use ca_printf for logMsg

This commit is contained in:
Jeff Hill
1992-07-23 15:25:16 +00:00
parent 65283663a5
commit 2c0d606b7d
+40 -40
View File
@@ -21,6 +21,7 @@
* return most recent chan data if chan failed to
* produce data with the associated time stamp
* 09/03/91 joh fixed includes for V5 vxWorks
* 06/26/92 joh now uses ca_printf instead of printf
*
*
* Compile:
@@ -81,7 +82,6 @@
*/
#if defined(UNIX)
# define logMsg printf
# include <types.h>
# include <stdio.h>
# include <sys/time.h>
@@ -197,7 +197,7 @@ main()
pSync_compctrl = (struct gsd_sync_compctrl *)
gsd_sync_init(pSync_data_array, CHAN_COUNT, &pfdctx, NULL);
if(NULL == pSync_compctrl) {
logMsg("unable to continue, gsd_sync_init failed\n");
ca_printf("unable to continue, gsd_sync_init failed\n");
return 1;
}
pSync_ctrl = pSync_compctrl->pCtrl;
@@ -205,13 +205,13 @@ main()
gsd_sync_read(PREVIOUS_SYNC_DATA, pSync_compctrl, CHAN_COUNT, &pfdctx,
SYNC_TIMEOUT);
logMsg("result of sync_read(PREVIOUS_SYNC_DATA)\n");
ca_printf("result of sync_read(PREVIOUS_SYNC_DATA)\n");
for (i = 0; i < CHAN_COUNT; ++i) {
logMsg("%s valid = %d ptr = %d \n",
ca_printf("%s valid = %d ptr = %d \n",
(pSync_ctrl->pDstruct)->pName, (pSync_ctrl->pDstruct)->svalid,
(pSync_ctrl->pDstruct)->pSdata);
if((pSync_ctrl->pDstruct)->pSdata) {
logMsg("ts sec = %ld ts nsec = %ld value = %f\n",
ca_printf("ts sec = %ld ts nsec = %ld value = %f\n",
((struct dbr_time_float *)
((pSync_ctrl->pDstruct)->pSdata))->stamp.secPastEpoch,
((struct dbr_time_float *)
@@ -222,20 +222,20 @@ main()
++pSync_ctrl;
}
pSync_ctrl = pSync_compctrl->pCtrl;
logMsg("\n");
ca_printf("\n");
while(!gsd_sync_read(NEXTSET_SYNC_DATA, pSync_compctrl, CHAN_COUNT, &pfdctx,
SYNC_TIMEOUT)) {
;
}
logMsg("result of sync_read(NEXTSET_SYNC_DATA)\n");
ca_printf("result of sync_read(NEXTSET_SYNC_DATA)\n");
for (i = 0; i < CHAN_COUNT; ++i) {
logMsg("%s valid = %d ptr = %d \n",
ca_printf("%s valid = %d ptr = %d \n",
(pSync_ctrl->pDstruct)->pName, (pSync_ctrl->pDstruct)->svalid,
(pSync_ctrl->pDstruct)->pSdata);
if((pSync_ctrl->pDstruct)->pSdata) {
logMsg("ts sec = %ld ts nsec = %ld value = %f\n",
ca_printf("ts sec = %ld ts nsec = %ld value = %f\n",
((struct dbr_time_float *)
((pSync_ctrl->pDstruct)->pSdata))->stamp.secPastEpoch,
((struct dbr_time_float *)
@@ -246,18 +246,18 @@ main()
++pSync_ctrl;
}
pSync_ctrl = pSync_compctrl->pCtrl;
logMsg("\n");
ca_printf("\n");
gsd_sync_read(PREVIOUS_SYNC_DATA, pSync_compctrl, CHAN_COUNT, &pfdctx,
SYNC_TIMEOUT);
logMsg("result of sync_read(PREVIOUS_SYNC_DATA)\n");
ca_printf("result of sync_read(PREVIOUS_SYNC_DATA)\n");
for (i = 0; i < CHAN_COUNT; ++i) {
logMsg("%s valid = %d ptr = %d \n",
ca_printf("%s valid = %d ptr = %d \n",
(pSync_ctrl->pDstruct)->pName, (pSync_ctrl->pDstruct)->svalid,
(pSync_ctrl->pDstruct)->pSdata);
if((pSync_ctrl->pDstruct)->pSdata) {
logMsg("ts sec = %ld ts nsec = %ld value = %f\n",
ca_printf("ts sec = %ld ts nsec = %ld value = %f\n",
((struct dbr_time_float *)
((pSync_ctrl->pDstruct)->pSdata))->stamp.secPastEpoch,
((struct dbr_time_float *)
@@ -268,20 +268,20 @@ main()
++pSync_ctrl;
}
pSync_ctrl = pSync_compctrl->pCtrl;
logMsg("\n");
ca_printf("\n");
while(!gsd_sync_read(NEXTSET_SYNC_DATA, pSync_compctrl, CHAN_COUNT, &pfdctx,
SYNC_TIMEOUT)) {
;
}
logMsg("result of sync_read(NEXTSET_SYNC_DATA)\n");
ca_printf("result of sync_read(NEXTSET_SYNC_DATA)\n");
for (i = 0; i < CHAN_COUNT; ++i) {
logMsg("%s valid = %d ptr = %d \n",
ca_printf("%s valid = %d ptr = %d \n",
(pSync_ctrl->pDstruct)->pName, (pSync_ctrl->pDstruct)->svalid,
(pSync_ctrl->pDstruct)->pSdata);
if((pSync_ctrl->pDstruct)->pSdata) {
logMsg("ts sec = %ld ts nsec = %ld value = %f\n",
ca_printf("ts sec = %ld ts nsec = %ld value = %f\n",
((struct dbr_time_float *)
((pSync_ctrl->pDstruct)->pSdata))->stamp.secPastEpoch,
((struct dbr_time_float *)
@@ -292,18 +292,18 @@ main()
++pSync_ctrl;
}
pSync_ctrl = pSync_compctrl->pCtrl;
logMsg("\n");
ca_printf("\n");
gsd_sync_read(PREVIOUS_SYNC_DATA, pSync_compctrl, CHAN_COUNT, &pfdctx,
SYNC_TIMEOUT);
logMsg("result of sync_read(PREVIOUS_SYNC_DATA)\n");
ca_printf("result of sync_read(PREVIOUS_SYNC_DATA)\n");
for (i = 0; i < CHAN_COUNT; ++i) {
logMsg("%s valid = %d ptr = %d \n",
ca_printf("%s valid = %d ptr = %d \n",
(pSync_ctrl->pDstruct)->pName, (pSync_ctrl->pDstruct)->svalid,
(pSync_ctrl->pDstruct)->pSdata);
if((pSync_ctrl->pDstruct)->pSdata) {
logMsg("ts sec = %ld ts nsec = %ld value = %f\n",
ca_printf("ts sec = %ld ts nsec = %ld value = %f\n",
((struct dbr_time_float *)
((pSync_ctrl->pDstruct)->pSdata))->stamp.secPastEpoch,
((struct dbr_time_float *)
@@ -314,11 +314,11 @@ main()
++pSync_ctrl;
}
pSync_ctrl = pSync_compctrl->pCtrl;
logMsg("\n");
ca_printf("\n");
gsd_sync_clear(pSync_compctrl, CHAN_COUNT);
logMsg("End of test and demo.\n\n");
ca_printf("End of test and demo.\n\n");
return 0;
}
@@ -369,13 +369,13 @@ char *pMac_pairs[];
pCompctrl = (struct gsd_sync_compctrl *)
calloc(1, sizeof(struct gsd_sync_compctrl));
if(pCompctrl == NULL) {
logMsg("gsd_sync_init: mem alloc failed\n");
ca_printf("gsd_sync_init: mem alloc failed\n");
return NULL;
}
pCtrl = (struct gsd_sync_ctrl *) calloc(chan_count, sizeof(struct gsd_sync_ctrl));
if(pCtrl == NULL) {
logMsg("gsd_sync_init: mem alloc failed\n");
ca_printf("gsd_sync_init: mem alloc failed\n");
free(pCompctrl);
return NULL;
}
@@ -390,7 +390,7 @@ char *pMac_pairs[];
gsdl_main_macro(name_str, pSync->pName, pMac_pairs, db_name_dim);
strcpy(pSync->pName, name_str);
}
/* printf("new_str = %s\n", pSync->pName);*/
/* ca_printf("new_str = %s\n", pSync->pName);*/
SEVCHK(ca_build_and_connect(pSync->pName, TYPENOTCONN, 0,
&(pSync->pChid), (VOID *) NULL,
gsd_connevent_handler, (VOID *) pCtrl),
@@ -434,7 +434,7 @@ struct connection_handler_args args;
dbf_type_to_DBR_TIME(ca_field_type(args.chid)),
ca_element_count(args.chid)));
if(pSync->pSdata == NULL) {
logMsg("gsd_connevent_handler: mem alloc fail\n");
ca_printf("gsd_connevent_handler: mem alloc fail\n");
return;
}
pCtrl->pNdata = (VOID *) calloc(1, dbr_size_n(
@@ -443,7 +443,7 @@ struct connection_handler_args args;
if(pCtrl->pNdata == NULL) {
free(pSync->pSdata);
pSync->pSdata = NULL;
logMsg("gsd_connevent_handler: mem alloc fail\n");
ca_printf("gsd_connevent_handler: mem alloc fail\n");
return;
}
pCtrl->pAdata = (VOID *) calloc(1, dbr_size_n(
@@ -454,7 +454,7 @@ struct connection_handler_args args;
pSync->pSdata = NULL;
free(pCtrl->pNdata);
pCtrl->pNdata = NULL;
logMsg("gsd_connevent_handler: mem alloc fail\n");
ca_printf("gsd_connevent_handler: mem alloc fail\n");
return;
}
@@ -463,7 +463,7 @@ struct connection_handler_args args;
pSync->count = ca_element_count(pSync->pChid);
/*
logMsg("%s type = %d count = %d\n",
ca_printf("%s type = %d count = %d\n",
pSync->pName, pSync->time_type, pSync->count);
*/
}
@@ -500,7 +500,7 @@ struct event_handler_args args;
sizeof(struct gsd_sync_linked));
pAlloc_data = (VOID *) calloc(1, dbr_size_n(args.type,args.count));
if((NULL == pAlloc_linked) || (NULL == pAlloc_data)) {
logMsg("gsd_event_handler: mem alloc failed.\n");
ca_printf("gsd_event_handler: mem alloc failed.\n");
/* clean-up unused memory */
if(pAlloc_linked != NULL) free(pAlloc_linked);
if(pAlloc_data != NULL) free(pAlloc_data);
@@ -523,7 +523,7 @@ struct event_handler_args args;
args.count));
/*
logMsg("%s ts sec = %ld ts nsec = %ld value = %f\n",
ca_printf("%s ts sec = %ld ts nsec = %ld value = %f\n",
(pCtrl->pDstruct)->pName,
((struct dbr_time_float *) (pN->pNdata))->stamp.secPastEpoch,
((struct dbr_time_float *) (pN->pNdata))->stamp.nsec,
@@ -598,7 +598,7 @@ float timeout_secs;
int i;
if(NULL == pCompctrl) {
logMsg("gsd_sync_read: error NULL arg for pCompctrl\n");
ca_printf("gsd_sync_read: error NULL arg for pCompctrl\n");
return;
}
@@ -666,14 +666,14 @@ float timeout_secs;
if(pTs != NULL) {
/*
logMsg("got sync data set\n");
ca_printf("got sync data set\n");
*/
gsd_syncset_findcopy(pCtrl,
chan_count, pTs);
}
else {
/*
logMsg("settle for last \n");
ca_printf("settle for last \n");
*/
pTs = gsd_findlargest_ts(pCtrl,
chan_count);
@@ -810,7 +810,7 @@ int chan_count;
pNchan = pCtrl->pNstruct;
while(pNchan != NULL) {
/*
logMsg(" %ld %ld >? %ld %ld\n",
ca_printf(" %ld %ld >? %ld %ld\n",
(gsd_get_ts((pCtrl->pDstruct)->time_type,
pNchan->pNdata))->secPastEpoch,
(gsd_get_ts((pCtrl->pDstruct)->time_type,
@@ -854,7 +854,7 @@ struct gsd_sync_ctrl *pCtrl;
while(pN != NULL) {
if(pN->pNdata != NULL) {
/*
logMsg("free %s %ld %ld\n", (pCtrl->pDstruct)->pName,
ca_printf("free %s %ld %ld\n", (pCtrl->pDstruct)->pName,
((struct dbr_time_float *) (pN->pNdata))->stamp.secPastEpoch,
((struct dbr_time_float *) (pN->pNdata))->stamp.nsec);
*/
@@ -953,12 +953,12 @@ unsigned int chan_count;
struct gsd_sync_ctrl *pSync_ctrl = pSync_compctrl->pCtrl;
if(NULL == pSync_compctrl) {
logMsg("gsd_sync_clear: error NULL pSync_compctrl\n");
ca_printf("gsd_sync_clear: error NULL pSync_compctrl\n");
return;
}
if(NULL == pSync_ctrl) {
free(pSync_compctrl);
logMsg("gsd_sync_clear: error NULL pSync_ctrl\n");
ca_printf("gsd_sync_clear: error NULL pSync_ctrl\n");
return;
}
@@ -1108,7 +1108,7 @@ void **pfdctx;
{
*pfdctx = (void *) fdmgr_init();
if(!(*pfdctx)) {
logMsg("gsd_ca_task_initialize: fdmgr_init failed.\n");
ca_printf("gsd_ca_task_initialize: fdmgr_init failed.\n");
abort();
}
SEVCHK(ca_add_fd_registration(gsd_fd_register, *pfdctx),