int
uttfile_data_for(uttfile_t *uf, const char *id, char *buf, uint32 max_sz)
{
uint32 off, i;
off = uf->off;
for (i = off; i < uf->len; i++) {
if (uttfile_data_at(uf, i, buf, max_sz) != S3_SUCCESS) {
return S3_ERROR;
}
if (strcmp(id_of(buf), id) == 0) {
return TRUE;
}
}
for (i = 0; i < off; i++) {
if (uttfile_data_at(uf, i, buf, max_sz) != S3_SUCCESS) {
return S3_ERROR;
}
if (strcmp(id_of(buf), id) == 0) {
return TRUE;
}
}
return FALSE;
}
void binary_serializer::begin_object(const uniform_type_info* uti) {
CPPA_REQUIRE(uti != nullptr);
auto ot = outgoing_types();
std::uint32_t id = (ot) ? ot->id_of(uti) : 0;
std::uint8_t flag = (id == 0) ? 1 : 0;
binary_writer::write_int(m_sink, flag);
if (flag == 1) binary_writer::write_string(m_sink, uti->name());
else binary_writer::write_int(m_sink, id);
}
void run() {
CAF_SET_LOGGER_SYS(&system());
CAF_LOG_TRACE(CAF_ARG(id_));
// scheduling loop
for (;;) {
auto job = policy_.dequeue(this);
CAF_ASSERT(job != nullptr);
CAF_ASSERT(job->subtype() != resumable::io_actor);
CAF_LOG_DEBUG("resume actor:" << CAF_ARG(id_of(job)));
CAF_PUSH_AID_FROM_PTR(dynamic_cast<abstract_actor*>(job));
policy_.before_resume(this, job);
auto res = job->resume(this, max_throughput_);
policy_.after_resume(this, job);
switch (res) {
case resumable::resume_later: {
// keep reference to this actor, as it remains in the "loop"
policy_.resume_job_later(this, job);
break;
}
case resumable::done: {
policy_.after_completion(this, job);
intrusive_ptr_release(job);
break;
}
case resumable::awaiting_message: {
// resumable will maybe be enqueued again later, deref it for now
intrusive_ptr_release(job);
break;
}
case resumable::shutdown_execution_unit: {
policy_.after_completion(this, job);
policy_.before_shutdown(this);
return;
}
}
}
}
void run() {
CAF_LOG_TRACE("worker with ID " << m_id);
// scheduling loop
for (;;) {
auto job = m_queue_policy.internal_dequeue(this);
CAF_REQUIRE(job != nullptr);
CAF_LOG_DEBUG("resume actor " << id_of(job));
CAF_PUSH_AID_FROM_PTR(dynamic_cast<abstract_actor*>(job));
switch (job->resume(this)) {
case resumable::done: {
job->detach_from_scheduler();
break;
}
case resumable::resume_later: {
break;
}
case resumable::shutdown_execution_unit: {
m_queue_policy.clear_internal_queue(this);
return;
}
}
m_queue_policy.assert_stealable(this);
}
}
void _delvec(QSP_ARG_DECL Data_Obj *dp)
{
assert(dp!=NULL);
assert(OBJ_NAME(dp)!=NULL);
#ifdef ZOMBIE_SUPPORT
// This should go back in eventually!
if( OBJ_FLAGS(dp) & DT_STATIC && OWNS_DATA(dp) ){
sprintf(ERROR_STRING,"delvec: static object %s will be made a zombie",OBJ_NAME(dp));
advise(ERROR_STRING);
make_zombie(dp);
return;
}
if( OBJ_REFCOUNT(dp) > 0 ){
/* This zombie business was introduced at a time
* when a displayed image had to be kept around
* to refresh its window... with the current
* X windows implementation of viewers that is
* no longer the case, so this may be unecessary...
*
* But another case arises when we have a static
* object in the expression language, that gets
* deleted outside of the expression language.
* This shouldn't be done, but we don't want to
* be able to crash the program either...
*/
sprintf(ERROR_STRING,"delvec: object %s (refcount = %d) will be made a zombie",OBJ_NAME(dp),dp->dt_refcount);
advise(ERROR_STRING);
make_zombie(dp);
return;
}
#endif /* ZOMBIE_SUPPORT */
// If the object has been exported, we need to delete
// the associated identifier...
//
// BUT if it was exported, then it may be referenced!?
// So it should be static...
//
// If we have references, and are therefore keeping the
// object as a zombie, then we don't want to delete the
// identifier, and we probably don't want to change the
// object's name...
if( IS_EXPORTED(dp) ){
Identifier *idp;
idp = id_of(OBJ_NAME(dp));
assert( idp != NULL );
delete_id((Item *)idp);
}
if( OBJ_CHILDREN( dp ) != NULL ){
delete_subobjects(dp);
}
if( OBJ_PARENT(dp) != NULL ){
disown_child(dp);
}
if( IS_TEMP(dp) ){
if( OBJ_DECLFILE(dp) != NULL ){
sprintf(ERROR_STRING,"delvec %s: temp object has declfile %s!?\n",
OBJ_NAME(dp),OBJ_DECLFILE(dp));
advise(ERROR_STRING);
}
release_tmp_obj(dp);
/*
* Most likely called when parent is deleted.
* Temp objects are not hashed, and are not dynamically
* allocated.
*
* Simply mark as free by clearing name field.
*/
return;
}
// We might clean this up by making the release
// function a platform member...
if( OWNS_DATA(dp) ){
if( ! UNKNOWN_SHAPE(OBJ_SHAPE(dp)) ){
release_data(dp);
}
}
// In the first OpenCL implementation, we used subbuffers, which had
// to be released here even for subimages. But now we handle subobjects
// ourselves, managing offsets, so non-data-owners don't need to release.
rls_shape( OBJ_SHAPE(dp) );
// We don't need to do this if we have garbage collection?
/* The name might be null if we had an error creating the object... */
if( OBJ_DECLFILE(dp) != NULL ){
rls_str( OBJ_DECLFILE(dp) );
}
#ifdef ZOMBIE_SUPPORT
/* BUG context code assumes that this is really deleted... */
// not sure I understand the above comment?
if( IS_ZOMBIE(dp) ){
// The object is a zombie that is no longer referenced...
/* NOTE: we used to release the struct here with givbuf,
* but in the current implementation of the item package,
* objects aren't allocated with getbuf!
*/
// The object has already been removed from the dictionary,
// so we don't need to call del_item...
/* put this back on the free list... */
recycle_item(dobj_itp,dp);
} else {
del_item(dobj_itp, dp );
}
#else /* ! ZOMBIE_SUPPORT */
DELETE_OBJ_ITEM(dp); // del_dobj - item function
#endif /* ! ZOMBIE_SUPPORT */
// used to release the name here
// and set to null, but that is done in del_item
}
void after_completion(Worker* worker, resumable* job) {
Policy::after_completion(worker, job);
auto parent = static_cast<coordinator_type*>(worker->parent());
parent->remove_job(id_of(job));
}
void after_resume(Worker* worker, resumable* job) {
Policy::after_resume(worker, job);
auto parent = static_cast<coordinator_type*>(worker->parent());
parent->stop_measuring(worker->id(), id_of(job));
}
static void _dump_node_basic(QSP_ARG_DECL Vec_Expr_Node *enp)
{
Tree_Code code;
int i;
const char *s;
if( enp==NULL ) return;
/* print the node "name", and a code that tells about shape knowledge */
// Temporarily print to stderr instead of stdout for debugging...
prt_node(enp,msg_str);
prt_msg_frag(msg_str);
if( SHOWING_LHS_REFS ){
sprintf(msg_str,"\t%d",VN_LHS_REFS(enp));
prt_msg_frag(msg_str);
}
if( SHOWING_COST ){
if( VN_SHAPE(enp) != NULL ){
sprintf(msg_str,"\t%d", SHP_N_MACH_ELTS(VN_SHAPE(enp)));
}
prt_msg_frag(msg_str);
sprintf(msg_str,"\t%d\t%d", VN_FLOPS(enp),VN_N_MATH(enp));
prt_msg_frag(msg_str);
}
if( IS_CURDLED(enp) ){
sprintf(msg_str,"\t%s (curdled!?)", NNAME(enp));
prt_msg(msg_str);
return;
}
sprintf(msg_str,"\t%s", NNAME(enp));
prt_msg_frag(msg_str);
/* print the special op-dependent args in human-readable form */
code = VN_CODE(enp);
if( code==T_DYN_OBJ || code == T_UNDEF || code == T_PROTO || code==T_POINTER || code==T_FUNCPTR || code==T_STR_PTR ){
sprintf(msg_str,"\t%s",VN_STRING(enp));
prt_msg_frag(msg_str);
if( code == T_POINTER ){
Identifier *idp;
/* We don't use get_set_ptr() here because we don't want an error msg... */
idp = id_of(VN_STRING(enp));
if( idp != NULL && IS_POINTER(idp) && POINTER_IS_SET(idp) ){
if( PTR_REF(ID_PTR(idp)) == NULL ){
/* how could this ever happen??? */
prt_msg_frag("->???");
} else {
Data_Obj *dp;
dp = REF_OBJ(PTR_REF(ID_PTR(idp)));
sprintf(msg_str,"->%s",OBJ_NAME(dp));
prt_msg_frag(msg_str);
}
}
}
} else if( code == T_STATIC_OBJ ){
sprintf(msg_str,"\t%s",OBJ_NAME(VN_OBJ(enp)));
prt_msg_frag(msg_str);
#ifdef SCALARS_NOT_OBJECTS
} else if( code == T_SCALAR_VAR ){
sprintf(msg_str,"\t%s",VN_STRING(enp));
prt_msg_frag(msg_str);
#endif // SCALARS_NOT_OBJECTS
} else if ( code == T_FUNCREF ){
Subrt *srp;
srp=VN_SUBRT(enp);
sprintf(msg_str,"\t%s",SR_NAME(srp));
prt_msg_frag(msg_str);
} else if( code == T_SIZE_FN ){
sprintf(msg_str,"\t%s",FUNC_NAME(VN_FUNC_PTR(enp)));
prt_msg_frag(msg_str);
}
#ifdef NOT_YET
else if(code == T_CALL_NATIVE ){
// was kw_token???
// curr_native_func_tbl...
sprintf(msg_str,"\t%s",FUNC_NAME(VN_FUNC_PTR(enp)));
prt_msg_frag(msg_str);
}
#endif /* NOT_YET */
else if(code == T_TYPECAST ){
// BUG not how we do precision any more!!!
//sprintf(msg_str," %s",NAME_FOR_PREC_CODE(VN_INTVAL(enp)));
if( VN_SHAPE(enp) == NULL ) error1("CAUTIOUS: null node shape for typecast node!?");
else {
sprintf(msg_str," %s",PREC_NAME(VN_PREC_PTR(enp)));
prt_msg_frag(msg_str);
}
} else if( code == T_SUBRT_DECL || code == T_SCRIPT ){
Subrt *srp;
srp=VN_SUBRT(enp);
sprintf(msg_str,"\t%s",SR_NAME(srp));
prt_msg_frag(msg_str);
} else if( code==T_DECL_STAT ){
//sprintf(msg_str," %s",NAME_FOR_PREC_CODE(VN_INTVAL(enp)));
sprintf(msg_str," %s",PREC_NAME(VN_DECL_PREC(enp)));
prt_msg_frag(msg_str);
} else if( IS_DECL(code) ){
sprintf(msg_str," %s",VN_STRING(enp));
prt_msg_frag(msg_str);
} else if( code==T_ADVISE ){
/* BUG need to elim yylex_qsp */
s=eval_string(VN_CHILD(enp,0));
sprintf(msg_str,"\t\"%s\"",s);
prt_msg_frag(msg_str);
} else if( code==T_WARN ){
/* BUG need to elim yylex_qsp */
s=eval_string(VN_CHILD(enp,0));
sprintf(msg_str,"\t\"%s\"",s);
prt_msg_frag(msg_str);
} else if( code==T_STRING ){
sprintf(msg_str,"\t\"%s\"",VN_STRING(enp));
prt_msg_frag(msg_str);
} else if( code == T_LABEL || code ==T_GO_BACK || code == T_GO_FWD ){
sprintf(msg_str," %s",VN_STRING(enp));
prt_msg_frag(msg_str);
} else if( code==T_LIT_DBL ){
sprintf(msg_str," %g",VN_DBLVAL(enp));
prt_msg_frag(msg_str);
} else if( code == T_MATH0_FN ){
sprintf(msg_str," %s",FUNC_NAME(VN_FUNC_PTR(enp)));
prt_msg_frag(msg_str);
} else if( code == T_MATH1_FN ){
sprintf(msg_str," %s",FUNC_NAME(VN_FUNC_PTR(enp)));
prt_msg_frag(msg_str);
} else if( code == T_MATH2_FN ){
sprintf(msg_str," %s",FUNC_NAME(VN_FUNC_PTR(enp)));
prt_msg_frag(msg_str);
} else if (
code == T_MATH0_VFN
|| code == T_MATH1_VFN
|| code == T_MATH2_VFN
|| code == T_MATH2_VSFN
|| code == T_CHAR_VFN
/* BUG? shouldn't there bre a VSFN2 ??? */
|| code == T_VS_FUNC
|| code == T_VV_FUNC
){
sprintf(msg_str," %s",VF_NAME(FIND_VEC_FUNC(VN_VFUNC_CODE(enp))));
prt_msg_frag(msg_str);
} else if( code==T_CALLFUNC ){
assert(VN_SUBRT(enp)!=NULL);
sprintf(msg_str," %s", SR_NAME(VN_SUBRT(enp)));
prt_msg_frag(msg_str);
} else if( code==T_LIT_INT ){
sprintf(msg_str," %"PRId64, VN_INTVAL(enp) );
prt_msg_frag(msg_str);
} else if( code==T_ASSIGN ){
prt_msg_frag("\t");
} else if( code==T_MAXVAL ){
prt_msg_frag("\t");
} else if( code==T_MINVAL ){
prt_msg_frag("\t");
} else if( code==T_RAMP ){
prt_msg_frag("\t");
}
/* Now print the addresses of the child nodes */
if( VN_CHILD(enp,0)!=NULL){
sprintf(msg_str,"\t\tn%d",VN_SERIAL(VN_CHILD(enp,0)));
prt_msg_frag(msg_str);
}
for(i=1;i<MAX_CHILDREN(enp);i++){
if( VN_CHILD(enp,i)!=NULL){
sprintf(msg_str,", n%d",VN_SERIAL(VN_CHILD(enp,i)));
prt_msg_frag(msg_str);
}
}
prt_msg("");
if( SHOWING_SHAPES && VN_SHAPE(enp) != NULL ){
prt_msg_frag("\t");
if( OWNS_SHAPE(enp) ){
sprintf(msg_str,"* 0x%lx ",(u_long)VN_SHAPE(enp));
prt_msg_frag(msg_str);
}
else {
sprintf(msg_str,"@ 0x%lx ",(u_long)VN_SHAPE(enp));
prt_msg_frag(msg_str);
}
prt_msg_frag("\t");
describe_shape(VN_SHAPE(enp));
}
if( SHOWING_RESOLVERS && VN_RESOLVERS(enp)!=NULL ){
Node *np; Vec_Expr_Node *enp2;
prt_msg("\tResolvers:");
np=QLIST_HEAD(VN_RESOLVERS(enp));
while(np!=NULL){
enp2=(Vec_Expr_Node *)NODE_DATA(np);
sprintf(msg_str,"\t\t%s",node_desc(enp2));
prt_msg(msg_str);
np=NODE_NEXT(np);
}
}
}
// go on a raid in quest for a shiny new job
job_ptr raid() {
auto result = m_steal_policy.raid(this);
CAF_LOG_DEBUG_IF(result, "got actor with id " << id_of(result));
return result;
}
/**
* Enqueues a new job to the worker's queue from an internal
* source, i.e., a job that is currently executed by this worker.
* @warning Must not be called from other threads.
*/
void exec_later(job_ptr job) override {
CAF_REQUIRE(job != nullptr);
CAF_LOG_TRACE("id = " << id() << " actor id " << id_of(job));
m_queue_policy.internal_enqueue(this, job);
}
/**
* Attempt to steal an element from the exposed job queue.
*/
job_ptr try_steal() override {
auto result = m_queue_policy.try_external_dequeue(this);
CAF_LOG_DEBUG_IF(result, "stole actor with id " << id_of(result));
return result;
}
/// Enqueues a new job to the worker's queue from an internal
/// source, i.e., a job that is currently executed by this worker.
/// @warning Must not be called from other threads.
void exec_later(job_ptr job) override {
CAF_ASSERT(job != nullptr);
CAF_LOG_TRACE(CAF_ARG(id()) << CAF_ARG(id_of(job)));
policy_.internal_enqueue(this, job);
}
/// Enqueues a new job to the worker's queue from an external
/// source, i.e., from any other thread.
void external_enqueue(job_ptr job) {
CAF_ASSERT(job != nullptr);
CAF_LOG_TRACE(CAF_ARG(id()) << CAF_ARG(id_of(job)));
policy_.external_enqueue(this, job);
}
