c_bool
d_publisherSampleChainWriterCopy(
c_type type,
void *data,
void *to)
{
d_sampleChain msgFrom = d_sampleChain(data);
d_sampleChain msgTo = d_sampleChain(to);
c_base base = c_getBase(type);
static c_type type0 = NULL;
static c_type type1 = NULL;
unsigned int valueSize;
d_publisherMessageWriterCopy(&msgFrom->parentMsg, &msgTo->parentMsg);
msgTo->partition = c_stringNew(base, msgFrom->partition);
msgTo->topic = c_stringNew(base, msgFrom->topic);
msgTo->durabilityKind = msgFrom->durabilityKind;
msgTo->msgBody._d = msgFrom->msgBody._d;
msgTo->addresseesCount = msgFrom->addresseesCount;
assert(msgTo->addresseesCount > 0);
if (type1 == NULL) {
type1 = c_resolve(base, "durabilityModule2::d_networkAddress_s");
}
assert(type1 != NULL);
msgTo->addressees = c_arrayNew(type1, msgTo->addresseesCount);
assert(msgTo->addressees);
memcpy(msgTo->addressees, msgFrom->addressees, msgTo->addresseesCount*C_SIZEOF(d_networkAddress));
msgTo->source.systemId = msgFrom->source.systemId;
msgTo->source.localId = msgFrom->source.localId;
msgTo->source.lifecycleId = msgFrom->source.lifecycleId;
switch(msgTo->msgBody._d) {
case BEAD:
if (type0 == NULL) {
type0 = c_resolve(base, "c_octet");
}
assert(type0 != NULL);
valueSize = msgFrom->msgBody._u.bead.size;
msgTo->msgBody._u.bead.size = valueSize;
msgTo->msgBody._u.bead.value = c_arrayNew(type0, valueSize);
memcpy(msgTo->msgBody._u.bead.value, msgFrom->msgBody._u.bead.value, valueSize);
break;
case LINK:
msgTo->msgBody._u.link.nrSamples = msgFrom->msgBody._u.link.nrSamples;
msgTo->msgBody._u.link.completeness = msgFrom->msgBody._u.link.completeness;
break;
default:
OS_REPORT_1(OS_ERROR, "d_publisherSampleChainWriterCopy", 0,
"Illegal message body discriminant value (%d) detected.",
msgTo->msgBody._d);
assert(FALSE);
}
return TRUE;
}
v_networkReader
v_networkReaderNew(
v_subscriber subscriber,
const c_char *name,
v_readerQos qos,
c_bool ignoreReliabilityQoS)
{
/* Note: currently, no qos-es are supported. Everything is redirected
* to the defaultQueue */
v_kernel kernel;
v_networkReader reader;
v_readerQos q;
v_statistics s;
c_type queueType;
c_long i;
assert(C_TYPECHECK(subscriber,v_subscriber));
/* Creation */
kernel = v_objectKernel(subscriber);
q = v_readerQosNew(kernel,qos);
if (q != NULL) {
reader = v_networkReader(v_objectNew(kernel,K_NETWORKREADER));
s = v_statistics(v_networkReaderStatisticsNew(kernel));
/* Initialization of parent */
v_readerInit(v_reader(reader), name, subscriber, q, s, TRUE);
c_free(q); /* ref now in v_reader(queue)->qos */
/* This function only ever called once per network instance so no
* need to store queueType as static variable. Look up as needed (once)
*/
queueType = c_resolve(c_getBase(subscriber),"kernelModule::v_networkQueue");
/* Initialization of self */
reader->queues = NULL;
reader->queues = c_arrayNew(queueType, NW_MAX_NOF_QUEUES);
reader->nofQueues = 0;
reader->defaultQueue = NULL;
reader->remoteActivity = FALSE;
reader->ignoreReliabilityQoS = ignoreReliabilityQoS;
reader->queueCache = c_arrayNew(queueType, 2*NW_MAX_QUEUE_CACHE_PRIO);
for( i= 0; i < 2*NW_MAX_QUEUE_CACHE_PRIO; i++) {
reader->queueCache[i] = NULL;
}
c_free(queueType);
/* Add to subscriber */
v_subscriberAddReader(subscriber,v_reader(reader));
} else {
OS_REPORT(OS_ERROR, "v_networkReaderNew", 0,
"NetworkReader not created: inconsistent qos");
reader = NULL;
}
return reader;
}
c_array
c_metaArray(
c_metaObject scope,
c_iter iter,
c_metaKind kind)
{
c_long i;
struct copyToArrayArg arg;
c_type type;
if (kind) {
/* suppress warnings */
}
i = c_iterLength(iter);
if (i == 0) {
arg.a = NULL;
} else {
type = c_object_t(c__getBase(scope));
arg.a = c_arrayNew(type,i);
arg.index = 0;
c_iterWalk(iter,copyToArray,&arg);
c_iterFree(iter);
c_free(type);
}
return arg.a;
}
static c_type
createKeyType(
const c_char *name,
c_array keyList)
{
c_base base;
c_type foundType;
c_char *typeName;
c_char keyName[16];
c_long i, length, sres;
c_array members;
c_metaObject o;
c_field field;
if (keyList == NULL) {
return NULL;
}
base = c_getBase(keyList);
length = c_arraySize(keyList);
if (length == 0) {
return NULL;
}
o = c_metaDefine(c_metaObject(base),M_STRUCTURE);
members = c_arrayNew(c_member_t(base),length);
for (i=0;i<length;i++) {
field = keyList[i];
assert(field != NULL);
members[i] = (c_voidp)c_metaDefine(c_metaObject(base),M_MEMBER);
sprintf(keyName,"field%d",i);
c_specifier(members[i])->name = c_stringNew(base,keyName);
c_specifier(members[i])->type = c_keep(c_fieldType(field));
}
c_structure(o)->members = members;
c_metaObject(o)->definedIn = c_metaObject(base);
c_metaFinalize(o);
#define KEY_NAME "<Key>"
#define KEY_FORMAT "%s<Key>"
if (name != NULL) {
length = sizeof(KEY_NAME) + strlen(name);
typeName = os_malloc(length);
sres = snprintf(typeName,length,KEY_FORMAT,name);
assert(sres == (length-1));
} else {
assert(FALSE);
length = 100;
typeName = os_malloc(length);
os_sprintf(typeName,PA_ADDRFMT KEY_NAME,(c_address)o);
}
#undef KEY_NAME
#undef KEY_FORMAT
foundType = c_type(c_metaBind(c_metaObject(base),typeName,o));
c_free(o);
os_free(typeName);
return foundType;
}
v_historicalDataRequest
v_historicalDataRequestNew(
v_kernel kernel,
c_char* filter,
c_char* params[],
c_ulong nofParams,
c_time minSourceTime,
c_time maxSourceTime,
struct v_resourcePolicy *resourceLimits)
{
v_historicalDataRequest request;
c_ulong i;
c_type type;
c_base base;
request = c_new(v_kernelType(kernel,K_HISTORICALDATAREQUEST));
if (request) {
if(filter){
base = c_getBase(kernel);
request->filter = c_stringNew(base, filter);
if(params){
type = c_string_t(base);
request->filterParams = c_arrayNew(type, nofParams);
for(i=0; i<nofParams; i++){
request->filterParams[i] = c_stringNew(base, params[i]);
}
} else {
request->filterParams = NULL;
}
} else {
request->filter = NULL;
request->filterParams = NULL;
}
if ((minSourceTime.seconds == C_TIME_INVALID.seconds) &&
(minSourceTime.nanoseconds == C_TIME_INVALID.nanoseconds)) {
request->minSourceTimestamp = C_TIME_ZERO;
} else {
request->minSourceTimestamp = minSourceTime;
}
if ((maxSourceTime.seconds == C_TIME_INVALID.seconds) &&
(maxSourceTime.nanoseconds == C_TIME_INVALID.nanoseconds)) {
request->maxSourceTimestamp = C_TIME_INFINITE;
} else {
request->maxSourceTimestamp = maxSourceTime;
}
request->resourceLimits.max_samples = resourceLimits->max_samples;
request->resourceLimits.max_instances = resourceLimits->max_instances;
request->resourceLimits.max_samples_per_instance = resourceLimits->max_samples_per_instance;
} else {
OS_REPORT(OS_ERROR,
"v_historicalDataRequestNew",0,
"Failed to allocate request.");
assert(FALSE);
}
return request;
}
c_bool
d_publisherSampleRequestWriterCopy(
c_type type,
void *data,
void *to)
{
c_bool result;
c_ulong i;
static c_type type3;
d_sampleRequest msgFrom = d_sampleRequest(data);
d_sampleRequest msgTo = d_sampleRequest(to);
c_base base = c_getBase(type);
result = d_publisherMessageWriterCopy(&msgFrom->parentMsg, &msgTo->parentMsg);
msgTo->partition = c_stringNew(base, msgFrom->partition);
msgTo->topic = c_stringNew(base, msgFrom->topic);
msgTo->durabilityKind = msgFrom->durabilityKind;
msgTo->requestTime = msgFrom->requestTime;
msgTo->withTimeRange = msgFrom->withTimeRange;
msgTo->beginTime = msgFrom->beginTime;
msgTo->endTime = msgFrom->endTime;
msgTo->source.systemId = msgFrom->source.systemId;
msgTo->source.localId = msgFrom->source.localId;
msgTo->source.lifecycleId = msgFrom->source.lifecycleId;
if(msgFrom->filter){
msgTo->filter = c_stringNew(base, msgFrom->filter);
} else {
msgTo->filter = NULL;
}
if(msgFrom->filterParams){
if (type3 == NULL) {
type3 = c_resolve(base, "c_string");
}
assert(type3 != NULL);
msgTo->filterParamsCount = msgFrom->filterParamsCount;
msgTo->filterParams = c_arrayNew(type3, msgFrom->filterParamsCount);
for(i=0; i<msgFrom->filterParamsCount; i++){
msgTo->filterParams[i] = c_stringNew(base, msgFrom->filterParams[i]);
}
}
msgTo->maxSamples = msgFrom->maxSamples;
msgTo->maxInstances = msgFrom->maxInstances;
msgTo->maxSamplesPerInstance = msgFrom->maxSamplesPerInstance;
return result;
}
void
v_networkingStatisticsInit(
v_networkingStatistics _this,
v_kernel k)
{
assert(_this != NULL);
assert(C_TYPECHECK(_this, v_networkingStatistics));
v_statisticsInit(v_statistics(_this));
_this->numberOfErrors = 0;
_this->channelsCount = 0;
_this->channels = c_arrayNew(c_resolve(c_getBase(c_object(k)),
"kernelModule::v_networkChannelStatistics"),64);
}
v_handleServer
v_handleServerNew (
c_base base)
{
v_handleServer server;
c_type type;
assert(base != NULL);
type = c_resolve(base,"kernelModule::v_handleServer");
server = c_new(type);
c_free(type);
if (server) {
type = c_resolve(base,"kernelModule::v_handleInfoList");
server->handleInfos = c_arrayNew(type,NROFCOL);
#ifdef DDS_1958_CANNOT_CALL_REGISTERED_FUNC_PTR_FROM_DIFF_PROCESS
server->lowMemWarningCount = 0;
#endif
c_free(type);
if (server->handleInfos) {
server->firstFree = NOHANDLE;
server->lastIndex = NOHANDLE;
server->suspended = FALSE;
c_mutexInit(&server->mutex,SHARED_MUTEX);
c_baseOnOutOfMemory(base, disableHandleServer,server);
c_baseOnLowOnMemory(base, issueLowMemoryWarning, server);
} else {
c_free(server);
server = NULL;
OS_REPORT(OS_ERROR,"v_handleServerNew",0,
"Failed to allocate handle info records");
}
} else {
OS_REPORT(OS_ERROR,"v_handleServerNew",0,
"Failed to allocate handle server");
}
return server;
}
static c_array
copyReaderGIDsFromPublications(
v_deliveryGuard _this)
{
/* copy system Ids from _this->publications */
C_STRUCT(copySystemIdsArg) arg;
c_long size;
if (_this->publications) {
size = c_count(_this->publications);
} else {
size = 0;
}
if (size > 0) {
arg.readerGID = c_arrayNew(_this->gidType,size);
arg.index = 0;
c_walk(_this->publications, copySystemIds, &arg);
} else {
arg.readerGID = NULL;
}
return arg.readerGID;
}
c_unionCase
c_unionCaseNew (
c_metaObject scope,
const c_char *name,
c_type type,
c_iter labels)
{
c_unionCase o;
c_ulong nrOfLabels;
c_type subType;
nrOfLabels = c_iterLength(labels);
o = c_unionCase(c_metaDefine(scope,M_UNIONCASE));
subType = c_type(c_metaResolve(scope,"c_literal"));
o->labels = c_arrayNew(subType,nrOfLabels);
c_free(subType);
c_iterArray(labels,o->labels);
c_specifier(o)->name = c_stringNew(c__getBase(scope),name);
/* Do not keep type as usage expects transferral of refcount.
* If changed then odlpp and idlpp must be adapted accordingly.
*/
c_specifier(o)->type = type;
return o;
}
static c_array
createKeyList(
c_type instanceType,
c_array keyList)
{
c_ulong size, i;
c_array newKeyList = NULL;
assert(instanceType);
if (keyList) {
size = c_arraySize(keyList);
newKeyList = c_arrayNew(c_field_t(c_getBase(instanceType)), size);
if (newKeyList) {
for(i = 0; i<size; i++){
c_field f = c_fieldNew(instanceType, PREFIX);
assert(f);
if (f) {
newKeyList[i] = c_fieldConcat(f, keyList[i]);
c_free(f);
} else {
OS_REPORT(OS_CRITICAL,
"createKeyList", V_RESULT_INTERNAL_ERROR,
"Could not create c_field");
}
}
} else {
OS_REPORT(OS_FATAL,
"createKeyList", V_RESULT_INTERNAL_ERROR,
"Could not create array");
}
}
return newKeyList;
}
v_handle
v_handleServerRegister(
v_handleServer server,
c_object o)
{
c_type type;
v_handle handle;
v_handleInfo *info, *block;
c_long row, idx;
assert(C_TYPECHECK(server,v_handleServer));
assert(o != NULL);
if(server->suspended == TRUE) {
/* For now the suspended state means that an unrecoverable error has
* occured. This implies that from now on any access to the kernel is
* unsafe and the result is undefined.
* So because of this and that registering new object are useless
* skip this action and return NULL.
*/
return V_HANDLE_NIL;
}
c_mutexLock(&server->mutex);
if (server->firstFree != NOHANDLE) {
idx = server->firstFree;
block = ((v_handleInfo**)server->handleInfos)[COL(idx)];
info = &block[ROW(idx)];
server->firstFree = info->nextFree;
} else {
if (server->lastIndex == ((NROFCOL*NROFROW)-1)) {
OS_REPORT(OS_ERROR,"Kernel v_handle",0,"Out of handle space");
c_mutexUnlock(&server->mutex);
exit(-1);
}
if (server->lastIndex == NOHANDLE) {
server->lastIndex = 0;
} else {
server->lastIndex++;
}
idx = server->lastIndex;
row = ROW(idx);
if (row == 0) {
type = c_resolve(c_getBase(o),"kernelModule::v_handleInfo");
server->handleInfos[COL(idx)] = c_arrayNew(type,NROFROW);
}
block = ((v_handleInfo**)server->handleInfos)[COL(idx)];
if (block) {
info = &block[row];
info->serial = SERIALSTART;
c_mutexInit(&info->mutex,SHARED_MUTEX);
} else {
OS_REPORT(OS_ERROR,"v_handleServerRegister",0,
"Failed to allocate a new list of handles");
}
}
if (info) {
info->object = c_keep(o);
info->nextFree = NOHANDLE;
info->count = 0;
info->freed = FALSE;
handle.server = (c_address)server;
handle.serial = info->serial;
handle.index = idx;
} else {
handle = V_HANDLE_NIL;
}
c_mutexUnlock(&server->mutex);
return handle;
}
/* TODO should propagate the result code, might have an out of memory error
* if allocation of the array failed
*/
void
in_messageDeserializerReadArray(
in_messageDeserializer _this,
c_type type,
c_voidp data)
{
in_result result = IN_RESULT_OK;
c_collectionType ctype = c_collectionType(type);
os_uint32 size;
os_uint32 length;
os_uint32 i;
c_voidp array = NULL;
c_object o;
c_collKind typeKind;
c_metaKind subTypeKind;
assert(_this);
assert(in_messageDeserializerIsValid(_this));
assert(type);
assert(data);
/* First determine the length of the array. For IDL array types the length
* is known, but for sequences it is encoded ahead of the elements as an
* unsigned long
*/
typeKind = ctype->kind;
if(typeKind == C_ARRAY)
{
array = data;
length = ctype->maxSize;
assert(array);
} else
{
assert(typeKind == C_SEQUENCE);
/* For a sequence the length is encoded as an unsigned long, which in
* CDR is 4 octets(bytes) in size.
*/
assert(sizeof(os_uint32) == 4);
in_messageDeserializerReadPrim(_this, 4, &length);
/* Verify that the length is equal to or smaller then the maxSize if
* maxSize is bigger then 0
*/
if(ctype->maxSize > 0)
{
array = data;
assert((c_long)length <= ctype->maxSize);
assert(array);
} else
{
if(*(c_voidp *)data)
{
array = *(c_voidp *)data;
} else
{
array = c_arrayNew(type, (c_long)length);
if(length > 0 && !array)
{
result = IN_RESULT_OUT_OF_MEMORY;
}
*(c_voidp *)data = array;
}
}
}
if (length > 0 && result == IN_RESULT_OK)
{
assert(array);
subTypeKind = c_baseObjectKind(c_baseObject(ctype->subType));
if((subTypeKind == M_PRIMITIVE) ||(subTypeKind == M_ENUMERATION))
{
o = array;
/* in_messageDeserializerReadPrimArray(
_this,
ctype->subType->size,
length,
o);*/
} else
{
if (c_typeIsRef(ctype->subType))
{
size = sizeof(c_voidp);
} else
{
size = ctype->subType->size;
}
o = array;
for (i = 0; i < length; i++)
{
in_messageDeserializerReadType(_this, ctype->subType, o);
o = C_DISPLACE(o, size);
}
}
}
}
c_bool
d_publisherNameSpacesWriterCopy(
c_type type,
void *data,
void *to)
{
c_bool result;
c_ulong i;
static c_type mergeStateType = NULL;
d_nameSpaces msgFrom = d_nameSpaces(data);
d_nameSpaces msgTo = d_nameSpaces(to);
c_base base = c_getBase(type);
OS_UNUSED_ARG(type);
result = d_publisherMessageWriterCopy(&msgFrom->parentMsg, &msgTo->parentMsg);
msgTo->name = c_stringNew(base, msgFrom->name);
msgTo->durabilityKind = msgFrom->durabilityKind;
msgTo->alignmentKind = msgFrom->alignmentKind;
msgTo->aligner = msgFrom->aligner;
msgTo->total = msgFrom->total;
msgTo->initialQuality.seconds = msgFrom->initialQuality.seconds;
msgTo->initialQuality.nanoseconds = msgFrom->initialQuality.nanoseconds;
msgTo->master.systemId = msgFrom->master.systemId;
msgTo->master.localId = msgFrom->master.localId;
msgTo->master.lifecycleId = msgFrom->master.lifecycleId;
msgTo->isComplete = msgFrom->isComplete;
msgTo->masterConfirmed = msgFrom->masterConfirmed;
msgTo->state.value = msgFrom->state.value;
if(msgFrom->partitions) {
msgTo->partitions = c_stringNew(base, msgFrom->partitions);
} else {
msgTo->partitions = NULL;
}
if(msgFrom->state.role) {
msgTo->state.role = c_stringNew(base, msgFrom->state.role);
} else {
msgTo->state.role = NULL;
}
msgTo->state.value = msgFrom->state.value;
msgTo->mergedStatesCount = msgFrom->mergedStatesCount;
if (mergeStateType == NULL) {
mergeStateType = c_resolve(base, "durabilityModule2::d_mergeState_s");
}
assert(mergeStateType);
if(msgTo->mergedStatesCount > 0){
msgTo->mergedStates = c_arrayNew(mergeStateType, msgTo->mergedStatesCount);
assert(msgTo->mergedStates);
} else {
msgTo->mergedStates = NULL;
}
for(i=0; i<msgTo->mergedStatesCount; i++){
(((d_mergeState)(msgTo->mergedStates))[i]).value =
(((d_mergeState)msgFrom->mergedStates)[i]).value;
(((d_mergeState)msgTo->mergedStates)[i]).role =
c_stringNew(base, (((d_mergeState)msgFrom->mergedStates)[i]).role);
}
return result;
}
static c_bool
createMessageKeyList(
c_type messageType,
const c_char *topicKeyExpr,
c_array *keyListRef)
{
c_array keyList;
c_type fieldType;
c_field field;
c_iter splitNames, newNames;
c_char *name, *newName;
c_long i,length,sres;
assert(keyListRef != NULL);
*keyListRef = NULL;
if (topicKeyExpr == NULL) {
return TRUE;
}
newNames = NULL;
splitNames = c_splitString(topicKeyExpr,", \t");
while ((name = c_iterTakeFirst(splitNames)) != NULL) {
#define PATH_SEPARATOR "."
#define PREFIX "userData"
length = strlen(PREFIX) + sizeof(PATH_SEPARATOR) + strlen(name);
newName = (char *)os_malloc(length);
sres = snprintf(newName,length,"%s"PATH_SEPARATOR"%s",PREFIX, name);
assert(sres == (length-1));
#undef PREFIX
#undef PATH_SEPARATOR
os_free(name);
newNames = c_iterAppend(newNames,newName);
}
c_iterFree(splitNames);
length = c_iterLength(newNames);
if (length == 0) {
return TRUE;
}
fieldType = c_field_t(c_getBase(messageType));
keyList = c_arrayNew(fieldType,length);
c_free(fieldType);
i=0;
while ((name = c_iterTakeFirst(newNames)) != NULL) {
field = c_fieldNew(messageType,name);
if (field == NULL) {
OS_REPORT_1(OS_API_INFO,
"create message key list failed", 21,
"specified key field name %s not found",
name);
os_free(name);
c_iterFree(newNames);
c_free(keyList);
return FALSE;
}
keyList[i++] = field;
os_free(name);
}
c_iterFree(newNames);
*keyListRef = keyList;
return TRUE;
}
struct v_messageExtCdrInfo *
v_messageExtCdrInfoNew(
c_type topicMessageType,
const struct sd_cdrControl *control)
{
static const char headerTypeName[] = "kernelModule::v_messageExt";
c_base base = c_getBase (topicMessageType);
c_property userDataProperty = c_property(c_metaResolve(c_metaObject(topicMessageType),"userData"));
c_type topicDataType = userDataProperty->type;
c_type headerClass = c_resolve (base, headerTypeName);
c_type dataClass;
c_type type;
c_object o;
c_array members;
struct v_messageExtCdrInfo *xci;
struct c_type_s const *tstk[2];
c_free(userDataProperty);
/* Wrap user data in a class, so that we can make a struct with a pointer to it */
dataClass = c_type(c_metaDefine(c_metaObject(base), M_CLASS));
c_class(dataClass)->extends = NULL;
o = c_metaDeclare(c_metaObject(dataClass), "userData", M_ATTRIBUTE);
c_property(o)->type = c_keep(topicDataType);
c_metaObject(dataClass)->definedIn = c_keep(base);
c_metaFinalize(c_metaObject(dataClass));
c_free(o);
/* Make a struct containing two pointers, one to the v_messageExt class, and one to
the just-created anonymous dataClass type, corresponding to struct v_messageExtCdrTmp */
type = c_type(c_metaDefine(c_metaObject(base),M_STRUCTURE));
members = c_arrayNew(c_member_t(base),2);
members[0] = (c_voidp)c_metaDefine(c_metaObject(base),M_MEMBER);
c_specifier(members[0])->name = c_stringNew(base,"h");
c_specifier(members[0])->type = c_keep(headerClass);
members[1] = (c_voidp)c_metaDefine(c_metaObject(base),M_MEMBER);
c_specifier(members[1])->name = c_stringNew(base,"d");
c_specifier(members[1])->type = c_keep(dataClass);
c_structure(type)->members = members;
c_metaObject(type)->definedIn = c_keep(base);
c_metaFinalize(c_metaObject(type));
c_free(dataClass);
c_free(headerClass);
xci = os_malloc(sizeof(*xci));
xci->ci = sd_cdrInfoNewControl(type, control);
/* Note: current simplistic annotation processing requires the annotations
to be made in the order in which they are encountered when walking the
type */
tstk[0] = type;
tstk[1] = headerClass;
if (sd_cdrNoteQuietRef(xci->ci, 2, tstk) < 0) {
goto err_note;
}
tstk[1] = dataClass;
if (sd_cdrNoteQuietRef(xci->ci, 2, tstk) < 0) {
goto err_note;
}
if (sd_cdrCompile(xci->ci) < 0) {
goto err_compile;
}
xci->vmsgType = c_keep(topicMessageType);
c_free(type);
return xci;
err_compile:
err_note:
os_free(xci);
c_free(type);
return NULL;
}