl_base_peer_t* peer)
/*
* Allocate peer connection structures
*
*/
static int mca_ptl_ib_alloc_peer_conn(mca_ptl_base_peer_t* peer)
{
/* Allocate space for peer connection */
peer->peer_conn = (mca_ptl_ib_peer_conn_t *)
malloc(sizeof(mca_ptl_ib_peer_conn_t));
if(NULL == peer->peer_conn) {
return OMPI_ERR_OUT_OF_RESOURCE;
}
return OMPI_SUCCESS;
}
static double mca_ptl_ib_get_us(void)
/*
* Send connection information to remote peer using OOB
*
*/
static int mca_ptl_ib_peer_send_conn_info(mca_ptl_base_peer_t* peer)
{
struct timeval t;
gettimeofday(&t, NULL);
return (double) t.tv_sec * (double) 1e6 + (double) t.tv_usec;
int rc;
ompi_process_name_t *name;
char sendbuf[50];
name = &peer->peer_proc->proc_guid;
/* Zero out the send buffer */
memset(sendbuf, 0, 50);
/* Copy the info in the send buffer */
/* Format:
*
* <QP> <LID>
* Ofcourse without the <'s and >'s moron!
* Size of each field is limited to maximum
* 8 characters. This should be enough for all
* platforms, and is internal information
*/
sprintf(sendbuf, "%08d %08d",
peer->peer_conn->lres->qp_prop.qp_num,
peer->peer_module->ib_state->port.lid);
/* Send it off */
rc = mca_ptl_ib_post_oob_send_nb(name,
(void*)sendbuf, 50);
if(rc != OMPI_SUCCESS) {
return rc;
}
return OMPI_SUCCESS;
}
/*
* Set remote connection info
*
* XXX: Currently size is unutilized, this shall change
* as soon as we add more info to be exchanged at connection
* setup.
*
*/
static void mca_ptl_ib_peer_set_remote_info(mca_ptl_base_peer_t* peer,
void* baseptr, size_t size)
{
char tempbuf[8];
memset(tempbuf, 0, 8);
strncpy(tempbuf, (char*)baseptr, 8);
peer->peer_conn->rres->qp_num = atoi(tempbuf);
memset(tempbuf, 0, 8);
strncpy(tempbuf, (char*)baseptr + 9*sizeof(char), 8);
peer->peer_conn->rres->lid = atoi(tempbuf);
D_PRINT("Received QP num = %d, LID = %d",
peer->peer_conn->rres->qp_num,
peer->peer_conn->rres->lid);
}
/*
* Start to connect to the peer. We send our Queue Pair
* information over the TCP OOB communication mechanism.
* On completion of our send, a send completion handler
* is called.
*
*/
static int mca_ptl_ib_peer_start_connect(mca_ptl_base_peer_t* peer)
{
int remote_qp_num;
int rc;
peer->peer_addr = (mca_ptl_ib_addr_t*)
malloc(sizeof(mca_ptl_ib_addr_t));
/* Allocate peer connection structures */
rc = mca_ptl_ib_alloc_peer_conn(peer);
if(rc != OMPI_SUCCESS) {
return rc;
}
/* Initialize the peer */
rc = mca_ptl_ib_init_peer(peer->peer_module->ib_state,
peer->peer_conn);
if(rc != OMPI_SUCCESS) {
return rc;
}
D_PRINT("QP num:%d for rank %d:",
peer->peer_qp_prop.qp_num,
peer->peer_proc->proc_ompi->proc_name.vpid);
scanf("%d", &remote_qp_num);
/* Send connection info over to remote peer */
rc = mca_ptl_ib_peer_send_conn_info(peer);
if(rc != OMPI_SUCCESS) {
return rc;
}
peer->peer_addr->rc_qp = remote_qp_num;
/* Update status of peer to as connecting */
peer->peer_state = MCA_PTL_IB_CONNECTING;
D_PRINT("You entered: %d\n", peer->peer_addr->rc_qp);
DUMP_PEER(peer);
return OMPI_SUCCESS;
return rc;
}
/*
* Reply to a `start - connect' message
*
*/
static int mca_ptl_ib_peer_reply_start_connect(mca_ptl_ib_peer_t *peer,
void* baseptr, size_t size)
{
int rc;
/* Allocate peer connection structures */
rc = mca_ptl_ib_alloc_peer_conn(peer);
if(rc != OMPI_SUCCESS) {
return rc;
}
/* Initialize the peer */
rc = mca_ptl_ib_init_peer(peer->peer_module->ib_state,
peer->peer_conn);
if(rc != OMPI_SUCCESS) {
return rc;
}
/* Set the remote side info */
mca_ptl_ib_peer_set_remote_info(peer, baseptr, size);
/* Connect to peer */
rc = mca_ptl_ib_peer_connect(peer->peer_module->ib_state,
peer->peer_conn);
if(rc != OMPI_SUCCESS) {
return rc;
}
/* Register Buffers */
/* Post receives */
/* Send connection info over to remote peer */
rc = mca_ptl_ib_peer_send_conn_info(peer);
if(rc != OMPI_SUCCESS) {
return rc;
}
/* Update status of peer to as connected */
peer->peer_state = MCA_PTL_IB_CONNECTED;
DUMP_PEER(peer);
return rc;
}
/*
* Non blocking OOB recv callback.
* Read incoming QP and other info, and if this peer
* is trying to connect, reply with our QP info,
* otherwise try to modify QP's and establish
* reliable connection
*
*/
static void mca_ptl_ib_peer_connect_recv_callback(int status,
ompi_process_name_t* peer, ompi_buffer_t buffer,
int tag, void* cbdata)
{
size_t size;
void *baseptr, *dataptr, *fromptr;
mca_ptl_ib_proc_t *ib_proc;
mca_ptl_ib_peer_t *ib_peer;
int peer_state;
ompi_buffer_size(buffer, &size);
ompi_buffer_get_ptrs(buffer, &baseptr,
&dataptr, &fromptr);
D_PRINT("Size recv: %d, Data: %s", size, baseptr);
for(ib_proc = (mca_ptl_ib_proc_t*)
ompi_list_get_first(&mca_ptl_ib_component.ib_procs);
ib_proc != (mca_ptl_ib_proc_t*)
ompi_list_get_end(&mca_ptl_ib_component.ib_procs);
ib_proc = (mca_ptl_ib_proc_t*)ompi_list_get_next(ib_proc)) {
if(ib_proc->proc_guid.vpid == peer->vpid) {
/* Try to get the peer instance of this proc */
/* Limitation: Right now, we have only 1 peer
* for every process. Need several changes, some
* in PML/PTL interface to set this right */
ib_peer = ib_proc->proc_peers[0];
peer_state = ib_peer->peer_state;
/* Update status */
switch(peer_state) {
case MCA_PTL_IB_CLOSED :
/* We had this connection closed before.
* The peer is trying to connect. Move the
* status of this connection to CONNECTING,
* and then reply with our QP information */
D_PRINT("Start Connect %d",
ib_proc->proc_guid.vpid);
if(mca_ptl_ib_peer_reply_start_connect(ib_peer,
baseptr, size)
!= OMPI_SUCCESS) {
D_PRINT("Connect Error");
}
ib_peer->peer_state = MCA_PTL_IB_CONNECTED;
break;
case MCA_PTL_IB_CONNECTING :
/* We are already connecting with this peer,
* this means that we have initiated OOB sends
* with this peer, and the peer is replying.
* No need to send him any more stuff */
D_PRINT("Connect reply %d",
ib_proc->proc_guid.vpid);
mca_ptl_ib_peer_set_remote_info(ib_peer,
baseptr, size);
if(mca_ptl_ib_peer_connect(ib_peer->peer_module->ib_state,
ib_peer->peer_conn)
!= OMPI_SUCCESS) {
D_PRINT("Connect Error");
}
ib_peer->peer_state = MCA_PTL_IB_CONNECTED;
break;
case MCA_PTL_IB_CONNECTED :
break;
default :
D_PRINT("Connected -> Connecting not possible.\n");
}
break;
}
}
/* Okay, now that we are done receiving,
* re-post the buffer */
mca_ptl_ib_post_oob_recv_nb();
}
void mca_ptl_ib_post_oob_recv_nb()
{
D_PRINT("");
mca_oob_recv_packed_nb(MCA_OOB_NAME_ANY,
131313, 0,
(mca_oob_callback_packed_fn_t)mca_ptl_ib_peer_connect_recv_callback,
NULL);
}
/*
* Attempt to send a fragment using a given peer. If the peer is not
* connected, queue the fragment and start the connection as required.
@ -86,6 +389,8 @@ int mca_ptl_ib_peer_send(mca_ptl_base_peer_t* peer,
{
int rc;
D_PRINT("");
OMPI_THREAD_LOCK(&peer->peer_send_lock);
switch(peer->peer_state) {
@ -96,13 +401,13 @@ int mca_ptl_ib_peer_send(mca_ptl_base_peer_t* peer,
* to check for timeout */
ompi_list_append(&peer->peer_frags, (ompi_list_item_t*)frag);
rc = mca_ptl_ib_peer_check_timeout(peer);
break;
case MCA_PTL_IB_CLOSED:
ompi_list_append(&peer->peer_frags, (ompi_list_item_t*)frag);
D_PRINT("Connection to peer closed ... connecting ...");
//ompi_list_append(&peer->peer_frags, (ompi_list_item_t*)frag);
rc = mca_ptl_ib_peer_start_connect(peer);

Просмотреть файл

@ -7,6 +7,7 @@
#include "mca/ptl/ptl.h"
#include "ptl_ib_recvfrag.h"
#include "ptl_ib_sendfrag.h"
#include "ptl_ib_priv.h"
OBJ_CLASS_DECLARATION(mca_ptl_ib_peer_t);
@ -31,7 +32,7 @@ typedef enum {
/* Maximum number of retries have been used.
* Report failure on send to upper layer */
MCA_PTL_IB_FAILED
} mca_ptl_ib_state_t;
} mca_ptl_ib_peer_state_t;
/**
* An abstraction that represents a connection to a peer process.
@ -42,26 +43,64 @@ typedef enum {
struct mca_ptl_base_peer_t {
ompi_list_item_t super;
struct mca_ptl_ib_module_t* peer_module; /**< PTL instance that created this connection */
struct mca_ptl_ib_proc_t* peer_proc; /**< proc structure corresponding to peer */
struct mca_ptl_ib_addr_t* peer_addr; /**< address of peer */
mca_ptl_ib_send_frag_t* peer_send_frag; /**< current send frag being processed */
mca_ptl_ib_recv_frag_t* peer_recv_frag; /**< current recv frag being processed */
mca_ptl_ib_state_t peer_state; /**< current state of the connection */
size_t peer_retries; /**< number of connection retries attempted */
double peer_ts; /**< timestamp of when the first
connection was attempted */
ompi_list_t peer_frags; /**< list of pending frags to send */
ompi_mutex_t peer_send_lock; /**< lock for concurrent access to peer state */
ompi_mutex_t peer_recv_lock; /**< lock for concurrent access to peer state */
ompi_event_t peer_send_event; /**< event for async processing of send frags */
ompi_event_t peer_recv_event; /**< event for async processing of recv frags */
VAPI_qp_hndl_t peer_qp_hndl; /**< My QP for the peer */
VAPI_qp_prop_t peer_qp_prop; /**< My QP properties */
struct mca_ptl_ib_module_t* peer_module;
/**< PTL instance that created this connection */
struct mca_ptl_ib_proc_t* peer_proc;
/**< proc structure corresponding to peer */
mca_ptl_ib_send_frag_t* peer_send_frag;
/**< current send frag being processed */
mca_ptl_ib_recv_frag_t* peer_recv_frag;
/**< current recv frag being processed */
mca_ptl_ib_peer_state_t peer_state;
/**< current state of the connection */
mca_ptl_ib_peer_conn_t* peer_conn;
/**< IB specific private information about peer */
size_t peer_retries;
/**< number of connection retries attempted */
double peer_ts;
/**< timestamp of when the first connection was attempted */
ompi_list_t peer_frags;
/**< list of pending frags to send */
ompi_mutex_t peer_send_lock;
/**< lock for concurrent access to peer state */
ompi_mutex_t peer_recv_lock;
/**< lock for concurrent access to peer state */
ompi_event_t peer_send_event;
/**< event for async processing of send frags */
ompi_event_t peer_recv_event;
/**< event for async processing of recv frags */
};
typedef struct mca_ptl_base_peer_t mca_ptl_base_peer_t;
typedef struct mca_ptl_base_peer_t mca_ptl_ib_peer_t;
int mca_ptl_ib_peer_send(mca_ptl_base_peer_t*, mca_ptl_ib_send_frag_t*);
void mca_ptl_ib_post_oob_recv_nb(void);
#define DUMP_PEER(peer_ptr) { \
ompi_output(0, "[%s:%d] ", __FILE__, __LINE__); \
ompi_output(0, "Dumping peer state"); \
ompi_output(0, "Local QP hndl : %d", \
peer_ptr->peer_conn->lres->qp_hndl); \
ompi_output(0, "Local QP num : %d", \
peer_ptr->peer_conn->lres->qp_prop.qp_num); \
ompi_output(0, "Remote QP num : %d", \
peer_ptr->peer_conn->rres->qp_num); \
ompi_output(0, "Remte LID : %d", \
peer_ptr->peer_conn->rres->lid); \
}
#endif

Просмотреть файл

@ -1,7 +1,14 @@
#include "ptl_ib_vapi.h"
#include "ptl_ib.h"
#include "ptl_ib_priv.h"
#include "ptl_ib.h"
/*
* Asynchronous event handler to detect unforseen
* events. Usually, such events are catastrophic.
* Should have a robust mechanism to handle these
* events and abort the OMPI application if necessary.
*
*/
static void async_event_handler(VAPI_hca_hndl_t hca_hndl,
VAPI_event_record_t * event_p,
void *priv_data)
@ -40,22 +47,134 @@ static void async_event_handler(VAPI_hca_hndl_t hca_hndl,
}
static void ud_completion_handler(VAPI_hca_hndl_t nic,
VAPI_cq_hndl_t cq_hndl, void* priv_data)
/*
* This function returns the hca_id for each PTL
* in a round robin manner. Each PTL gets a different
* HCA id ...
*
* If num PTLs > num HCAs, then those ptls will be
* assigned HCA ids beginning from 0 again.
*
*/
static int mca_ptl_ib_get_hca_id(int num, VAPI_hca_id_t* hca_id)
{
uint32_t num_hcas;
VAPI_ret_t ret;
VAPI_hca_id_t* hca_ids = NULL;
hca_ids = (VAPI_hca_id_t*) malloc(mca_ptl_ib_component.ib_num_hcas *
sizeof(VAPI_hca_id_t));
if(NULL == hca_ids) {
return OMPI_ERR_OUT_OF_RESOURCE;
}
/* Now get the hca_id from underlying VAPI layer */
ret = EVAPI_list_hcas(mca_ptl_ib_component.ib_num_hcas,
&num_hcas, hca_ids);
/* HACK: right now, I have put VAPI_EAGAIN as
* acceptable condition since we are trying to have
* only 1 ptl support */
if((VAPI_OK != ret) && (VAPI_EAGAIN != ret)) {
MCA_PTL_IB_VAPI_RET(ret, "EVAPI_list_hcas");
return OMPI_ERROR;
} else {
num = num % num_hcas;
memcpy(hca_id, hca_ids[num], sizeof(VAPI_hca_id_t));
}
free(hca_ids);
return OMPI_SUCCESS;
}
static int mca_ptl_ib_get_hca_hndl(VAPI_hca_id_t hca_id,
VAPI_hca_hndl_t* hca_hndl)
{
VAPI_ret_t ret;
/* Open the HCA */
ret = EVAPI_get_hca_hndl(hca_id, hca_hndl);
if(VAPI_OK != ret) {
MCA_PTL_IB_VAPI_RET(ret, "EVAPI_get_hca_hndl");
return OMPI_ERROR;
}
return OMPI_SUCCESS;
}
static int mca_ptl_ib_query_hca_prop(VAPI_hca_hndl_t nic,
VAPI_hca_port_t* port)
{
VAPI_ret_t ret;
fprintf(stderr,"Got interrupt!!\n");
fflush(stderr);
ret = VAPI_req_comp_notif(nic, cq_hndl, VAPI_NEXT_COMP);
/* Querying for port properties */
ret = VAPI_query_hca_port_prop(nic,
(IB_port_t)DEFAULT_PORT,
port);
if(VAPI_OK != ret) {
MCA_PTL_IB_VAPI_RET(ret, "VAPI_req_comp_notif");
MCA_PTL_IB_VAPI_RET(ret, "VAPI_query_hca_port_prop");
return OMPI_ERROR;
}
return OMPI_SUCCESS;
}
int mca_ptl_ib_create_qp(VAPI_hca_hndl_t nic,
static int mca_ptl_ib_alloc_pd(VAPI_hca_hndl_t nic,
VAPI_pd_hndl_t* ptag)
{
VAPI_ret_t ret;
ret = VAPI_alloc_pd(nic, ptag);
if(ret != VAPI_OK) {
MCA_PTL_IB_VAPI_RET(ret, "VAPI_alloc_pd");
return OMPI_ERROR;
}
return OMPI_SUCCESS;
}
static int mca_ptl_ib_create_cq(VAPI_hca_hndl_t nic,
VAPI_cq_hndl_t* cq_hndl)
{
uint32_t act_num_cqe = 0;
VAPI_ret_t ret;
ret = VAPI_create_cq(nic, DEFAULT_CQ_SIZE,
cq_hndl, &act_num_cqe);
if( (VAPI_OK != ret) || (0 == act_num_cqe)) {
MCA_PTL_IB_VAPI_RET(ret, "VAPI_create_cq");
return OMPI_ERROR;
}
return OMPI_SUCCESS;
}
static int mca_ptl_ib_set_async_handler(VAPI_hca_hndl_t nic,
EVAPI_async_handler_hndl_t *async_handler)
{
VAPI_ret_t ret;
ret = EVAPI_set_async_event_handler(nic,
async_event_handler, 0, async_handler);
if(VAPI_OK != ret) {
MCA_PTL_IB_VAPI_RET(ret, "EVAPI_set_async_event_handler");
return OMPI_ERROR;
}
return OMPI_SUCCESS;
}
static int mca_ptl_ib_create_qp(VAPI_hca_hndl_t nic,
VAPI_pd_hndl_t ptag,
VAPI_cq_hndl_t recv_cq,
VAPI_cq_hndl_t send_cq,
@ -68,33 +187,11 @@ int mca_ptl_ib_create_qp(VAPI_hca_hndl_t nic,
switch(transport_type) {
case VAPI_TS_UD: /* Set up UD qp parameters */
qp_init_attr.cap.max_oust_wr_rq = DEFAULT_UD_WQ_SIZE;
qp_init_attr.cap.max_oust_wr_sq = DEFAULT_UD_WQ_SIZE;
qp_init_attr.cap.max_sg_size_rq = DEFAULT_UD_SG_LIST;
qp_init_attr.cap.max_sg_size_sq = DEFAULT_UD_SG_LIST;
qp_init_attr.pd_hndl = ptag;
/* We don't have Reliable Datagram Handle right now */
qp_init_attr.rdd_hndl = 0;
/* Set Send and Recv completion queues */
qp_init_attr.rq_cq_hndl = recv_cq;
qp_init_attr.sq_cq_hndl = send_cq;
/* Signal all work requests on this queue pair */
qp_init_attr.rq_sig_type = VAPI_SIGNAL_REQ_WR;
qp_init_attr.sq_sig_type = VAPI_SIGNAL_REQ_WR;
/* Use Unreliable Datagram transport service */
qp_init_attr.ts_type = VAPI_TS_UD;
break;
case VAPI_TS_RC: /* Set up RC qp parameters */
qp_init_attr.cap.max_oust_wr_rq = DEFAULT_UD_WQ_SIZE;
qp_init_attr.cap.max_oust_wr_sq = DEFAULT_UD_WQ_SIZE;
qp_init_attr.cap.max_sg_size_rq = DEFAULT_UD_SG_LIST;
qp_init_attr.cap.max_sg_size_sq = DEFAULT_UD_SG_LIST;
qp_init_attr.cap.max_oust_wr_rq = DEFAULT_WQ_SIZE;
qp_init_attr.cap.max_oust_wr_sq = DEFAULT_WQ_SIZE;
qp_init_attr.cap.max_sg_size_rq = DEFAULT_SG_LIST;
qp_init_attr.cap.max_sg_size_sq = DEFAULT_SG_LIST;
qp_init_attr.pd_hndl = ptag;
/* We don't have Reliable Datagram Handle right now */
qp_init_attr.rdd_hndl = 0;
@ -110,6 +207,7 @@ int mca_ptl_ib_create_qp(VAPI_hca_hndl_t nic,
/* Use Unreliable Datagram transport service */
qp_init_attr.ts_type = VAPI_TS_RC;
break;
case VAPI_TS_UD: /* Set up UD qp parameters */
default:
return OMPI_ERR_NOT_IMPLEMENTED;
}
@ -124,7 +222,53 @@ int mca_ptl_ib_create_qp(VAPI_hca_hndl_t nic,
return OMPI_SUCCESS;
}
int mca_ptl_ib_rc_qp_init(VAPI_hca_hndl_t nic,
int mca_ptl_ib_init_module(mca_ptl_ib_state_t *ib_state, int module_num)
{
/* Get the HCA id ... InfiniHost0, 1 etc */
if(mca_ptl_ib_get_hca_id(module_num, &ib_state->hca_id)
!= OMPI_SUCCESS) {
return OMPI_ERROR;
}
/* Get HCA handle */
if(mca_ptl_ib_get_hca_hndl(ib_state->hca_id, &ib_state->nic)
!= OMPI_SUCCESS) {
return OMPI_ERROR;
}
/* Allocate a protection domain for this NIC */
if(mca_ptl_ib_alloc_pd(ib_state->nic, &ib_state->ptag)
!= OMPI_SUCCESS) {
return OMPI_ERROR;
}
/* Get the properties of the HCA,
* LID etc. are part of the properties */
if(mca_ptl_ib_query_hca_prop(ib_state->nic, &ib_state->port)
!= OMPI_SUCCESS) {
return OMPI_ERROR;
}
/* Create Completion Q */
/* We use a single completion Q for sends & recvs
* This saves us overhead of polling 2 separate Qs */
if(mca_ptl_ib_create_cq(ib_state->nic, &ib_state->cq_hndl)
!= OMPI_SUCCESS) {
return OMPI_ERROR;
}
/* Attach asynchronous handler */
if(mca_ptl_ib_set_async_handler(ib_state->nic,
&ib_state->async_handler)
!= OMPI_SUCCESS) {
return OMPI_ERROR;
}
return OMPI_SUCCESS;
}
static int mca_ptl_ib_rc_qp_init(VAPI_hca_hndl_t nic,
VAPI_qp_hndl_t qp_hndl,
VAPI_qp_num_t remote_qp,
IB_lid_t remote_lid)
@ -217,79 +361,6 @@ int mca_ptl_ib_rc_qp_init(VAPI_hca_hndl_t nic,
return OMPI_SUCCESS;
}
/* Initialize UD queue pairs */
int mca_ptl_ib_ud_qp_init(VAPI_hca_hndl_t nic,
VAPI_qp_hndl_t ud_qp_hndl)
{
VAPI_qp_attr_t qp_attr;
VAPI_qp_cap_t qp_cap;
VAPI_qp_attr_mask_t qp_attr_mask;
VAPI_ret_t ret;
/* Modifying QP to INIT */
QP_ATTR_MASK_CLR_ALL(qp_attr_mask);
qp_attr.qp_state = VAPI_INIT;
QP_ATTR_MASK_SET(qp_attr_mask,QP_ATTR_QP_STATE);
qp_attr.pkey_ix = DEFAULT_PKEY_IX;
QP_ATTR_MASK_SET(qp_attr_mask,QP_ATTR_PKEY_IX);
qp_attr.port = DEFAULT_PORT;
QP_ATTR_MASK_SET(qp_attr_mask,QP_ATTR_PORT);
qp_attr.qkey = 0;
QP_ATTR_MASK_SET(qp_attr_mask,QP_ATTR_QKEY);
ret = VAPI_modify_qp(nic,
ud_qp_hndl, &qp_attr,
&qp_attr_mask, &qp_cap);
if(VAPI_OK != ret) {
MCA_PTL_IB_VAPI_RET(ret, "VAPI_modify_qp");
return OMPI_ERROR;
}
D_PRINT("Modified UD to init..Qp\n");
/*****************
* INIT --> RTR
*****************/
QP_ATTR_MASK_CLR_ALL(qp_attr_mask);
qp_attr.qp_state = VAPI_RTR;
QP_ATTR_MASK_SET(qp_attr_mask,QP_ATTR_QP_STATE);
ret = VAPI_modify_qp(nic, ud_qp_hndl, &qp_attr,
&qp_attr_mask, &qp_cap);
if(VAPI_OK != ret) {
MCA_PTL_IB_VAPI_RET(ret, "VAPI_modify_qp");
return OMPI_ERROR;
}
D_PRINT("Modified UD to RTR..Qp\n");
/*********************
* RTR --> RTS
*********************/
QP_ATTR_MASK_CLR_ALL(qp_attr_mask);
qp_attr.qp_state = VAPI_RTS;
QP_ATTR_MASK_SET(qp_attr_mask,QP_ATTR_QP_STATE);
qp_attr.sq_psn = DEFAULT_PSN;
QP_ATTR_MASK_SET(qp_attr_mask,QP_ATTR_SQ_PSN);
ret = VAPI_modify_qp(nic, ud_qp_hndl, &qp_attr,
&qp_attr_mask, &qp_cap);
if(VAPI_OK != ret) {
MCA_PTL_IB_VAPI_RET(ret, "VAPI_modify_qp");
return OMPI_ERROR;
}
D_PRINT("Modified UD to RTS..Qp\n");
/* Everything was fine ... return success! */
return OMPI_SUCCESS;
}
int mca_ptl_ib_get_num_hcas(uint32_t* num_hcas)
{
VAPI_ret_t ret;
@ -305,196 +376,7 @@ int mca_ptl_ib_get_num_hcas(uint32_t* num_hcas)
return OMPI_SUCCESS;
}
/* This function returns the hca_id for each PTL
* in a round robin manner. Each PTL gets a different
* HCA id ...
*
* If num PTLs > num HCAs, then those ptls will be
* assigned HCA ids beginning from 0 again.
*/
int mca_ptl_ib_get_hca_id(int num, VAPI_hca_id_t* hca_id)
{
uint32_t num_hcas;
VAPI_ret_t ret;
VAPI_hca_id_t* hca_ids = NULL;
hca_ids = (VAPI_hca_id_t*) malloc(mca_ptl_ib_component.ib_num_hcas *
sizeof(VAPI_hca_id_t));
if(NULL == hca_ids) {
return OMPI_ERR_OUT_OF_RESOURCE;
}
/* Now get the hca_id from underlying VAPI layer */
ret = EVAPI_list_hcas(mca_ptl_ib_component.ib_num_hcas,
&num_hcas, hca_ids);
/* HACK: right now, I have put VAPI_EAGAIN as
* acceptable condition since we are trying to have
* only 1 ptl support */
if((VAPI_OK != ret) && (VAPI_EAGAIN != ret)) {
MCA_PTL_IB_VAPI_RET(ret, "EVAPI_list_hcas");
return OMPI_ERROR;
} else {
num = num % num_hcas;
memcpy(hca_id, hca_ids[num], sizeof(VAPI_hca_id_t));
}
free(hca_ids);
return OMPI_SUCCESS;
}
int mca_ptl_ib_get_hca_hndl(VAPI_hca_id_t hca_id,
VAPI_hca_hndl_t* hca_hndl)
{
VAPI_ret_t ret;
/* Open the HCA */
ret = EVAPI_get_hca_hndl(hca_id, hca_hndl);
if(VAPI_OK != ret) {
MCA_PTL_IB_VAPI_RET(ret, "EVAPI_get_hca_hndl");
return OMPI_ERROR;
}
return OMPI_SUCCESS;
}
int mca_ptl_ib_query_hca_prop(VAPI_hca_hndl_t nic,
VAPI_hca_port_t* port)
{
VAPI_ret_t ret;
/* Querying for port properties */
ret = VAPI_query_hca_port_prop(nic,
(IB_port_t)DEFAULT_PORT,
port);
if(VAPI_OK != ret) {
MCA_PTL_IB_VAPI_RET(ret, "VAPI_query_hca_port_prop");
return OMPI_ERROR;
}
return OMPI_SUCCESS;
}
int mca_ptl_ib_alloc_pd(VAPI_hca_hndl_t nic,
VAPI_pd_hndl_t* ptag)
{
VAPI_ret_t ret;
ret = VAPI_alloc_pd(nic, ptag);
if(ret != VAPI_OK) {
MCA_PTL_IB_VAPI_RET(ret, "VAPI_alloc_pd");
return OMPI_ERROR;
}
return OMPI_SUCCESS;
}
int mca_ptl_ib_create_cq(VAPI_hca_hndl_t nic,
VAPI_cq_hndl_t* cq_hndl)
{
uint32_t act_num_cqe = 0;
VAPI_ret_t ret;
ret = VAPI_create_cq(nic, DEFAULT_CQ_SIZE,
cq_hndl, &act_num_cqe);
if( (VAPI_OK != ret) || (0 == act_num_cqe)) {
MCA_PTL_IB_VAPI_RET(ret, "VAPI_create_cq");
return OMPI_ERROR;
}
return OMPI_SUCCESS;
}
int mca_ptl_ib_set_async_handler(VAPI_hca_hndl_t nic,
EVAPI_async_handler_hndl_t *async_handler)
{
VAPI_ret_t ret;
ret = EVAPI_set_async_event_handler(nic,
async_event_handler, 0, async_handler);
if(VAPI_OK != ret) {
MCA_PTL_IB_VAPI_RET(ret, "EVAPI_set_async_event_handler");
return OMPI_ERROR;
}
return OMPI_SUCCESS;
}
int mca_ptl_ib_prep_ud_bufs(VAPI_hca_hndl_t nic, VAPI_pd_hndl_t ptag,
mca_ptl_ib_ud_buf_t* ud_buf, IB_wr_t wr_type,
int num_bufs)
{
#if 0
int i;
vapi_descriptor_t* desc;
for(i = 0; i < num_bufs; i++) {
desc = &ud_buf[i].desc;
ud_buf[i].buf_data =
malloc(sizeof(mca_ptl_ib_ud_buf_data_t));
if(NULL == ud_buf[i].buf_data) {
return OMPI_ERR_OUT_OF_RESOURCE;
}
if(mca_ptl_ib_register_mem(nic,
(void*) ud_buf[i].buf_data, ptag,
sizeof(mca_ptl_ib_ud_buf_data_t),
&ud_buf[i].memhandle)
!= OMPI_SUCCESS) {
return OMPI_ERROR;
}
D_PRINT("databuf = %p, len = %d, lkey = %d\n",
(void*) ud_buf[i].buf_data,
sizeof(mca_ptl_ib_ud_buf_data_t),
ud_buf[i].memhandle.lkey);
if(IB_RECV == wr_type) {
desc->rr.comp_type = VAPI_SIGNALED;
desc->rr.opcode = VAPI_RECEIVE;
desc->rr.id = (VAPI_virt_addr_t)(MT_virt_addr_t) &(ud_buf[i]);
desc->rr.sg_lst_len = 1;
desc->rr.sg_lst_p = &(desc->sg_entry);
desc->sg_entry.len = sizeof(mca_ptl_ib_ud_buf_data_t);
desc->sg_entry.addr = (VAPI_virt_addr_t) (MT_virt_addr_t) ud_buf[i].buf_data;
desc->sg_entry.lkey = ud_buf[i].memhandle.lkey;
} else if (IB_SEND == wr_type) {
desc->sr.comp_type = VAPI_SIGNALED;
desc->sr.opcode = VAPI_SEND;
desc->sr.id = (VAPI_virt_addr_t)(MT_virt_addr_t) &(ud_buf[i]);
desc->sr.sg_lst_len = 1;
desc->sr.sg_lst_p = &(desc->sg_entry);
desc->sg_entry.len = sizeof(mca_ptl_ib_ud_buf_data_t);
desc->sg_entry.addr = (VAPI_virt_addr_t) (MT_virt_addr_t) ud_buf[i].buf_data;
desc->sg_entry.lkey = ud_buf[i].memhandle.lkey;
} else {
return OMPI_ERROR;
}
D_PRINT("databuf = %p, len = %d, lkey = %d\n",
(void*) ud_buf[i].buf_data,
sizeof(mca_ptl_ib_ud_buf_data_t),
ud_buf[i].memhandle.lkey);
}
#endif
return OMPI_SUCCESS;
}
int mca_ptl_ib_register_mem(VAPI_hca_hndl_t nic, VAPI_pd_hndl_t ptag,
static int mca_ptl_ib_register_mem(VAPI_hca_hndl_t nic, VAPI_pd_hndl_t ptag,
void* buf, int len, vapi_memhandle_t* memhandle)
{
VAPI_ret_t ret;
@ -528,118 +410,48 @@ int mca_ptl_ib_register_mem(VAPI_hca_hndl_t nic, VAPI_pd_hndl_t ptag,
return OMPI_SUCCESS;
}
int mca_ptl_ib_post_ud_recv(VAPI_hca_hndl_t nic,
VAPI_qp_hndl_t ud_qp_hndl,
mca_ptl_ib_ud_buf_t* ud_buf, int num_bufs)
int mca_ptl_ib_init_peer(mca_ptl_ib_state_t *ib_state,
mca_ptl_ib_peer_conn_t *peer_conn)
{
int i;
VAPI_ret_t ret;
/* Allocate resources for the peer connection */
for(i = 0; i < num_bufs; i++) {
ret = VAPI_post_rr(nic, ud_qp_hndl, &ud_buf[i].desc.rr);
if(VAPI_OK != ret) {
MCA_PTL_IB_VAPI_RET(ret, "VAPI_post_rr");
return OMPI_ERROR;
}
}
return OMPI_SUCCESS;
}
int mca_ptl_ib_set_comp_ev_hndl(VAPI_hca_hndl_t nic,
VAPI_cq_hndl_t cq_hndl, VAPI_completion_event_handler_t handler,
void* priv_data, EVAPI_compl_handler_hndl_t *handler_hndl)
{
VAPI_ret_t ret;
ret = EVAPI_set_comp_eventh(nic, cq_hndl, handler,
priv_data, handler_hndl);
if(VAPI_OK != ret) {
MCA_PTL_IB_VAPI_RET(ret, "EVAPI_set_comp_eventh");
return OMPI_ERROR;
peer_conn->lres = (mca_ptl_ib_peer_local_res_t *)
malloc(sizeof(mca_ptl_ib_peer_local_res_t));
if(NULL == peer_conn->lres) {
return OMPI_ERR_OUT_OF_RESOURCE;
}
D_PRINT("Completion hander: %p, Handle = %d\n",
handler, (int)*handler_hndl);
return OMPI_SUCCESS;
}
peer_conn->rres = (mca_ptl_ib_peer_remote_res_t *)
malloc(sizeof(mca_ptl_ib_peer_remote_res_t));
if(NULL == peer_conn->rres) {
return OMPI_ERR_OUT_OF_RESOURCE;
}
int mca_ptl_ib_req_comp_notif(VAPI_hca_hndl_t nic, VAPI_cq_hndl_t cq_hndl)
{
VAPI_ret_t ret;
ret = VAPI_req_comp_notif(nic, cq_hndl, VAPI_NEXT_COMP);
if(VAPI_OK != ret) {
MCA_PTL_IB_VAPI_RET(ret, "VAPI_req_comp_notif");
return OMPI_ERROR;
/* Create the Queue Pair */
if(mca_ptl_ib_create_qp(ib_state->nic,
ib_state->ptag,
ib_state->cq_hndl,
ib_state->cq_hndl,
&peer_conn->lres->qp_hndl,
&peer_conn->lres->qp_prop,
VAPI_TS_RC)
!= OMPI_SUCCESS) {
return OMPI_ERR_OUT_OF_RESOURCE;
}
return OMPI_SUCCESS;
}
int mca_ptl_ib_get_comp_ev_hndl(VAPI_completion_event_handler_t* handler_ptr)
/*
* Establish Reliable Connection with peer
*
*/
int mca_ptl_ib_peer_connect(mca_ptl_ib_state_t *ib_state,
mca_ptl_ib_peer_conn_t *peer_conn)
{
*handler_ptr = ud_completion_handler;
D_PRINT("UD Completion Event Handler = %p\n", ud_completion_handler);
return OMPI_SUCCESS;
}
void mca_ptl_ib_frag(struct mca_ptl_ib_module_t* module,
mca_ptl_base_header_t * header)
{
/* Allocate a recv frag descriptor */
mca_ptl_ib_recv_frag_t *recv_frag;
ompi_list_item_t *item;
bool matched;
int rc = OMPI_SUCCESS;
OMPI_FREE_LIST_GET(&mca_ptl_ib_component.ib_recv_frags,
item, rc);
while (OMPI_SUCCESS != rc) {
/* TODO: progress the recv state machine */
D_PRINT("Retry to allocate a recv fragment\n");
OMPI_FREE_LIST_GET (&mca_ptl_ib_component.ib_recv_frags,
item, rc);
}
recv_frag = (mca_ptl_ib_recv_frag_t *) item;
recv_frag->super.frag_base.frag_owner =
(mca_ptl_base_module_t *) module;
recv_frag->super.frag_base.frag_peer = NULL;
recv_frag->super.frag_request = NULL;
recv_frag->super.frag_is_buffered = false;
/* Copy the header, mca_ptl_base_match() does not do what it claims */
recv_frag->super.frag_base.frag_header = *header;
/* Taking the data starting point be default */
recv_frag->super.frag_base.frag_addr =
(char *) header + sizeof (mca_ptl_base_header_t);
recv_frag->super.frag_base.frag_size = header->hdr_frag.hdr_frag_length;
/* match with preposted requests */
matched = module->super.ptl_match(
recv_frag->super.frag_base.frag_owner,
&recv_frag->super,
&recv_frag->super.frag_base.frag_header.hdr_match);
if (!matched) {
/* Oh my GOD !!! */
D_PRINT("Can't match buffer. Mama is unhappy\n");
memcpy (recv_frag->unex_buf,
(char *) header + sizeof (mca_ptl_base_header_t),
header->hdr_frag.hdr_frag_length);
recv_frag->super.frag_is_buffered = true;
recv_frag->super.frag_base.frag_addr = recv_frag->unex_buf;
}
return(mca_ptl_ib_rc_qp_init(ib_state->nic,
peer_conn->lres->qp_hndl,
peer_conn->rres->qp_num,
peer_conn->rres->lid));
}

Просмотреть файл

@ -1,16 +1,27 @@
#ifndef MCA_PTL_IB_PRIV_H
#define MCA_PTL_IB_PRIV_H
#include <stdint.h>
#include "ptl_ib_vapi.h"
/* Posting MAX_UD_PREPOST_DEPTH number of recv
* buffers at PTL initialization. What happens when
* more than these number of procs try to send their
* queue pair handles?
*/
#define MAX_UD_PREPOST_DEPTH (1)
#define BUFSIZE (4096)
#define NUM_BUFS (5000)
struct mca_ptl_ib_state_t {
VAPI_hca_id_t hca_id; /* ID of HCA */
VAPI_hca_port_t port; /* IB port of this PTL */
VAPI_hca_hndl_t nic; /* NIC handle */
VAPI_pd_hndl_t ptag; /* Protection Domain tag */
VAPI_cq_hndl_t cq_hndl; /* Completion Queue handle */
/* At present Send & Recv
* are tied to the same
* completion queue */
EVAPI_async_handler_hndl_t async_handler;
/* Async event handler used
* to detect weird/unknown
* events */
};
typedef struct mca_ptl_ib_state_t mca_ptl_ib_state_t;
typedef enum {
IB_RECV,
@ -18,89 +29,94 @@ typedef enum {
} IB_wr_t;
struct vapi_memhandle_t {
VAPI_mr_hndl_t hndl;
VAPI_lkey_t lkey;
VAPI_rkey_t rkey;
VAPI_mr_hndl_t hndl;
/* Memory region handle */
VAPI_lkey_t lkey;
/* Local key to registered memory, needed for
* posting send/recv requests */
VAPI_rkey_t rkey;
/* Remote key to registered memory, need to send this
* to remote processes for incoming RDMA ops */
};
typedef struct vapi_memhandle_t vapi_memhandle_t;
struct vapi_descriptor_t {
union {
VAPI_rr_desc_t rr;
VAPI_sr_desc_t sr;
VAPI_rr_desc_t rr;
/* Receive descriptor */
VAPI_sr_desc_t sr;
/* Send descriptor */
};
VAPI_sg_lst_entry_t sg_entry;
/* Scatter/Gather entry */
};
typedef struct vapi_descriptor_t vapi_descriptor_t;
struct mca_ptl_ib_send_buf_t {
mca_pml_base_request_t *req;
vapi_descriptor_t desc;
char buf[4096];
/* mca_ptl_ib_peer_local_res_t contains information
* regarding local resources dedicated to this
* connection */
struct mca_ptl_ib_peer_local_res_t {
VAPI_qp_hndl_t qp_hndl;
/* Local QP handle */
VAPI_qp_prop_t qp_prop;
/* Local QP properties */
};
typedef struct mca_ptl_ib_send_buf_t mca_ptl_ib_send_buf_t;
typedef struct mca_ptl_ib_peer_local_res_t mca_ptl_ib_peer_local_res_t;
struct mca_ptl_ib_recv_buf_t {
mca_pml_base_request_t *req;
vapi_descriptor_t desc;
char buf[4096];
/* mca_ptl_ib_peer_remote_res_t contains information
* regarding remote resources dedicated to this
* connection */
struct mca_ptl_ib_peer_remote_res_t {
VAPI_qp_num_t qp_num;
/* Remote side QP number */
IB_lid_t lid;
/* Local identifier of the remote process */
};
typedef struct mca_ptl_ib_recv_buf_t mca_ptl_ib_recv_buf_t;
typedef struct mca_ptl_ib_peer_remote_res_t mca_ptl_ib_peer_remote_res_t;
#define MCA_PTL_IB_UD_RECV_DESC(ud_buf, len) { \
desc->rr.comp_type = VAPI_SIGNALED; \
desc->rr.opcode = VAPI_RECEIVE; \
desc->rr.id = (VAPI_virt_addr_t)(MT_virt_addr_t) &(ud_buf); \
desc->rr.sg_lst_len = 1; \
desc->rr.sg_lst_p = &(desc->sg_entry); \
desc->sg_entry.len = len; \
desc->sg_entry.addr = \
(VAPI_virt_addr_t) (MT_virt_addr_t) ud_buf.buf_data; \
desc->sg_entry.lkey = ud_buf.memhandle.lkey; \
/* mca_ptl_ib_peer_conn_t contains private information
* about the peer. This information is used to describe
* the connection oriented information about this peer
* and local resources associated with it. */
struct mca_ptl_ib_peer_conn_t {
mca_ptl_ib_peer_local_res_t* lres;
/* Local resources associated with this connection */
mca_ptl_ib_peer_remote_res_t* rres;
/* Remote resources associated with this connection */
};
typedef struct mca_ptl_ib_peer_conn_t mca_ptl_ib_peer_conn_t;
#define DUMP_IB_STATE(ib_state_ptr) { \
ompi_output(0, "[%s:%d] ", __FILE__, __LINE__); \
ompi_output(0, "Dumping IB state"); \
ompi_output(0, "HCA ID : %s", ib_state_ptr->hca_id); \
ompi_output(0, "LID : %d", ib_state_ptr->port.lid); \
ompi_output(0, "HCA handle : %d", ib_state_ptr->nic); \
ompi_output(0, "Protection Domain: %d", ib_state_ptr->ptag); \
ompi_output(0, "Comp Q handle : %d", ib_state_ptr->cq_hndl); \
ompi_output(0, "Async hndl : %d", ib_state_ptr->async_handler); \
}
#define MCA_PTL_IB_UD_SEND_DESC(ud_buf, len) { \
desc->sr.comp_type = VAPI_SIGNALED; \
desc->sr.opcode = VAPI_SEND; \
desc->sr.id = (VAPI_virt_addr_t)(MT_virt_addr_t) ud_buf; \
desc->sr.sg_lst_len = 1; \
desc->sr.sg_lst_p = &(desc->sg_entry); \
desc->sg_entry.len = len; \
desc->sg_entry.addr = \
(VAPI_virt_addr_t) (MT_virt_addr_t) ud_buf->buf_data; \
desc->sg_entry.lkey = ud_buf->memhandle.lkey; \
}
int mca_ptl_ib_ud_cq_init(VAPI_hca_hndl_t, VAPI_cq_hndl_t*,
VAPI_cq_hndl_t*);
int mca_ptl_ib_ud_qp_init(VAPI_hca_hndl_t, VAPI_qp_hndl_t);
int mca_ptl_ib_init_module(mca_ptl_ib_state_t*, int);
int mca_ptl_ib_get_num_hcas(uint32_t*);
int mca_ptl_ib_get_hca_id(int, VAPI_hca_id_t*);
int mca_ptl_ib_get_hca_hndl(VAPI_hca_id_t, VAPI_hca_hndl_t*);
int mca_ptl_ib_query_hca_prop(VAPI_hca_hndl_t, VAPI_hca_port_t*);
int mca_ptl_ib_alloc_pd(VAPI_hca_hndl_t, VAPI_pd_hndl_t*);
int mca_ptl_ib_create_cq(VAPI_hca_hndl_t, VAPI_cq_hndl_t*);
int mca_ptl_ib_set_async_handler(VAPI_hca_hndl_t,
EVAPI_async_handler_hndl_t*);
int mca_ptl_ib_register_mem(VAPI_hca_hndl_t, VAPI_pd_hndl_t, void*, int,
vapi_memhandle_t*);
int mca_ptl_ib_set_comp_ev_hndl(VAPI_hca_hndl_t, VAPI_cq_hndl_t,
VAPI_completion_event_handler_t, void*,
EVAPI_compl_handler_hndl_t*);
int mca_ptl_ib_req_comp_notif(VAPI_hca_hndl_t,VAPI_cq_hndl_t);
int mca_ptl_ib_get_comp_ev_hndl(VAPI_completion_event_handler_t*);
int mca_ptl_ib_init_send(void*, VAPI_qp_hndl_t, int);
int mca_ptl_ib_create_qp(VAPI_hca_hndl_t, VAPI_pd_hndl_t,
VAPI_cq_hndl_t, VAPI_cq_hndl_t, VAPI_qp_hndl_t*,
VAPI_qp_prop_t*, int);
int mca_ptl_ib_rc_qp_init(VAPI_hca_hndl_t, VAPI_qp_hndl_t,
VAPI_qp_num_t, IB_lid_t);
void mca_ptl_ib_frag(struct mca_ptl_ib_module_t* module,
mca_ptl_base_header_t * header);
int mca_ptl_ib_init_peer(mca_ptl_ib_state_t*, mca_ptl_ib_peer_conn_t*);
int mca_ptl_ib_peer_connect(mca_ptl_ib_state_t*,
mca_ptl_ib_peer_conn_t*);
#endif /* MCA_PTL_IB_PRIV_H */

Просмотреть файл

@ -17,7 +17,6 @@ OBJ_CLASS_INSTANCE(mca_ptl_ib_proc_t,
void mca_ptl_ib_proc_construct(mca_ptl_ib_proc_t* proc)
{
proc->proc_ompi = 0;
proc->proc_addrs = 0;
proc->proc_addr_count = 0;
proc->proc_peers = 0;
proc->proc_peer_count = 0;
@ -84,21 +83,22 @@ static mca_ptl_ib_proc_t* mca_ptl_ib_proc_lookup_ompi(ompi_proc_t* ompi_proc)
mca_ptl_ib_proc_t* mca_ptl_ib_proc_create(ompi_proc_t* ompi_proc)
{
int rc, my_rank, i;
size_t size;
char* str_rank;
VAPI_ret_t ret;
mca_ptl_ib_module_t* module = NULL;
mca_ptl_ib_proc_t* module_proc = NULL;
/* Check if we have already created a IB proc
* structure for this ompi process */
module_proc = mca_ptl_ib_proc_lookup_ompi(ompi_proc);
if(module_proc != NULL) {
/* Gotcha! */
return module_proc;
}
/* Oops! First time, gotta create a new IB proc
* out of the ompi_proc ... */
module_proc = OBJ_NEW(mca_ptl_ib_proc_t);
/* Initialize number of peer */
@ -112,36 +112,15 @@ mca_ptl_ib_proc_t* mca_ptl_ib_proc_create(ompi_proc_t* ompi_proc)
D_PRINT("Creating proc for %d\n", ompi_proc->proc_name.vpid);
/* lookup ib parameters exported by
* this proc */
rc = mca_base_modex_recv(
&mca_ptl_ib_component.super.ptlm_version,
ompi_proc,
(void**)&module_proc->proc_addrs,
&size);
/* IB module doesn't have addresses exported at
* initialization, so the addr_count is set to one. */
module_proc->proc_addr_count = 1;
if(rc != OMPI_SUCCESS) {
ompi_output(0, "mca_ptl_ib_proc_create: mca_base_modex_recv: "
"failed with return value=%d", rc);
OBJ_RELEASE(module_proc);
return NULL;
}
D_PRINT("UD q.p. obtained is: %d, Lid : %d\n",
module_proc->proc_addrs[0].qp_num,
module_proc->proc_addrs[0].lid);
if(0 != (size % sizeof(mca_ptl_ib_ud_addr_t))) {
ompi_output(0, "mca_ptl_ib_proc_create: mca_base_modex_recv: "
"invalid size %d\n", size);
return NULL;
}
module_proc->proc_addr_count = size / sizeof(mca_ptl_ib_ud_addr_t);
/* allocate space for peer array - one for
* each exported address
*/
/* XXX: Right now, there can be only 1 peer associated
* with a proc. Needs a little bit change in
* mca_ptl_ib_proc_t to allow on demand increasing of
* number of peers for this proc */
module_proc->proc_peers = (mca_ptl_base_peer_t**)
malloc(module_proc->proc_addr_count * sizeof(mca_ptl_base_peer_t*));
@ -150,101 +129,6 @@ mca_ptl_ib_proc_t* mca_ptl_ib_proc_create(ompi_proc_t* ompi_proc)
OBJ_RELEASE(module_proc);
return NULL;
}
/* HACK: Till dyn. connection management comes through,
* just establish the RC connection here */
str_rank = getenv("OMPI_MCA_pcm_cofs_procid");
if(NULL != str_rank) {
my_rank = atoi(str_rank);
} else {
D_PRINT("Rank, what rank?");
}
if(my_rank != ompi_proc->proc_name.vpid) {
D_PRINT("I %d Have to create connection for %d",
my_rank, ompi_proc->proc_name.vpid);
module = mca_ptl_ib_component.ib_ptl_modules[0];
/* Make the RC QP transitions */
if(mca_ptl_ib_rc_qp_init(module->nic,
module->my_qp_hndl,
module_proc->proc_addrs[0].qp_num,
module_proc->proc_addrs[0].lid)
!= OMPI_SUCCESS) {
return NULL;
}
/* Allocate the send and recv buffers */
module->send_buf =
malloc(sizeof(mca_ptl_ib_send_buf_t) * NUM_BUFS);
if(NULL == module->send_buf) {
return NULL;
}
memset(module->send_buf,
0, sizeof(mca_ptl_ib_send_buf_t) * NUM_BUFS);
if(mca_ptl_ib_register_mem(module->nic,
module->ptag,
module->send_buf,
sizeof(mca_ptl_ib_send_buf_t) * NUM_BUFS,
&module->send_buf_hndl)
!= OMPI_SUCCESS) {
return NULL;
}
module->recv_buf =
malloc(sizeof(mca_ptl_ib_recv_buf_t) * NUM_BUFS);
if(NULL == module->recv_buf) {
return NULL;
}
memset(module->recv_buf,
0, sizeof(mca_ptl_ib_recv_buf_t) * NUM_BUFS);
if(mca_ptl_ib_register_mem(module->nic,
module->ptag,
module->recv_buf,
sizeof(mca_ptl_ib_recv_buf_t) * NUM_BUFS,
&module->recv_buf_hndl)
!= OMPI_SUCCESS) {
return NULL;
}
/* Prepare the receivs */
for(i = 0; i < NUM_BUFS; i++) {
module->recv_buf[i].desc.rr.comp_type = VAPI_SIGNALED;
module->recv_buf[i].desc.rr.opcode = VAPI_RECEIVE;
module->recv_buf[i].desc.rr.id = (VAPI_virt_addr_t)
(MT_virt_addr_t) &module->recv_buf[i];
module->recv_buf[i].desc.rr.sg_lst_len = 1;
module->recv_buf[i].desc.rr.sg_lst_p = &(module->recv_buf[i].desc.sg_entry);
module->recv_buf[i].desc.sg_entry.len = 4096;
module->recv_buf[i].desc.sg_entry.lkey = module->recv_buf_hndl.lkey;
module->recv_buf[i].desc.sg_entry.addr =
(VAPI_virt_addr_t) (MT_virt_addr_t) (module->recv_buf[i].buf);
}
/* Post the receives */
for(i = 0; i < NUM_BUFS; i++) {
ret = VAPI_post_rr(module->nic,
module->my_qp_hndl,
&module->recv_buf[i].desc.rr);
if(VAPI_OK != ret) {
MCA_PTL_IB_VAPI_RET(ret, "VAPI_post_rr");
return NULL;
}
}
}
if(1 == my_rank) {
sleep(2);
}
return module_proc;
}

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@ -27,9 +27,6 @@ struct mca_ptl_ib_proc_t {
ompi_process_name_t proc_guid;
/**< globally unique identifier for the process */
struct mca_ptl_ib_ud_addr_t* proc_addrs;
/**< array of addresses published by peer */
size_t proc_addr_count;
/**< number of addresses published by peer */
@ -45,9 +42,6 @@ struct mca_ptl_ib_proc_t {
typedef struct mca_ptl_ib_proc_t mca_ptl_ib_proc_t;
mca_ptl_ib_proc_t* mca_ptl_ib_proc_create(ompi_proc_t* ompi_proc);
/*
mca_ptl_ib_proc_t* mca_ptl_ib_proc_lookup(ompi_process_name_t*);
*/
int mca_ptl_ib_proc_insert(mca_ptl_ib_proc_t*, mca_ptl_base_peer_t*);
#endif

Просмотреть файл

@ -28,13 +28,105 @@ static void mca_ptl_ib_send_frag_destruct(mca_ptl_ib_send_frag_t* frag)
D_PRINT("\n");
}
int mca_ptl_ib_send_frag_init(mca_ptl_ib_send_frag_t* ib_send_frag,
struct mca_ptl_base_peer_t* base_peer,
struct mca_pml_base_send_request_t* base_send_req,
int mca_ptl_ib_send_frag_init(mca_ptl_ib_send_frag_t* sendfrag,
struct mca_ptl_base_peer_t* ptl_peer,
struct mca_pml_base_send_request_t* sendreq,
size_t offset,
size_t* size,
int flags)
{
D_PRINT("\n");
/* message header */
size_t size_in = *size;
size_t size_out;
D_PRINT("");
#if 0
mca_ptl_base_header_t* hdr = &sendfrag->frag_header;
if(offset == 0) {
hdr->hdr_common.hdr_type = MCA_PTL_HDR_TYPE_MATCH;
hdr->hdr_common.hdr_flags = flags;
hdr->hdr_common.hdr_size = sizeof(mca_ptl_base_match_header_t);
hdr->hdr_frag.hdr_frag_offset = offset;
hdr->hdr_frag.hdr_frag_seq = 0;
hdr->hdr_frag.hdr_src_ptr.lval = 0; /* for VALGRIND/PURIFY - REPLACE WITH MACRO */
hdr->hdr_frag.hdr_src_ptr.pval = sendfrag;
hdr->hdr_frag.hdr_dst_ptr.lval = 0;
hdr->hdr_match.hdr_contextid = sendreq->req_base.req_comm->c_contextid;
hdr->hdr_match.hdr_src = sendreq->req_base.req_comm->c_my_rank;
hdr->hdr_match.hdr_dst = sendreq->req_base.req_peer;
hdr->hdr_match.hdr_tag = sendreq->req_base.req_tag;
hdr->hdr_match.hdr_msg_length = sendreq->req_bytes_packed;
hdr->hdr_match.hdr_msg_seq = sendreq->req_base.req_sequence;
} else {
hdr->hdr_common.hdr_type = MCA_PTL_HDR_TYPE_FRAG;
hdr->hdr_common.hdr_flags = flags;
hdr->hdr_common.hdr_size = sizeof(mca_ptl_base_frag_header_t);
hdr->hdr_frag.hdr_frag_offset = offset;
hdr->hdr_frag.hdr_frag_seq = 0;
hdr->hdr_frag.hdr_src_ptr.lval = 0; /* for VALGRIND/PURIFY - REPLACE WITH MACRO */
hdr->hdr_frag.hdr_src_ptr.pval = sendfrag;
hdr->hdr_frag.hdr_dst_ptr = sendreq->req_peer_match;
}
/* initialize convertor */
if(size_in > 0) {
ompi_convertor_t *convertor;
int rc;
/* first fragment (eager send) and first fragment of long
* protocol can use the convertor initialized on the request,
* remaining fragments must copy/reinit the convertor as the
* transfer could be in parallel.
*/
if( offset <= mca_ptl_ib_module.super.ptl_first_frag_size ) {
convertor = &sendreq->req_convertor;
} else {
convertor = &sendfrag->frag_convertor;
ompi_convertor_copy(&sendreq->req_convertor, convertor);
ompi_convertor_init_for_send(
convertor,
0,
sendreq->req_base.req_datatype,
sendreq->req_base.req_count,
sendreq->req_base.req_addr,
offset);
}
/* if data is contigous convertor will return an offset
* into users buffer - otherwise will return an allocated buffer
* that holds the packed data
*/
sendfrag->frag_vec[1].iov_base = NULL;
sendfrag->frag_vec[1].iov_len = size_in;
if((rc = ompi_convertor_pack(convertor, &sendfrag->frag_vec[1], 1)) < 0)
return OMPI_ERROR;
/* adjust size and request offset to reflect actual
* number of bytes packed by convertor */
size_out = sendfrag->frag_vec[1].iov_len;
} else {
size_out = size_in;
}
hdr->hdr_frag.hdr_frag_length = size_out;
/* fragment state */
sendfrag->frag_owner = &ptl_peer->peer_ptl->super;
sendfrag->frag_send.frag_request = sendreq;
sendfrag->frag_send.frag_base.frag_addr = sendfrag->frag_vec[1].iov_base;
sendfrag->frag_send.frag_base.frag_size = size_out;
sendfrag->frag_peer = ptl_peer;
sendfrag->frag_vec_ptr = sendfrag->frag_vec;
sendfrag->frag_vec_cnt = (size_out == 0) ? 1 : 2;
sendfrag->frag_vec[0].iov_base = (ompi_iov_base_ptr_t)hdr;
sendfrag->frag_vec[0].iov_len = sizeof(mca_ptl_base_header_t);
sendfrag->frag_progressed = 0;
*size = size_out;
#endif
return OMPI_SUCCESS;
}

Просмотреть файл

@ -13,7 +13,11 @@ OBJ_CLASS_DECLARATION(mca_ptl_ib_send_frag_t);
* IB send fragment derived type.
*/
struct mca_ptl_ib_send_frag_t {
mca_ptl_base_send_frag_t super; /**< base send fragment descriptor */
mca_ptl_base_send_frag_t frag_send; /**< base send fragment descriptor */
struct iovec *frag_vec_ptr;
size_t frag_vec_cnt;
struct iovec frag_vec[2];
volatile int frag_progressed;
};
typedef struct mca_ptl_ib_send_frag_t mca_ptl_ib_send_frag_t;

Просмотреть файл

@ -10,29 +10,26 @@
* all this stuff should be runtime. Ignoring for now.
*/
#define DEFAULT_PORT (1)
#define DEFAULT_CQ_SIZE (40000)
#define DEFAULT_UD_WQ_SIZE (10000)
#define DEFAULT_UD_SG_LIST (1)
#define DEFAULT_PKEY_IX (0)
#define DEFAULT_PSN (0)
#define DEFAULT_QP_OUS_RD_ATOM (1)
#define DEFAULT_MTU (MTU1024)
#define DEFAULT_MIN_RNR_TIMER (5)
#define DEFAULT_TIME_OUT (10)
#define DEFAULT_RETRY_COUNT (7)
#define DEFAULT_RNR_RETRY (7)
#define DEFAULT_MAX_RDMA_DST_OPS (16)
#define DEFAULT_PORT (1)
#define DEFAULT_CQ_SIZE (40000)
#define DEFAULT_WQ_SIZE (10000)
#define DEFAULT_SG_LIST (1)
#define DEFAULT_PKEY_IX (0)
#define DEFAULT_PSN (0)
#define DEFAULT_QP_OUS_RD_ATOM (1)
#define DEFAULT_MTU (MTU1024)
#define DEFAULT_MIN_RNR_TIMER (5)
#define DEFAULT_TIME_OUT (10)
#define DEFAULT_RETRY_COUNT (7)
#define DEFAULT_RNR_RETRY (7)
#define DEFAULT_MAX_RDMA_DST_OPS (16)
#define DEFAULT_TRAFFIC_CLASS (0)
#define DEFAULT_HOP_LIMIT (63)
#define DEFAULT_FLOW_LABEL (0)
#define DEFAULT_SERVICE_LEVEL (0)
#define DEFAULT_STATIC_RATE (0)
#define DEFAULT_SRC_PATH_BITS (0)
/* UD has a default offset of 40 bytes */
#define UD_RECV_BUF_OFF (40)
#define DEFAULT_TRAFFIC_CLASS (0)
#define DEFAULT_HOP_LIMIT (63)
#define DEFAULT_FLOW_LABEL (0)
#define DEFAULT_SERVICE_LEVEL (0)
#define DEFAULT_STATIC_RATE (0)
#define DEFAULT_SRC_PATH_BITS (0)
/* This is a convinence macro.
*