void ContainerSizeEmptyCheck::registerMatchers(MatchFinder *Finder) {
const auto WrongUse = anyOf(
hasParent(
binaryOperator(
anyOf(has(integerLiteral(equals(0))),
allOf(anyOf(hasOperatorName("<"), hasOperatorName(">="),
hasOperatorName(">"), hasOperatorName("<=")),
hasEitherOperand(integerLiteral(equals(1))))))
.bind("SizeBinaryOp")),
hasParent(implicitCastExpr(
hasImplicitDestinationType(isBoolType()),
anyOf(
hasParent(unaryOperator(hasOperatorName("!")).bind("NegOnSize")),
anything()))),
hasParent(explicitCastExpr(hasDestinationType(isBoolType()))));
Finder->addMatcher(
memberCallExpr(
on(expr(anyOf(hasType(namedDecl(stlContainer())),
hasType(pointsTo(namedDecl(stlContainer()))),
hasType(references(namedDecl(stlContainer())))))
.bind("STLObject")),
callee(methodDecl(hasName("size"))), WrongUse).bind("SizeCallExpr"),
this);
}
namespace EffectiveCPP {
StatementMatcher ctorCallVtlMatcherEC = compoundStmt(
hasParent(constructorDecl().bind("cDecl")),
hasDescendant(callExpr(callee(methodDecl(isVirtual()))))
);
StatementMatcher dtorCallVtlMatcherEC = compoundStmt(
hasParent(destructorDecl().bind("dDecl")),
hasDescendant(callExpr(callee(methodDecl(isVirtual()))))
);
}
void MultiwayPathsCoveredCheck::registerMatchers(MatchFinder *Finder) {
Finder->addMatcher(
switchStmt(
hasCondition(allOf(
// Match on switch statements that have either a bit-field or
// an integer condition. The ordering in 'anyOf()' is
// important because the last condition is the most general.
anyOf(ignoringImpCasts(memberExpr(hasDeclaration(
fieldDecl(isBitField()).bind("bitfield")))),
ignoringImpCasts(declRefExpr().bind("non-enum-condition"))),
// 'unless()' must be the last match here and must be bound,
// otherwise the matcher does not work correctly, because it
// will not explicitly ignore enum conditions.
unless(ignoringImpCasts(
declRefExpr(hasType(enumType())).bind("enum-condition"))))))
.bind("switch"),
this);
// This option is noisy, therefore matching is configurable.
if (WarnOnMissingElse) {
Finder->addMatcher(
ifStmt(allOf(hasParent(ifStmt()), unless(hasElse(anything()))))
.bind("else-if"),
this);
}
}
void Node::updateWorldTransform() const
{
// make sure we are not doing any unnecessary function calls
GRAPHICS_RUNTIME_ASSERT(worldTransformValid_ == false);
if (hasParent())
{
// world transform of the parent node
const Transform3 t = parent_->worldTransform();
worldTransform_.translation = ::transform(localTransform_.translation, t);
worldTransform_.rotation = localTransform_.rotation;
worldTransform_.scaling = localTransform_.scaling;
if (rotationLocked_ == false)
{
worldTransform_.rotation *= t.rotation;
}
if (scalingLocked_ == false)
{
worldTransform_.scaling *= t.scaling;
}
}
else
{
// no parent node, world transform is equal to the local transform
worldTransform_ = localTransform_;
}
worldTransformValid_ = true;
}
Node::~Node()
{
// make sure we are not deleting a node that is still attached
GRAPHICS_RUNTIME_ASSERT(hasParent() == false);
// TODO: unregister from scene
}
void ForwardingReferenceOverloadCheck::registerMatchers(MatchFinder *Finder) {
// Forwarding references require C++11 or later.
if (!getLangOpts().CPlusPlus11)
return;
auto ForwardingRefParm =
parmVarDecl(
hasType(qualType(rValueReferenceType(),
references(templateTypeParmType(hasDeclaration(
templateTypeParmDecl().bind("type-parm-decl")))),
unless(references(isConstQualified())))))
.bind("parm-var");
DeclarationMatcher findOverload =
cxxConstructorDecl(
hasParameter(0, ForwardingRefParm),
unless(hasAnyParameter(
// No warning: enable_if as constructor parameter.
parmVarDecl(hasType(isEnableIf())))),
unless(hasParent(functionTemplateDecl(has(templateTypeParmDecl(
// No warning: enable_if as type parameter.
hasDefaultArgument(isEnableIf())))))))
.bind("ctor");
Finder->addMatcher(findOverload, this);
}
//! ---|> Component
void Connector::doLayout(){
Geometry::Vec2 parentsAbsPos=hasParent()?getParent()->getAbsPosition():Geometry::Vec2();
Geometry::Rect r;
r.invalidate();
// std::cout << r.getX();
if( getFirstComponent() )
r.include( getFirstComponent()->getAbsRect().getCenter()-parentsAbsPos );
// std::cout << (getFirstComponent()->getAbsRect().getCenter()-parentsAbsPos).getX();
if( getSecondComponent() )
r.include( getSecondComponent()->getAbsRect().getCenter()-parentsAbsPos );
if(getContentsCount()>2){
// TODO!!!!!
}
setPosition(Geometry::Vec2(r.getX(),r.getY()));
setSize(r.getWidth(),r.getHeight());
Geometry::Vec2 myAbsPos=getAbsPosition();
if(getFirstChild() && getFirstComponent()){
getFirstChild()->setPosition( getFirstComponent()->getAbsRect().getCenter()-myAbsPos );
}
if(getLastChild() && getSecondComponent()){
getLastChild()->setPosition( getSecondComponent()->getAbsRect().getCenter()-myAbsPos );
// getLastChild()->setPosition(Vec2(r.getWidth(),r.getHeight()));
}
if(getContentsCount()>2){
// TODO!!!!!
}
}
bool BinaryNode::isRightChild(){
if(hasParent()){
return (this == parent->rightChild);
}
return false;
}
int PropertyItem::index() const
{
if (!hasParent())
return -1;
return m_parent->indexOf(this);
}
bool AIComponent::hasTarget()
{
auto t = getTarget();
if (t != nullptr)
{
es::ComponentFilter targetFilter;
targetFilter.requires(FactionComponent::getId());
targetFilter.requires(TransformComponent::getId());
targetFilter.requires(StatComponent::getId());
if (t->hasComponents(targetFilter) && hasParent())
{
sf::Vector2f ePos = mParent->getComponent<TransformComponent>().getPosition();
sf::Vector2f tPos = t->getComponent<TransformComponent>().getPosition();
if (t->getId() != mParent->getId() && t->getComponent<StatComponent>().isAlive() && thor::length(ePos - tPos) < mOutOfView && mParent->hasComponent<FactionComponent>())
{
if (mParent->getComponent<FactionComponent>().getFaction().isEnemy(t->getComponent<FactionComponent>().getFactionId()))
{
return true;
}
}
else
{
mTarget = 0;
}
}
else
{
mTarget = 0;
}
}
return false;
}
void NotePlayHandle::noteOff( const f_cnt_t _s )
{
if( m_released )
{
return;
}
// first note-off all sub-notes
for( NotePlayHandleList::Iterator it = m_subNotes.begin(); it != m_subNotes.end(); ++it )
{
( *it )->noteOff( _s );
}
// then set some variables indicating release-state
m_framesBeforeRelease = _s;
m_releaseFramesToDo = qMax<f_cnt_t>( 0, actualReleaseFramesToDo() );
if( hasParent() || ! m_instrumentTrack->isArpeggioEnabled() )
{
// send MidiNoteOff event
m_instrumentTrack->processOutEvent(
MidiEvent( MidiNoteOff, midiChannel(), midiKey(), 0 ),
MidiTime::fromFrames( _s, engine::framesPerTick() ),
_s );
}
// inform attached components about MIDI finished (used for recording in Piano Roll)
if( m_origin == OriginMidiInput )
{
setLength( MidiTime( static_cast<f_cnt_t>( totalFramesPlayed() / engine::framesPerTick() ) ) );
m_instrumentTrack->midiNoteOff( *this );
}
m_released = true;
}
void NotePlayHandle::done()
{
lock();
noteOff( 0 );
if( hasParent() == false )
{
delete m_baseDetuning;
m_instrumentTrack->m_processHandles.removeAll( this );
}
else
{
m_parent->m_subNotes.removeOne( this );
}
if( m_pluginData != NULL )
{
m_instrumentTrack->deleteNotePluginData( this );
}
if( m_instrumentTrack->m_notes[key()] == this )
{
m_instrumentTrack->m_notes[key()] = NULL;
}
m_subNotes.clear();
delete m_filter;
if( buffer() ) releaseBuffer();
unlock();
}
NotePlayHandle::~NotePlayHandle()
{
noteOff( 0 );
if( hasParent() == false )
{
delete m_baseDetuning;
m_instrumentTrack->m_processHandles.removeAll( this );
}
if( m_pluginData != NULL )
{
m_instrumentTrack->deleteNotePluginData( this );
}
if( m_instrumentTrack->m_notes[key()] == this )
{
m_instrumentTrack->m_notes[key()] = NULL;
}
for( NotePlayHandleList::Iterator it = m_subNotes.begin(); it != m_subNotes.end(); ++it )
{
delete *it;
}
m_subNotes.clear();
delete m_filter;
}
void UseEqualsDeleteCheck::registerMatchers(MatchFinder *Finder) {
auto PrivateSpecialFn = cxxMethodDecl(
isPrivate(),
anyOf(cxxConstructorDecl(anyOf(isDefaultConstructor(),
isCopyConstructor(), isMoveConstructor())),
cxxMethodDecl(
anyOf(isCopyAssignmentOperator(), isMoveAssignmentOperator())),
cxxDestructorDecl()));
Finder->addMatcher(
cxxMethodDecl(
PrivateSpecialFn,
unless(anyOf(hasBody(stmt()), isDefaulted(), isDeleted(),
ast_matchers::isTemplateInstantiation(),
// Ensure that all methods except private special member
// functions are defined.
hasParent(cxxRecordDecl(hasMethod(unless(
anyOf(PrivateSpecialFn, hasBody(stmt()), isPure(),
isDefaulted(), isDeleted()))))))))
.bind(SpecialFunction),
this);
Finder->addMatcher(
cxxMethodDecl(isDeleted(), unless(isPublic())).bind(DeletedNotPublic),
this);
}
void Node::setChildrenModified(TimeStamp t)
{
if (t > properties.childrenMTime) {
properties.childrenMTime = t;
if (hasParent())
parent().setChildrenModified(properties.childrenMTime);
}
}
void MObject3d::updateMatrix(void)
{
computeLocalMatrix();
if(hasParent()){
m_matrix = m_parent->m_matrix * m_matrix;
}
}
SumoXMLTag
GNEAttributeCarrier::getParentType(SumoXMLTag tag) {
if(hasParent(tag)) {
return myAllowedAdditionalWithParentTags[tag];
} else {
return SUMO_TAG_NOTHING;
}
}
void Object::setTakesLayoutSpaceIfHidden(bool a) {
takesLayoutSpaceIfHidden = a;
// if parent is layout recompute
if(hasParent() && DanvilIsOfType<Layout, Object>(parent)) {
PTR(Layout) layout = DanvilConvert<Layout, Object>(parent);
layout->update();
}
}
void TreeNode::_setParent( TreeNode * node ){
if( !hasParent() ){
_parent = node;
dispatchEvent( new hrfm::events::Event(hrfm::events::Event::ADDED) );
}else{
_parent = node;
}
}
std::string Component::toString() const {
std::string ret;
if (hasParent()) {
ret += parent()->toString() + ".";
}
ret += name();
return ret;
}
void MObject3d::updateMatrix(void)
{
M_PROFILE_SCOPE(MObject3d::updateMatrix);
computeLocalMatrix();
if(hasParent()){
m_matrix = m_parent->m_matrix * m_matrix;
}
}
StringVector Component::path() const {
StringVector ret;
if (hasParent()) {
StringVector b = parent()->path();
ret.insert(ret.begin(), b.begin(), b.end());
}
ret.push_back(name());
return ret;
}
void ProtocolSpectator::syncOpenContainers()
{
const auto openContainers = player->getOpenContainers();
for (const auto& it : openContainers) {
auto openContainer = it.second;
auto container = openContainer.container;
sendContainer(it.first, container, container->hasParent(), openContainer.index);
}
}
bool hasParent(QObject* child, QObject* parent)
{
if (!child)
return false;
if (child == parent)
return true;
return hasParent(child->parent(), parent);
}
bool THIS::hasScene() const
{
if(!hasParent()) return false;
auto shape = dynamic_cast<neb::fnd::core::shape::base*>(getParent());
assert(shape);
return shape->hasScene();
}
Component* Component::setParent(Component* c) {
if (hasParent()) {
parent()->remove(this);
}
_parent = c;
if (0 != _parent) {
parent()->add(this);
}
return parent();
}
void Component::setParent(Component* p) {
if (hasParent()) {
if (p != parent()) {
parent()->removeChild(this);
}
}
_parent = p;
if (0 != _parent) {
_parent->addChild(this);
}
}
void DLPAggreg::computeAggregation(double parameter) {
if (!hasParent()) {
_EVALSTARTBC;
computeBestCuts(parameter);
_EVALSTOPBC;
_EVALSTARTBP;
computeBestPartitions();
_EVALSTOPBP;
cleanChilds();
}
}
bool WRMPDDirectoryTreeProvider::upLevel()
{
if (!hasParent()) return false;
std::string dir;
for (size_t i=0; i<m_uriSplit.size()-1; i++) {
if (dir.size()>0 && dir[dir.size()-1]!='/') dir += '/';
dir+=m_uriSplit[i];
}
cd(dir);
return true;
}
TEST(FriendDecl, InstantiationSourceRange) {
RangeVerifier<FriendDecl> Verifier;
Verifier.expectRange(4, 3, 4, 35);
EXPECT_TRUE(Verifier.match(
"template <typename T> class S;\n"
"template<class T> void operator+(S<T> x);\n"
"template<class T> struct S {\n"
" friend void operator+<>(S<T> src);\n"
"};\n"
"void test(S<double> s) { +s; }",
friendDecl(hasParent(recordDecl(isTemplateInstantiation())))));
}