int PMI2_Job_Spawn(int count, const char * cmds[],
int argcs[], const char ** argvs[],
const int maxprocs[],
const int info_keyval_sizes[],
const PMI_keyval_t *info_keyval_vectors[],
int preput_keyval_size,
const PMI_keyval_t *preput_keyval_vector[],
char jobId[], int jobIdSize,
int errors[])
{
pmix_status_t rc = PMIX_SUCCESS;
pmix_app_t *apps;
int i, k;
size_t j;
char *evar;
PMI2_CHECK();
if (NULL == cmds) {
return PMI2_ERR_INVALID_ARGS;
}
/* setup the apps */
PMIX_APP_CREATE(apps, count);
for (i=0; i < count; i++) {
apps[i].cmd = strdup(cmds[i]);
apps[i].maxprocs = maxprocs[i];
apps[i].argv = pmix_argv_copy((char**)argvs[i]);
apps[i].argc = pmix_argv_count(apps[i].argv);
apps[i].ninfo = info_keyval_sizes[i];
apps[i].info = (pmix_info_t*)malloc(apps[i].ninfo * sizeof(pmix_info_t));
/* copy the info objects */
for (j=0; j < apps[i].ninfo; j++) {
(void)strncpy(apps[i].info[j].key, info_keyval_vectors[i][j].key, PMIX_MAX_KEYLEN);
apps[i].info[j].value.type = PMIX_STRING;
apps[i].info[j].value.data.string = strdup(info_keyval_vectors[i][j].val);
}
/* push the preput values into the apps environ */
for (k=0; k < preput_keyval_size; k++) {
(void)asprintf(&evar, "%s=%s", preput_keyval_vector[j]->key, preput_keyval_vector[j]->val);
pmix_argv_append_nosize(&apps[i].env, evar);
free(evar);
}
}
rc = PMIx_Spawn(NULL, 0, apps, count, NULL);
/* tear down the apps array */
for (i=0; i < count; i++) {
PMIX_APP_DESTRUCT(&apps[i]);
}
free(apps);
if (NULL != errors) {
for (i=0; i < count; i++) {
errors[i] = convert_err(rc);
}
}
return convert_err(rc);
}
int pmix_bfrop_copy_app(pmix_app_t **dest, pmix_app_t *src,
pmix_data_type_t type)
{
size_t j;
*dest = (pmix_app_t*)malloc(sizeof(pmix_app_t));
(*dest)->cmd = strdup(src->cmd);
(*dest)->argc = src->argc;
(*dest)->argv = pmix_argv_copy(src->argv);
(*dest)->env = pmix_argv_copy(src->env);
(*dest)->maxprocs = src->maxprocs;
(*dest)->ninfo = src->ninfo;
(*dest)->info = (pmix_info_t*)malloc(src->ninfo * sizeof(pmix_info_t));
for (j=0; j < src->ninfo; j++) {
(void)strncpy((*dest)->info[j].key, src->info[j].key, PMIX_MAX_KEYLEN);
pmix_value_xfer(&(*dest)->info[j].value, &src->info[j].value);
}
return PMIX_SUCCESS;
}
/* Xfer FUNCTIONS FOR GENERIC PMIX TYPES */
pmix_status_t pmix_bfrops_base_value_xfer(pmix_value_t *p,
pmix_value_t *src)
{
size_t n, m;
pmix_status_t rc;
char **prarray, **strarray;
pmix_value_t *pv, *sv;
pmix_info_t *p1, *s1;
pmix_app_t *pa, *sa;
pmix_pdata_t *pd, *sd;
pmix_buffer_t *pb, *sb;
pmix_byte_object_t *pbo, *sbo;
pmix_kval_t *pk, *sk;
pmix_modex_data_t *pm, *sm;
pmix_proc_info_t *pi, *si;
pmix_query_t *pq, *sq;
pmix_envar_t *pe, *se;
/* copy the right field */
p->type = src->type;
switch (src->type) {
case PMIX_UNDEF:
break;
case PMIX_BOOL:
p->data.flag = src->data.flag;
break;
case PMIX_BYTE:
p->data.byte = src->data.byte;
break;
case PMIX_STRING:
if (NULL != src->data.string) {
p->data.string = strdup(src->data.string);
} else {
p->data.string = NULL;
}
break;
case PMIX_SIZE:
p->data.size = src->data.size;
break;
case PMIX_PID:
p->data.pid = src->data.pid;
break;
case PMIX_INT:
/* to avoid alignment issues */
memcpy(&p->data.integer, &src->data.integer, sizeof(int));
break;
case PMIX_INT8:
p->data.int8 = src->data.int8;
break;
case PMIX_INT16:
/* to avoid alignment issues */
memcpy(&p->data.int16, &src->data.int16, 2);
break;
case PMIX_INT32:
/* to avoid alignment issues */
memcpy(&p->data.int32, &src->data.int32, 4);
break;
case PMIX_INT64:
/* to avoid alignment issues */
memcpy(&p->data.int64, &src->data.int64, 8);
break;
case PMIX_UINT:
/* to avoid alignment issues */
memcpy(&p->data.uint, &src->data.uint, sizeof(unsigned int));
break;
case PMIX_UINT8:
p->data.uint8 = src->data.uint8;
break;
case PMIX_UINT16:
/* to avoid alignment issues */
memcpy(&p->data.uint16, &src->data.uint16, 2);
break;
case PMIX_UINT32:
/* to avoid alignment issues */
memcpy(&p->data.uint32, &src->data.uint32, 4);
break;
case PMIX_UINT64:
/* to avoid alignment issues */
memcpy(&p->data.uint64, &src->data.uint64, 8);
break;
case PMIX_FLOAT:
p->data.fval = src->data.fval;
break;
case PMIX_DOUBLE:
p->data.dval = src->data.dval;
break;
case PMIX_TIMEVAL:
memcpy(&p->data.tv, &src->data.tv, sizeof(struct timeval));
break;
case PMIX_TIME:
memcpy(&p->data.time, &src->data.time, sizeof(time_t));
break;
case PMIX_STATUS:
memcpy(&p->data.status, &src->data.status, sizeof(pmix_status_t));
break;
case PMIX_PROC:
PMIX_PROC_CREATE(p->data.proc, 1);
if (NULL == p->data.proc) {
return PMIX_ERR_NOMEM;
}
memcpy(p->data.proc, src->data.proc, sizeof(pmix_proc_t));
break;
case PMIX_PROC_RANK:
memcpy(&p->data.rank, &src->data.rank, sizeof(pmix_rank_t));
break;
case PMIX_BYTE_OBJECT:
case PMIX_COMPRESSED_STRING:
memset(&p->data.bo, 0, sizeof(pmix_byte_object_t));
if (NULL != src->data.bo.bytes && 0 < src->data.bo.size) {
p->data.bo.bytes = malloc(src->data.bo.size);
memcpy(p->data.bo.bytes, src->data.bo.bytes, src->data.bo.size);
p->data.bo.size = src->data.bo.size;
} else {
p->data.bo.bytes = NULL;
p->data.bo.size = 0;
}
break;
case PMIX_PERSIST:
memcpy(&p->data.persist, &src->data.persist, sizeof(pmix_persistence_t));
break;
case PMIX_SCOPE:
memcpy(&p->data.scope, &src->data.scope, sizeof(pmix_scope_t));
break;
case PMIX_DATA_RANGE:
memcpy(&p->data.range, &src->data.range, sizeof(pmix_data_range_t));
break;
case PMIX_PROC_STATE:
memcpy(&p->data.state, &src->data.state, sizeof(pmix_proc_state_t));
break;
case PMIX_PROC_INFO:
PMIX_PROC_INFO_CREATE(p->data.pinfo, 1);
if (NULL != src->data.pinfo->hostname) {
p->data.pinfo->hostname = strdup(src->data.pinfo->hostname);
}
if (NULL != src->data.pinfo->executable_name) {
p->data.pinfo->executable_name = strdup(src->data.pinfo->executable_name);
}
memcpy(&p->data.pinfo->pid, &src->data.pinfo->pid, sizeof(pid_t));
memcpy(&p->data.pinfo->exit_code, &src->data.pinfo->exit_code, sizeof(int));
memcpy(&p->data.pinfo->state, &src->data.pinfo->state, sizeof(pmix_proc_state_t));
break;
case PMIX_DATA_ARRAY:
p->data.darray = (pmix_data_array_t*)calloc(1, sizeof(pmix_data_array_t));
p->data.darray->type = src->data.darray->type;
p->data.darray->size = src->data.darray->size;
if (0 == p->data.darray->size || NULL == src->data.darray->array) {
p->data.darray->array = NULL;
p->data.darray->size = 0;
break;
}
/* allocate space and do the copy */
switch (src->data.darray->type) {
case PMIX_UINT8:
case PMIX_INT8:
case PMIX_BYTE:
p->data.darray->array = (char*)malloc(src->data.darray->size);
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
memcpy(p->data.darray->array, src->data.darray->array, src->data.darray->size);
break;
case PMIX_UINT16:
case PMIX_INT16:
p->data.darray->array = (char*)malloc(src->data.darray->size * sizeof(uint16_t));
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
memcpy(p->data.darray->array, src->data.darray->array, src->data.darray->size * sizeof(uint16_t));
break;
case PMIX_UINT32:
case PMIX_INT32:
p->data.darray->array = (char*)malloc(src->data.darray->size * sizeof(uint32_t));
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
memcpy(p->data.darray->array, src->data.darray->array, src->data.darray->size * sizeof(uint32_t));
break;
case PMIX_UINT64:
case PMIX_INT64:
p->data.darray->array = (char*)malloc(src->data.darray->size * sizeof(uint64_t));
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
memcpy(p->data.darray->array, src->data.darray->array, src->data.darray->size * sizeof(uint64_t));
break;
case PMIX_BOOL:
p->data.darray->array = (char*)malloc(src->data.darray->size * sizeof(bool));
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
memcpy(p->data.darray->array, src->data.darray->array, src->data.darray->size * sizeof(bool));
break;
case PMIX_SIZE:
p->data.darray->array = (char*)malloc(src->data.darray->size * sizeof(size_t));
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
memcpy(p->data.darray->array, src->data.darray->array, src->data.darray->size * sizeof(size_t));
break;
case PMIX_PID:
p->data.darray->array = (char*)malloc(src->data.darray->size * sizeof(pid_t));
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
memcpy(p->data.darray->array, src->data.darray->array, src->data.darray->size * sizeof(pid_t));
break;
case PMIX_STRING:
p->data.darray->array = (char**)malloc(src->data.darray->size * sizeof(char*));
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
prarray = (char**)p->data.darray->array;
strarray = (char**)src->data.darray->array;
for (n=0; n < src->data.darray->size; n++) {
if (NULL != strarray[n]) {
prarray[n] = strdup(strarray[n]);
}
}
break;
case PMIX_INT:
case PMIX_UINT:
p->data.darray->array = (char*)malloc(src->data.darray->size * sizeof(int));
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
memcpy(p->data.darray->array, src->data.darray->array, src->data.darray->size * sizeof(int));
break;
case PMIX_FLOAT:
p->data.darray->array = (char*)malloc(src->data.darray->size * sizeof(float));
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
memcpy(p->data.darray->array, src->data.darray->array, src->data.darray->size * sizeof(float));
break;
case PMIX_DOUBLE:
p->data.darray->array = (char*)malloc(src->data.darray->size * sizeof(double));
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
memcpy(p->data.darray->array, src->data.darray->array, src->data.darray->size * sizeof(double));
break;
case PMIX_TIMEVAL:
p->data.darray->array = (struct timeval*)malloc(src->data.darray->size * sizeof(struct timeval));
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
memcpy(p->data.darray->array, src->data.darray->array, src->data.darray->size * sizeof(struct timeval));
break;
case PMIX_TIME:
p->data.darray->array = (time_t*)malloc(src->data.darray->size * sizeof(time_t));
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
memcpy(p->data.darray->array, src->data.darray->array, src->data.darray->size * sizeof(time_t));
break;
case PMIX_STATUS:
p->data.darray->array = (pmix_status_t*)malloc(src->data.darray->size * sizeof(pmix_status_t));
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
memcpy(p->data.darray->array, src->data.darray->array, src->data.darray->size * sizeof(pmix_status_t));
break;
case PMIX_VALUE:
PMIX_VALUE_CREATE(p->data.darray->array, src->data.darray->size);
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
pv = (pmix_value_t*)p->data.darray->array;
sv = (pmix_value_t*)src->data.darray->array;
for (n=0; n < src->data.darray->size; n++) {
if (PMIX_SUCCESS != (rc = pmix_value_xfer(&pv[n], &sv[n]))) {
PMIX_VALUE_FREE(pv, src->data.darray->size);
return rc;
}
}
break;
case PMIX_PROC:
PMIX_PROC_CREATE(p->data.darray->array, src->data.darray->size);
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
memcpy(p->data.darray->array, src->data.darray->array, src->data.darray->size * sizeof(pmix_proc_t));
break;
case PMIX_APP:
PMIX_APP_CREATE(p->data.darray->array, src->data.darray->size);
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
pa = (pmix_app_t*)p->data.darray->array;
sa = (pmix_app_t*)src->data.darray->array;
for (n=0; n < src->data.darray->size; n++) {
if (NULL != sa[n].cmd) {
pa[n].cmd = strdup(sa[n].cmd);
}
if (NULL != sa[n].argv) {
pa[n].argv = pmix_argv_copy(sa[n].argv);
}
if (NULL != sa[n].env) {
pa[n].env = pmix_argv_copy(sa[n].env);
}
if (NULL != sa[n].cwd) {
pa[n].cwd = strdup(sa[n].cwd);
}
pa[n].maxprocs = sa[n].maxprocs;
if (0 < sa[n].ninfo && NULL != sa[n].info) {
PMIX_INFO_CREATE(pa[n].info, sa[n].ninfo);
if (NULL == pa[n].info) {
PMIX_APP_FREE(pa, src->data.darray->size);
return PMIX_ERR_NOMEM;
}
pa[n].ninfo = sa[n].ninfo;
for (m=0; m < pa[n].ninfo; m++) {
PMIX_INFO_XFER(&pa[n].info[m], &sa[n].info[m]);
}
}
}
break;
case PMIX_INFO:
PMIX_INFO_CREATE(p->data.darray->array, src->data.darray->size);
p1 = (pmix_info_t*)p->data.darray->array;
s1 = (pmix_info_t*)src->data.darray->array;
for (n=0; n < src->data.darray->size; n++) {
PMIX_INFO_XFER(&p1[n], &s1[n]);
}
break;
case PMIX_PDATA:
PMIX_PDATA_CREATE(p->data.darray->array, src->data.darray->size);
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
pd = (pmix_pdata_t*)p->data.darray->array;
sd = (pmix_pdata_t*)src->data.darray->array;
for (n=0; n < src->data.darray->size; n++) {
PMIX_PDATA_XFER(&pd[n], &sd[n]);
}
break;
case PMIX_BUFFER:
p->data.darray->array = (pmix_buffer_t*)malloc(src->data.darray->size * sizeof(pmix_buffer_t));
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
pb = (pmix_buffer_t*)p->data.darray->array;
sb = (pmix_buffer_t*)src->data.darray->array;
for (n=0; n < src->data.darray->size; n++) {
PMIX_CONSTRUCT(&pb[n], pmix_buffer_t);
pmix_bfrops_base_copy_payload(&pb[n], &sb[n]);
}
break;
case PMIX_BYTE_OBJECT:
case PMIX_COMPRESSED_STRING:
p->data.darray->array = (pmix_byte_object_t*)malloc(src->data.darray->size * sizeof(pmix_byte_object_t));
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
pbo = (pmix_byte_object_t*)p->data.darray->array;
sbo = (pmix_byte_object_t*)src->data.darray->array;
for (n=0; n < src->data.darray->size; n++) {
if (NULL != sbo[n].bytes && 0 < sbo[n].size) {
pbo[n].size = sbo[n].size;
pbo[n].bytes = (char*)malloc(pbo[n].size);
memcpy(pbo[n].bytes, sbo[n].bytes, pbo[n].size);
} else {
pbo[n].bytes = NULL;
pbo[n].size = 0;
}
}
break;
case PMIX_KVAL:
p->data.darray->array = (pmix_kval_t*)calloc(src->data.darray->size , sizeof(pmix_kval_t));
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
pk = (pmix_kval_t*)p->data.darray->array;
sk = (pmix_kval_t*)src->data.darray->array;
for (n=0; n < src->data.darray->size; n++) {
if (NULL != sk[n].key) {
pk[n].key = strdup(sk[n].key);
}
if (NULL != sk[n].value) {
PMIX_VALUE_CREATE(pk[n].value, 1);
if (NULL == pk[n].value) {
free(p->data.darray->array);
return PMIX_ERR_NOMEM;
}
if (PMIX_SUCCESS != (rc = pmix_value_xfer(pk[n].value, sk[n].value))) {
return rc;
}
}
}
break;
case PMIX_MODEX:
PMIX_MODEX_CREATE(p->data.darray->array, src->data.darray->size);
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
pm = (pmix_modex_data_t*)p->data.darray->array;
sm = (pmix_modex_data_t*)src->data.darray->array;
for (n=0; n < src->data.darray->size; n++) {
memcpy(&pm[n], &sm[n], sizeof(pmix_modex_data_t));
if (NULL != sm[n].blob && 0 < sm[n].size) {
pm[n].blob = (uint8_t*)malloc(sm[n].size);
if (NULL == pm[n].blob) {
return PMIX_ERR_NOMEM;
}
memcpy(pm[n].blob, sm[n].blob, sm[n].size);
pm[n].size = sm[n].size;
} else {
pm[n].blob = NULL;
pm[n].size = 0;
}
}
break;
case PMIX_PERSIST:
p->data.darray->array = (pmix_persistence_t*)malloc(src->data.darray->size * sizeof(pmix_persistence_t));
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
memcpy(p->data.darray->array, src->data.darray->array, src->data.darray->size * sizeof(pmix_persistence_t));
break;
case PMIX_POINTER:
p->data.darray->array = (char**)malloc(src->data.darray->size * sizeof(char*));
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
prarray = (char**)p->data.darray->array;
strarray = (char**)src->data.darray->array;
for (n=0; n < src->data.darray->size; n++) {
prarray[n] = strarray[n];
}
break;
case PMIX_SCOPE:
p->data.darray->array = (pmix_scope_t*)malloc(src->data.darray->size * sizeof(pmix_scope_t));
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
memcpy(p->data.darray->array, src->data.darray->array, src->data.darray->size * sizeof(pmix_scope_t));
break;
case PMIX_DATA_RANGE:
p->data.darray->array = (pmix_data_range_t*)malloc(src->data.darray->size * sizeof(pmix_data_range_t));
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
memcpy(p->data.darray->array, src->data.darray->array, src->data.darray->size * sizeof(pmix_data_range_t));
break;
case PMIX_COMMAND:
p->data.darray->array = (pmix_cmd_t*)malloc(src->data.darray->size * sizeof(pmix_cmd_t));
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
memcpy(p->data.darray->array, src->data.darray->array, src->data.darray->size * sizeof(pmix_cmd_t));
break;
case PMIX_INFO_DIRECTIVES:
p->data.darray->array = (pmix_info_directives_t*)malloc(src->data.darray->size * sizeof(pmix_info_directives_t));
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
memcpy(p->data.darray->array, src->data.darray->array, src->data.darray->size * sizeof(pmix_info_directives_t));
break;
case PMIX_PROC_INFO:
PMIX_PROC_INFO_CREATE(p->data.darray->array, src->data.darray->size);
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
pi = (pmix_proc_info_t*)p->data.darray->array;
si = (pmix_proc_info_t*)src->data.darray->array;
for (n=0; n < src->data.darray->size; n++) {
memcpy(&pi[n].proc, &si[n].proc, sizeof(pmix_proc_t));
if (NULL != si[n].hostname) {
pi[n].hostname = strdup(si[n].hostname);
} else {
pi[n].hostname = NULL;
}
if (NULL != si[n].executable_name) {
pi[n].executable_name = strdup(si[n].executable_name);
} else {
pi[n].executable_name = NULL;
}
pi[n].pid = si[n].pid;
pi[n].exit_code = si[n].exit_code;
pi[n].state = si[n].state;
}
break;
case PMIX_DATA_ARRAY:
PMIX_ERROR_LOG(PMIX_ERR_NOT_SUPPORTED);
return PMIX_ERR_NOT_SUPPORTED; // don't support iterative arrays
case PMIX_QUERY:
PMIX_QUERY_CREATE(p->data.darray->array, src->data.darray->size);
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
pq = (pmix_query_t*)p->data.darray->array;
sq = (pmix_query_t*)src->data.darray->array;
for (n=0; n < src->data.darray->size; n++) {
if (NULL != sq[n].keys) {
pq[n].keys = pmix_argv_copy(sq[n].keys);
}
if (NULL != sq[n].qualifiers && 0 < sq[n].nqual) {
PMIX_INFO_CREATE(pq[n].qualifiers, sq[n].nqual);
if (NULL == pq[n].qualifiers) {
PMIX_QUERY_FREE(pq, src->data.darray->size);
return PMIX_ERR_NOMEM;
}
for (m=0; m < sq[n].nqual; m++) {
PMIX_INFO_XFER(&pq[n].qualifiers[m], &sq[n].qualifiers[m]);
}
pq[n].nqual = sq[n].nqual;
} else {
pq[n].qualifiers = NULL;
pq[n].nqual = 0;
}
}
break;
case PMIX_ENVAR:
PMIX_ENVAR_CREATE(p->data.darray->array, src->data.darray->size);
if (NULL == p->data.darray->array) {
return PMIX_ERR_NOMEM;
}
pe = (pmix_envar_t*)p->data.darray->array;
se = (pmix_envar_t*)src->data.darray->array;
for (n=0; n < src->data.darray->size; n++) {
if (NULL != se[n].envar) {
pe[n].envar = strdup(se[n].envar);
}
if (NULL != se[n].value) {
pe[n].value = strdup(se[n].value);
}
pe[n].separator = se[n].separator;
}
break;
default:
return PMIX_ERR_UNKNOWN_DATA_TYPE;
}
break;
case PMIX_POINTER:
memcpy(&p->data.ptr, &src->data.ptr, sizeof(void*));
break;
case PMIX_ENVAR:
PMIX_ENVAR_CONSTRUCT(&p->data.envar);
if (NULL != src->data.envar.envar) {
p->data.envar.envar = strdup(src->data.envar.envar);
}
if (NULL != src->data.envar.value) {
p->data.envar.value = strdup(src->data.envar.value);
}
p->data.envar.separator = src->data.envar.separator;
break;
/**** DEPRECATED ****/
case PMIX_INFO_ARRAY:
p->data.array->size = src->data.array->size;
if (0 < src->data.array->size) {
p->data.array->array = (pmix_info_t*)malloc(src->data.array->size * sizeof(pmix_info_t));
if (NULL == p->data.array->array) {
return PMIX_ERR_NOMEM;
}
p1 = (pmix_info_t*)p->data.array->array;
s1 = (pmix_info_t*)src->data.array->array;
for (n=0; n < src->data.darray->size; n++) {
PMIX_INFO_XFER(&p1[n], &s1[n]);
}
}
break;
/********************/
default:
pmix_output(0, "XFER-PMIX-VALUE: UNSUPPORTED TYPE %d", (int)src->type);
assert(0);
return PMIX_ERROR;
}
return PMIX_SUCCESS;
}
int main(int argc, char **argv)
{
char **client_env=NULL;
char **client_argv=NULL;
int rc;
struct stat stat_buf;
struct timeval tv;
double test_start;
cli_state_t order[CLI_TERM+1];
test_params params;
INIT_TEST_PARAMS(params);
int test_fail = 0;
char *tmp;
int ns_nprocs;
gettimeofday(&tv, NULL);
test_start = tv.tv_sec + 1E-6*tv.tv_usec;
/* smoke test */
if (PMIX_SUCCESS != 0) {
TEST_ERROR(("ERROR IN COMPUTING CONSTANTS: PMIX_SUCCESS = %d", PMIX_SUCCESS));
exit(1);
}
TEST_VERBOSE(("Testing version %s", PMIx_Get_version()));
parse_cmd(argc, argv, ¶ms);
TEST_VERBOSE(("Start PMIx_lite smoke test (timeout is %d)", params.timeout));
/* verify executable */
if( 0 > ( rc = stat(params.binary, &stat_buf) ) ){
TEST_ERROR(("Cannot stat() executable \"%s\": %d: %s", params.binary, errno, strerror(errno)));
FREE_TEST_PARAMS(params);
return 0;
} else if( !S_ISREG(stat_buf.st_mode) ){
TEST_ERROR(("Client executable \"%s\": is not a regular file", params.binary));
FREE_TEST_PARAMS(params);
return 0;
}else if( !(stat_buf.st_mode & S_IXUSR) ){
TEST_ERROR(("Client executable \"%s\": has no executable flag", params.binary));
FREE_TEST_PARAMS(params);
return 0;
}
/* setup the server library */
pmix_info_t info[1];
(void)strncpy(info[0].key, PMIX_SOCKET_MODE, PMIX_MAX_KEYLEN);
info[0].value.type = PMIX_UINT32;
info[0].value.data.uint32 = 0666;
if (PMIX_SUCCESS != (rc = PMIx_server_init(&mymodule, info, 1))) {
TEST_ERROR(("Init failed with error %d", rc));
FREE_TEST_PARAMS(params);
return rc;
}
/* register the errhandler */
PMIx_Register_event_handler(NULL, 0, NULL, 0,
errhandler, errhandler_reg_callbk, NULL);
order[CLI_UNINIT] = CLI_FORKED;
order[CLI_FORKED] = CLI_FIN;
order[CLI_CONNECTED] = CLI_UNDEF;
order[CLI_FIN] = CLI_TERM;
order[CLI_DISCONN] = CLI_UNDEF;
order[CLI_TERM] = CLI_UNDEF;
cli_init(params.nprocs, order);
/* set common argv and env */
client_env = pmix_argv_copy(environ);
set_client_argv(¶ms, &client_argv);
tmp = pmix_argv_join(client_argv, ' ');
TEST_VERBOSE(("Executing test: %s", tmp));
free(tmp);
int launched = 0;
/* set namespaces and fork clients */
if (NULL == params.ns_dist) {
/* we have a single namespace for all clients */
ns_nprocs = params.nprocs;
rc = launch_clients(ns_nprocs, params.binary, &client_env, &client_argv);
if (PMIX_SUCCESS != rc) {
FREE_TEST_PARAMS(params);
return rc;
}
launched += ns_nprocs;
} else {
char *pch;
pch = strtok(params.ns_dist, ":");
while (NULL != pch) {
ns_nprocs = (int)strtol(pch, NULL, 10);
if (params.nprocs < (uint32_t)(launched+ns_nprocs)) {
TEST_ERROR(("Total number of processes doesn't correspond number specified by ns_dist parameter."));
FREE_TEST_PARAMS(params);
return PMIX_ERROR;
}
if (0 < ns_nprocs) {
rc = launch_clients(ns_nprocs, params.binary, &client_env, &client_argv);
if (PMIX_SUCCESS != rc) {
FREE_TEST_PARAMS(params);
return rc;
}
}
pch = strtok (NULL, ":");
launched += ns_nprocs;
}
}
if (params.nprocs != (uint32_t)launched) {
TEST_ERROR(("Total number of processes doesn't correspond number specified by ns_dist parameter."));
cli_kill_all();
test_fail = 1;
}
/* hang around until the client(s) finalize */
while (!test_terminated()) {
// To avoid test hang we want to interrupt the loop each 0.1s
double test_current;
// check if we exceed the max time
gettimeofday(&tv, NULL);
test_current = tv.tv_sec + 1E-6*tv.tv_usec;
if( (test_current - test_start) > params.timeout ){
break;
}
cli_wait_all(0);
}
if( !test_terminated() ){
TEST_ERROR(("Test exited by a timeout!"));
cli_kill_all();
test_fail = 1;
}
if( test_abort ){
TEST_ERROR(("Test was aborted!"));
/* do not simply kill the clients as that generates
* event notifications which these tests then print
* out, flooding the log */
// cli_kill_all();
test_fail = 1;
}
if (0 != params.test_spawn) {
PMIX_WAIT_FOR_COMPLETION(spawn_wait);
}
pmix_argv_free(client_argv);
pmix_argv_free(client_env);
/* deregister the errhandler */
PMIx_Deregister_event_handler(0, op_callbk, NULL);
cli_wait_all(1.0);
/* finalize the server library */
if (PMIX_SUCCESS != (rc = PMIx_server_finalize())) {
TEST_ERROR(("Finalize failed with error %d", rc));
}
FREE_TEST_PARAMS(params);
if (0 == test_fail) {
TEST_OUTPUT(("Test finished OK!"));
}
return test_fail;
}
int launch_clients(int num_procs, char *binary, char *** client_env, char ***base_argv)
{
int n;
uid_t myuid;
gid_t mygid;
char *ranks = NULL;
char digit[MAX_DIGIT_LEN];
int rc;
static int counter = 0;
static int num_ns = 0;
pmix_proc_t proc;
TEST_VERBOSE(("Setting job info"));
fill_seq_ranks_array(num_procs, counter, &ranks);
if (NULL == ranks) {
PMIx_server_finalize();
TEST_ERROR(("fill_seq_ranks_array failed"));
return PMIX_ERROR;
}
(void)snprintf(proc.nspace, PMIX_MAX_NSLEN, "%s-%d", TEST_NAMESPACE, num_ns);
set_namespace(num_procs, ranks, proc.nspace);
if (NULL != ranks) {
free(ranks);
}
myuid = getuid();
mygid = getgid();
/* fork/exec the test */
for (n = 0; n < num_procs; n++) {
proc.rank = counter;
if (PMIX_SUCCESS != (rc = PMIx_server_setup_fork(&proc, client_env))) {//n
TEST_ERROR(("Server fork setup failed with error %d", rc));
PMIx_server_finalize();
cli_kill_all();
return rc;
}
if (PMIX_SUCCESS != (rc = PMIx_server_register_client(&proc, myuid, mygid, NULL, NULL, NULL))) {//n
TEST_ERROR(("Server fork setup failed with error %d", rc));
PMIx_server_finalize();
cli_kill_all();
return rc;
}
cli_info[counter].pid = fork();
if (cli_info[counter].pid < 0) {
TEST_ERROR(("Fork failed"));
PMIx_server_finalize();
cli_kill_all();
return -1;
}
cli_info[counter].rank = counter;//n
cli_info[counter].ns = strdup(proc.nspace);
char **client_argv = pmix_argv_copy(*base_argv);
/* add two last arguments: -r <rank> */
sprintf(digit, "%d", counter);//n
pmix_argv_append_nosize(&client_argv, "-r");
pmix_argv_append_nosize(&client_argv, digit);
pmix_argv_append_nosize(&client_argv, "-s");
pmix_argv_append_nosize(&client_argv, proc.nspace);
sprintf(digit, "%d", num_procs);
pmix_argv_append_nosize(&client_argv, "--ns-size");
pmix_argv_append_nosize(&client_argv, digit);
sprintf(digit, "%d", num_ns);
pmix_argv_append_nosize(&client_argv, "--ns-id");
pmix_argv_append_nosize(&client_argv, digit);
sprintf(digit, "%d", (counter-n));
pmix_argv_append_nosize(&client_argv, "--base-rank");
pmix_argv_append_nosize(&client_argv, digit);
if (cli_info[counter].pid == 0) {
if( !TEST_VERBOSE_GET() ){
// Hide clients stdout
// TODO: on some systems stdout is a constant, address this
fclose(stdout);
stdout = fopen("/dev/null","w");
}
execve(binary, client_argv, *client_env);
/* Does not return */
exit(0);
}
cli_info[counter].state = CLI_FORKED;
pmix_argv_free(client_argv);
counter++;
}
num_ns++;
return PMIX_SUCCESS;
}
int main(int argc, char **argv)
{
char **client_env=NULL;
char **client_argv=NULL;
int rc;
struct stat stat_buf;
struct timeval tv;
double test_start;
test_params params;
INIT_TEST_PARAMS(params);
int test_fail = 0;
char *tmp;
int ns_nprocs;
gettimeofday(&tv, NULL);
test_start = tv.tv_sec + 1E-6*tv.tv_usec;
/* smoke test */
if (PMIX_SUCCESS != 0) {
TEST_ERROR(("ERROR IN COMPUTING CONSTANTS: PMIX_SUCCESS = %d", PMIX_SUCCESS));
exit(1);
}
TEST_VERBOSE(("Testing version %s", PMIx_Get_version()));
parse_cmd(argc, argv, ¶ms);
TEST_VERBOSE(("Start PMIx_lite smoke test (timeout is %d)", params.timeout));
/* set common argv and env */
client_env = pmix_argv_copy(environ);
set_client_argv(¶ms, &client_argv);
tmp = pmix_argv_join(client_argv, ' ');
TEST_VERBOSE(("Executing test: %s", tmp));
free(tmp);
/* verify executable */
if( 0 > ( rc = stat(params.binary, &stat_buf) ) ){
TEST_ERROR(("Cannot stat() executable \"%s\": %d: %s", params.binary, errno, strerror(errno)));
FREE_TEST_PARAMS(params);
return 0;
} else if( !S_ISREG(stat_buf.st_mode) ){
TEST_ERROR(("Client executable \"%s\": is not a regular file", params.binary));
FREE_TEST_PARAMS(params);
return 0;
}else if( !(stat_buf.st_mode & S_IXUSR) ){
TEST_ERROR(("Client executable \"%s\": has no executable flag", params.binary));
FREE_TEST_PARAMS(params);
return 0;
}
if (PMIX_SUCCESS != (rc = server_init(¶ms))) {
FREE_TEST_PARAMS(params);
return rc;
}
cli_init(params.lsize);
int launched = 0;
/* set namespaces and fork clients */
if (NULL == params.ns_dist) {
uint32_t i;
int base_rank = 0;
/* compute my start counter */
for(i = 0; i < (uint32_t)my_server_id; i++) {
base_rank += (params.nprocs % params.nservers) > (uint32_t)i ?
params.nprocs / params.nservers + 1 :
params.nprocs / params.nservers;
}
/* we have a single namespace for all clients */
ns_nprocs = params.nprocs;
launched += server_launch_clients(params.lsize, params.nprocs, base_rank,
¶ms, &client_env, &client_argv);
} else {
char *pch;
pch = strtok(params.ns_dist, ":");
while (NULL != pch) {
ns_nprocs = (int)strtol(pch, NULL, 10);
if (params.nprocs < (uint32_t)(launched+ns_nprocs)) {
TEST_ERROR(("Total number of processes doesn't correspond number specified by ns_dist parameter."));
FREE_TEST_PARAMS(params);
return PMIX_ERROR;
}
if (0 < ns_nprocs) {
launched += server_launch_clients(ns_nprocs, ns_nprocs, 0, ¶ms,
&client_env, &client_argv);
}
pch = strtok (NULL, ":");
}
}
if (params.lsize != (uint32_t)launched) {
TEST_ERROR(("Total number of processes doesn't correspond number specified by ns_dist parameter."));
cli_kill_all();
test_fail = 1;
}
/* hang around until the client(s) finalize */
while (!test_terminated()) {
// To avoid test hang we want to interrupt the loop each 0.1s
double test_current;
// check if we exceed the max time
gettimeofday(&tv, NULL);
test_current = tv.tv_sec + 1E-6*tv.tv_usec;
if( (test_current - test_start) > params.timeout ){
break;
}
cli_wait_all(0);
}
if( !test_terminated() ){
TEST_ERROR(("Test exited by a timeout!"));
cli_kill_all();
test_fail = 1;
}
if( test_abort ){
TEST_ERROR(("Test was aborted!"));
/* do not simply kill the clients as that generates
* event notifications which these tests then print
* out, flooding the log */
// cli_kill_all();
test_fail = 1;
}
if (0 != params.test_spawn) {
PMIX_WAIT_FOR_COMPLETION(spawn_wait);
}
/* deregister the errhandler */
PMIx_Deregister_event_handler(0, op_callbk, NULL);
cli_wait_all(1.0);
test_fail += server_finalize(¶ms);
FREE_TEST_PARAMS(params);
pmix_argv_free(client_argv);
pmix_argv_free(client_env);
return test_fail;
}
