// may be constructed only by derived classes
DXFEntity::DXFEntity(DXFEntities *e, String const &k)
{
entities = e;
kind = k;
color = e->GetCurrentColor();
lineType = e->GetCurrentLineType();
layer = e->GetCurrentLayer();
handle = GetNextHandle();
}
/*---------------------------------------------------------------------*/
H_ARCHIVE ArchiveOpenForWrite(CHAR * path)
{
H_ARCHIVE harchive;
ARCHIVE *archive;
ArchiveLog(ARC_LOG_VERBOSE, "Open archive for write: %s", path);
_archive_error = ARC_NO_ERROR;
/* Get next available handle */
if ((harchive = GetNextHandle()) == VOID_H_ARCHIVE)
return (VOID_H_ARCHIVE);
_archive[harchive].last_error = ARC_NO_ERROR;
/* Check out the path */
if (!ValidatePath(path, harchive))
return (VOID_H_ARCHIVE);
/* Create stream list */
if (!CreateList(&_archive[harchive].streams)) {
_archive_error = ARC_NO_MEMORY;
return (VOID_H_ARCHIVE);
}
/* Get state and lock for write access */
if (!OpenStateForWrite(harchive)) {
_archive_error = _archive[harchive].last_error;
return (VOID_H_ARCHIVE);
}
_n_archives++;
/* Start the purge thread... */
archive = &_archive[harchive];
if (archive->state.thres_bytes != VOID_UINT64) {
MUTEX_LOCK(&archive->purge.mutex);
if(!archive->purge.active ) {
ArchiveLog(ARC_LOG_VERBOSE, "Starting purge thread");
if(!THREAD_CREATE(&archive->purge.thread_id, PurgeThread, &archive->purge)) {
MUTEX_UNLOCK(&archive->purge.mutex);
_archive_error = ARC_PURGE_THREAD;
return (VOID_H_ARCHIVE);
}
}
MUTEX_UNLOCK(&archive->purge.mutex);
}
return (harchive);
}
/*---------------------------------------------------------------------*/
H_ARCHIVE ArchiveOpenForRead(CHAR * path)
{
H_ARCHIVE harchive;
ArchiveLog(ARC_LOG_VERBOSE, "Open archive for read: %s", path);
_archive_error = ARC_NO_ERROR;
/* Get next available handle */
if ((harchive = GetNextHandle()) == VOID_H_ARCHIVE) {
ArchiveLog(ARC_LOG_ERRORS, "ArchiveOpenForRead: No available handle");
return (VOID_H_ARCHIVE);
}
_archive[harchive].last_error = ARC_NO_ERROR;
/* Check out the path */
if (!ValidatePath(path, harchive)) {
ArchiveLog(ARC_LOG_ERRORS, "ArchiveOpenForRead: Invalid path: %s", path);
return (VOID_H_ARCHIVE);
}
/* Create stream list */
if (!CreateList(&_archive[harchive].streams)) {
_archive_error = ARC_NO_MEMORY;
ArchiveLog(ARC_LOG_ERRORS, "ArchiveOpenForRead: out of memory");
return (VOID_H_ARCHIVE);
}
/* Get state and open for read access */
if (!OpenStateForRead(harchive)) {
_archive_error = _archive[harchive].last_error;
ArchiveLog(ARC_LOG_ERRORS, "ArchiveOpenForRead: cannot get archive state");
return (VOID_H_ARCHIVE);
}
_n_archives++;
return (harchive);
}
///////////////////////////////////////////////////////////////////////////////
// Descripcion:
// - Instala una nueva alarma de tiempo.
// Parametros:
// - pClient. Direccion del cliente.
// - fTime. Tiempo en que se querra activar la alarma.
// Devuelve:
// - Handle asociada a la alarma. En caso de que el handle sea 0, habra
// ocurrido un problema.
// Notas:
// - Se permitira asociar alarmas con valores menores o iguales a 0. Dichas
// alarmas seran, naturalmente, de notificacion inmediata.
// - Los nodos estaran colocados de menor tiempo a mayor tiempo.
///////////////////////////////////////////////////////////////////////////////
AlarmDefs::AlarmHandle
CAlarmManager::InstallTimeAlarm(iCAlarmClient* const pClient,
const float fTime)
{
// SOLO si instancia inicializada
ASSERT(IsInitOk());
// SOLO si parametros correctos
ASSERT(pClient);
// Se localiza nodo de tiempos adecuado, si es que hay alguno.
AlarmTimeListIt AlarmsIt(m_TimeAlarms.Alarms.begin());
for (; AlarmsIt != m_TimeAlarms.Alarms.end(); ++AlarmsIt) {
// ¿No hay nodo igual o bien se hallo un nodo con el mismo valor?
if ((*AlarmsIt)->fAlarmTime >= fTime) {
break;
}
}
// Se crea nuevo nodo
const AlarmDefs::AlarmHandle hAlarm = GetNextHandle(AlarmDefs::TIME_ALARM);
ASSERT(hAlarm);
sNTimeClientInfo* const pNewClient = new sNTimeClientInfo(pClient, hAlarm);
ASSERT(pNewClient);
// ¿Se hallo nodo con el mismo valor temporal?
if (AlarmsIt != m_TimeAlarms.Alarms.end() &&
(*AlarmsIt)->fAlarmTime == fTime) {
(*AlarmsIt)->Clients.push_back(pNewClient);
} else {
// No, hay que crear un nuevo nodo e insertarlo DESPUES (del localizado o final)
sNAlarmTime* const pNewTime = new sNAlarmTime(fTime);
m_TimeAlarms.Alarms.insert(AlarmsIt, pNewTime);
// Por ultimo, se inserta el cliente
pNewTime->Clients.push_back(pNewClient);
}
// Se retorna handle a la alarma
return hAlarm;
}
///////////////////////////////////////////////////////////////////////////////
// Descripcion:
// - Instala una nueva alarma asociada a fichero WAV
// Parametros:
// - pClient. Direccion del cliente.
// - hWAVSound. Handle al fichero wav.
// Devuelve:
// - Handle asociada a la alarma. En caso de que el handle sea 0, habra
// ocurrido un problema.
// Notas:
///////////////////////////////////////////////////////////////////////////////
AlarmDefs::AlarmHandle
CAlarmManager::InstallWAVAlarm(iCAlarmClient* const pClient,
const ResDefs::WAVSoundHandle& hWAVSound)
{
// SOLO si instancia inicializada
ASSERT(IsInitOk());
// SOLO si parametros correctos
ASSERT(pClient);
ASSERT(hWAVSound);
// Se crea un nuevo nodo
const AlarmDefs::AlarmHandle hAlarm = GetNextHandle(AlarmDefs::WAV_ALARM);
ASSERT(hAlarm);
sNWAVClientInfo* const pNewClient = new sNWAVClientInfo(pClient, hWAVSound, hAlarm);
ASSERT(pNewClient);
// Se inserta en la lista de clientes
m_WAVAlarms.Alarms.push_back(pNewClient);
// Se retorna handle a la alarma
return hAlarm;
}
