std::array<processed_object, 3>
mock_processed_object_factory::
make_generalization(unsigned int n, const std::string& st) {
std::array<processed_object, 3> r = {{
create_object(object_types::uml_generalization, n),
make_class(++n, st),
make_class(++n, st),
}};
r[0].connection(std::make_pair(r[1].id(), r[2].id()));
return r;
}
std::array<processed_object, 4> mock_processed_object_factory::
make_first_degree_cycle(unsigned int n) {
std::array<processed_object, 4> r = {{
make_class(n),
make_class(++n),
create_object(object_types::uml_generalization, ++n),
create_object(object_types::uml_generalization, ++n)
}};
r[2].connection(std::make_pair(r[0].id(), r[1].id()));
r[3].connection(std::make_pair(r[1].id(), r[0].id()));
return r;
}
void imgtool_library_add(imgtool_library *library, imgtool_get_info get_info)
{
int (*make_class)(int index, imgtool_class *imgclass);
imgtool_class imgclass;
int i, result;
/* try this class */
memset(&imgclass, 0, sizeof(imgclass));
imgclass.get_info = get_info;
/* do we have derived getinfo functions? */
make_class = (int (*)(int index, imgtool_class *imgclass))
imgtool_get_info_fct(&imgclass, IMGTOOLINFO_PTR_MAKE_CLASS);
if (make_class)
{
i = 0;
do
{
/* clear out the class */
memset(&imgclass, 0, sizeof(imgclass));
imgclass.get_info = get_info;
/* make the class */
result = make_class(i++, &imgclass);
if (result)
imgtool_library_add_class(library, &imgclass);
}
while(result);
}
else
{
imgtool_library_add_class(library, &imgclass);
}
}
void library::add(imgtool_get_info get_info)
{
int (*make_class)(int index, imgtool_class *imgclass);
imgtool_class imgclass;
int i, result;
// try this class
memset(&imgclass, 0, sizeof(imgclass));
imgclass.get_info = get_info;
// do we have derived getinfo functions?
make_class = (int (*)(int index, imgtool_class *imgclass))
imgtool_get_info_fct(&imgclass, IMGTOOLINFO_PTR_MAKE_CLASS);
if (make_class)
{
i = 0;
do
{
// clear out the class
memset(&imgclass, 0, sizeof(imgclass));
imgclass.get_info = get_info;
// make the class
result = make_class(i++, &imgclass);
if (result)
add_class(&imgclass);
}
while(result);
}
else
{
add_class(&imgclass);
}
}
std::array<processed_object, 4> mock_processed_object_factory::
make_generalization_inside_large_package(
unsigned int n, const std::string& st) {
std::array<processed_object, 4> r = {{
make_large_package(n),
make_class(++n, st),
make_class(++n, st),
create_object(object_types::uml_generalization, ++n)
}};
r[3].connection(std::make_pair(r[1].id(), r[2].id()));
r[1].child_node_id(r[0].id());
r[2].child_node_id(r[0].id());
r[3].child_node_id(r[0].id());
return r;
}
ALWAYS_INLINE
APCObject::APCObject(ObjectData* obj, uint32_t propCount)
: m_handle(KindOfObject)
, m_cls{make_class(obj->getVMClass())}
, m_propCount{propCount}
{
m_handle.setObjAttempted();
m_handle.setIsObj();
m_handle.mustCache();
}
std::array<processed_object, 2> mock_processed_object_factory::
make_class_inside_large_package(unsigned int n, const std::string& st) {
std::array<processed_object, 2> r = {{
make_large_package(n),
make_class(++n, st),
}};
r[1].child_node_id(r[0].id());
return r;
}
/** Initialize the connection class list.
* A connection class named "default" is created, with ping frequency,
* connection frequency, maximum links and max SendQ values from the
* corresponding configuration features.
*/
void init_class(void)
{
if (!connClassList) {
connClassList = (struct ConnectionClass*) make_class();
connClassList->next = 0;
}
/* We had better not try and free this... */
ConClass(connClassList) = "default";
PingFreq(connClassList) = feature_int(FEAT_PINGFREQUENCY);
ConFreq(connClassList) = feature_int(FEAT_CONNECTFREQUENCY);
MaxLinks(connClassList) = feature_int(FEAT_MAXIMUM_LINKS);
MaxSendq(connClassList) = feature_uint(FEAT_DEFAULTMAXSENDQLENGTH);
connClassList->valid = 1;
Links(connClassList) = 1;
}
/** Make sure we have a connection class named \a name.
* If one does not exist, create it. Then set its ping frequency,
* connection frequency, maximum link count, and max SendQ according
* to the parameters.
* @param[in] name Connection class name.
* @param[in] ping Ping frequency for clients in this class.
* @param[in] confreq Connection frequency for clients.
* @param[in] maxli Maximum link count for class.
* @param[in] sendq Max SendQ for clients.
*/
void add_class(char *name, unsigned int ping, unsigned int confreq,
unsigned int maxli, unsigned int sendq)
{
struct ConnectionClass* p;
Debug((DEBUG_DEBUG, "Add Class %s: cf: %u pf: %u ml: %u sq: %d",
name, confreq, ping, maxli, sendq));
assert(name != NULL);
p = do_find_class(name, 1);
if (!p)
p = make_class();
else
MyFree(ConClass(p));
ConClass(p) = name;
ConFreq(p) = confreq;
PingFreq(p) = ping;
MaxLinks(p) = maxli;
MaxSendq(p) = (sendq > 0U) ?
sendq : feature_uint(FEAT_DEFAULTMAXSENDQLENGTH);
p->valid = 1;
}
APCHandle::Pair APCObject::Construct(ObjectData* objectData) {
// This function assumes the object and object/array down the tree have no
// internal references and do not implement the serializable interface.
assert(!objectData->instanceof(SystemLib::s_SerializableClass));
auto cls = objectData->getVMClass();
auto clsOrName = make_class(cls);
if (clsOrName.right()) return ConstructSlow(objectData, clsOrName);
// We have a persistent Class. Build an array of APCHandle* to mirror the
// declared properties in the object.
auto const propInfo = cls->declProperties();
auto const hasDynProps = objectData->hasDynProps();
auto const numRealProps = propInfo.size();
auto const numApcProps = numRealProps + hasDynProps;
auto size = sizeof(APCObject) + sizeof(APCHandle*) * numApcProps;
auto const apcObj = new (malloc_huge(size)) APCObject(clsOrName, numApcProps);
apcObj->m_persistent = 1;
// Set a few more flags for faster fetching: whether or not the object has a
// wakeup method, and whether or not we can use a fast path that avoids
// default-initializing properties before setting them to their APC values.
if (!cls->lookupMethod(s___wakeup.get())) apcObj->m_no_wakeup = 1;
if (!cls->instanceCtor()) {
apcObj->m_fast_init = 1;
}
auto const apcPropVec = apcObj->persistentProps();
auto const objPropVec = objectData->propVec();
const TypedValueAux* propInit = nullptr;
for (unsigned i = 0; i < numRealProps; ++i) {
auto const attrs = propInfo[i].attrs;
assert((attrs & AttrStatic) == 0);
const TypedValue* objProp;
if (attrs & AttrBuiltin) {
// Special properties like the Memoize cache should be set to their
// default value, not the current value.
if (propInit == nullptr) {
propInit = cls->pinitVec().empty() ? &cls->declPropInit()[0]
: &(*cls->getPropData())[0];
}
objProp = propInit + i;
} else {
objProp = objPropVec + i;
}
auto val = APCHandle::Create(tvAsCVarRef(objProp), false,
APCHandleLevel::Inner, true);
size += val.size;
apcPropVec[i] = val.handle;
}
if (UNLIKELY(hasDynProps)) {
auto val = APCHandle::Create(objectData->dynPropArray(), false,
APCHandleLevel::Inner, true);
size += val.size;
apcPropVec[numRealProps] = val.handle;
}
return {apcObj->getHandle(), size};
}
tree
build_java_array_type (tree element_type, HOST_WIDE_INT length)
{
tree sig, t, fld, atype, arfld;
char buf[23];
tree elsig = build_java_signature (element_type);
tree el_name = element_type;
buf[0] = '[';
if (length >= 0)
sprintf (buf+1, HOST_WIDE_INT_PRINT_DEC, length);
else
buf[1] = '\0';
sig = ident_subst (IDENTIFIER_POINTER (elsig), IDENTIFIER_LENGTH (elsig),
buf, 0, 0, "");
t = IDENTIFIER_SIGNATURE_TYPE (sig);
if (t != NULL_TREE)
return TREE_TYPE (t);
t = make_class ();
IDENTIFIER_SIGNATURE_TYPE (sig) = build_pointer_type (t);
TYPE_ARRAY_P (t) = 1;
if (TREE_CODE (el_name) == POINTER_TYPE)
el_name = TREE_TYPE (el_name);
el_name = TYPE_NAME (el_name);
if (TREE_CODE (el_name) == TYPE_DECL)
el_name = DECL_NAME (el_name);
{
char suffix[23];
if (length >= 0)
sprintf (suffix, "[%d]", (int)length);
else
strcpy (suffix, "[]");
TYPE_NAME (t)
= TYPE_STUB_DECL (t)
= build_decl (input_location, TYPE_DECL,
identifier_subst (el_name, "", '.', '.', suffix),
t);
TYPE_DECL_SUPPRESS_DEBUG (TYPE_STUB_DECL (t)) = true;
}
set_java_signature (t, sig);
set_super_info (0, t, object_type_node, 0);
if (TREE_CODE (element_type) == RECORD_TYPE)
element_type = promote_type (element_type);
TYPE_ARRAY_ELEMENT (t) = element_type;
/* Add length pseudo-field. */
fld = build_decl (input_location,
FIELD_DECL, get_identifier ("length"), int_type_node);
TYPE_FIELDS (t) = fld;
DECL_CONTEXT (fld) = t;
FIELD_PUBLIC (fld) = 1;
FIELD_FINAL (fld) = 1;
TREE_READONLY (fld) = 1;
atype = build_prim_array_type (element_type, length);
arfld = build_decl (input_location,
FIELD_DECL, get_identifier ("data"), atype);
DECL_CONTEXT (arfld) = t;
DECL_CHAIN (fld) = arfld;
DECL_ALIGN (arfld) = TYPE_ALIGN (element_type);
/* We could layout_class, but that loads java.lang.Object prematurely.
* This is called by the parser, and it is a bad idea to do load_class
* in the middle of parsing, because of possible circularity problems. */
push_super_field (t, object_type_node);
layout_type (t);
return t;
}
ALWAYS_INLINE
APCObject::APCObject(ObjectData* obj, uint32_t propCount)
: m_handle(KindOfObject)
, m_cls{make_class(obj->getVMClass())}
, m_propCount{propCount}
{}