int
traverseChildren(ClassRegister * cReg, const char *parent,
const char *chldn)
{
char *child;
int rc = CMPI_RC_ERR_FAILED;
UtilList *ul = getChildren(cReg, parent);
cReg->ft->rLock(cReg);
if (ul)
for (child = (char *) ul->ft->getFirst(ul); child;
child = (char *) ul->ft->getNext(ul)) {
if (strcasecmp(child, chldn) == 0) {
rc = CMPI_RC_OK;
break;
} else {
rc = traverseChildren(cReg, child, chldn);
if (rc == CMPI_RC_OK)
break;
}
}
cReg->ft->rUnLock(cReg);
return rc;
}
//-----------------------------------------------------------------------
void SWTraversal::onTree(PagingLandScapeOctree & n, VisibleObjectsBoundsInfo * const visibleBounds)
{
if(occlusion.mCurrentCam->isVisible(n.getCullBoundingBox ()))
{
#ifdef _VISIBILITYDEBUG
occlusion.traversed_nodes_cnt++;
n.getNodeData (occlusion.mCurrentCam)->viewFrustumVisible = true;
#endif //_VISIBILITYDEBUG
const bool isitVisible = isVisible(n);
if (isitVisible)
{
traverseChildren (n, visibleBounds);
}
#ifdef _VISIBILITYDEBUG
n.getNodeData (occlusion.mCurrentCam)->queryVisible = isitVisible;
#endif //_VISIBILITYDEBUG
}
#ifdef _VISIBILITYDEBUG
else
{
occlusion.traversed_nodes_cnt++;
n.getNodeData (occlusion.mCurrentCam)->viewFrustumVisible = false;
occlusion.frustum_culled_nodes_cnt++;
}
#endif //_VISIBILITYDEBUG
}
void Traverser::onApplicable(Node *node, Applicable *applicable) {
// Apply, do children, then remove
applicable->apply();
traverseChildren(node);
applicable->remove();
}
void ColumnBalancer::traverseSubtree(const LayoutBox& box) {
if (box.childrenInline() && box.isLayoutBlockFlow()) {
// Look for breaks between lines.
traverseLines(toLayoutBlockFlow(box));
}
// Look for breaks between and inside block-level children. Even if this is a
// block flow with inline children, there may be interesting floats to examine
// here.
traverseChildren(box);
}
void Traverser::onDrawable(Node *node, Drawable *drawable) {
// Check if excluded
if (drawable->isExcluded()) {
return;
}
// Do children then draw it
traverseChildren(node);
if (drawable->isVisible())
drawable->draw();
}
void Node::traverse(NodeVisitor& visitor)
{
// First, visit the node itself
INodePtr self = getSelf();
if (visitor.pre(self))
{
// The walker requested to descend the children of this node as well
traverseChildren(visitor);
}
visitor.post(self);
}
/** Recursively traverses a node.
*
* Automatically takes care of performing different actions depending on what
* type of interfaces the node supports.
*
* @param node Pointer to the Node to traverse.
*/
void Traverser::traverseNode(Node *node) {
Applicable *applicable;
Drawable *drawable;
// Determine if node is applicable or drawable
if ((applicable = dynamic_cast<Applicable*>(node))) {
onApplicable(node, applicable);
} else if ((drawable = dynamic_cast<Drawable*>(node))) {
onDrawable(node, drawable);
} else {
traverseChildren(node);
}
}
void Node::evaluateChildBounds() const {
if (_childBoundsChanged) {
ASSERT_MESSAGE(!_childBoundsMutex, "re-entering bounds evaluation");
_childBoundsMutex = true;
_childBounds = AABB();
// Instantiate an AABB accumulator
AABBAccumulateWalker accumulator(_childBounds);
// greebo: traverse the children of this node
traverseChildren(accumulator);
_childBoundsMutex = false;
_childBoundsChanged = false;
}
}
//-----------------------------------------------------------------------
void TreeOverlayDebug::onTree(PagingLandScapeOctree& n, VisibleObjectsBoundsInfo * const visibleBounds) const
{
SimpleRenderable * const s = n.getRectangle2d(mScnMrg);
if (n.getNodeData (occlusion.mCurrentCam)->viewFrustumVisible)
{
if (n.getNodeData (occlusion.mCurrentCam)->queryVisible)
{
s->setMaterial ("BaseWhiteNoLightNoDepthCheck");
occlusion.mCurrentRenderQueue->addRenderable (s, s->getRenderQueueGroup ());
traverseChildren (n, visibleBounds);
}
else
{
s->setMaterial ("BaseRedNoLightNoDepthCheck");
occlusion.mCurrentRenderQueue->addRenderable (s, s->getRenderQueueGroup ());
}
}
else
{
s->setMaterial ("BaseGreenNoLightNoDepthCheck");
occlusion.mCurrentRenderQueue->addRenderable (s, s->getRenderQueueGroup ());
}
}
static CMPIStatus
ClassProviderInvokeMethod(CMPIMethodMI * mi,
const CMPIContext *ctx,
const CMPIResult *rslt,
const CMPIObjectPath * ref,
const char *methodName,
const CMPIArgs * in, CMPIArgs * out)
{
CMPIStatus st = { CMPI_RC_OK, NULL };
CMPIArray *ar;
int rc;
ClassRegister *cReg;
_SFCB_ENTER(TRACE_PROVIDERS, "ClassProviderInvokeMethod");
cReg = getNsReg(ref, &rc);
if (cReg == NULL) {
CMPIStatus st = { CMPI_RC_ERR_INVALID_NAMESPACE, NULL };
_SFCB_RETURN(st);
}
if (strcasecmp(methodName, "getchildren") == 0) {
CMPIData cn = CMGetArg(in, "class", NULL);
_SFCB_TRACE(1, ("--- getchildren %s", (char *) cn.value.string->hdl));
cReg->ft->wLock(cReg);
if (cn.type == CMPI_string && cn.value.string && cn.value.string->hdl) {
char *child;
int l = 0,
i = 0;
UtilList *ul =
getChildren(cReg, (char *) cn.value.string->hdl);
if (ul)
l = ul->ft->size(ul);
ar = CMNewArray(_broker, l, CMPI_string, NULL);
if (ul)
for (child = (char *) ul->ft->getFirst(ul); child; child = (char *)
ul->ft->getNext(ul)) {
CMSetArrayElementAt(ar, i++, child, CMPI_chars);
}
st = CMAddArg(out, "children", &ar, CMPI_stringA);
} else {
}
cReg->ft->wUnLock(cReg);
}
else if (strcasecmp(methodName, "getallchildren") == 0) {
int ignprov = 0;
CMPIStatus st;
CMPIData cn = CMGetArg(in, "class", &st);
cReg->ft->wLock(cReg);
if (st.rc != CMPI_RC_OK) {
cn = CMGetArg(in, "classignoreprov", NULL);
ignprov = 1;
}
_SFCB_TRACE(1,
("--- getallchildren %s", (char *) cn.value.string->hdl));
if (cn.type == CMPI_string && cn.value.string && cn.value.string->hdl) {
int n = 0,
i = 0;
loopOnChildCount(cReg, (char *) cn.value.string->hdl, &n, ignprov);
_SFCB_TRACE(1, ("--- count %d", n));
ar = CMNewArray(_broker, n, CMPI_string, NULL);
if (n) {
_SFCB_TRACE(1, ("--- loop %s", (char *) cn.value.string->hdl));
loopOnChildChars(cReg, (char *) cn.value.string->hdl, ar, &i,
ignprov);
}
st = CMAddArg(out, "children", &ar, CMPI_stringA);
} else {
}
cReg->ft->wUnLock(cReg);
}
else if (strcasecmp(methodName, "getassocs") == 0) {
ar = CMNewArray(_broker, cReg->topAssocs, CMPI_string, NULL);
ClassBase *cb = (ClassBase *) (cReg + 1);
UtilHashTable *ct = cb->ht;
HashTableIterator *i;
char *cn;
ClassRecord *crec;
int n;
cReg->ft->wLock(cReg);
for (n = 0, i = ct->ft->getFirst(ct, (void **) &cn, (void **) &crec);
i; i = ct->ft->getNext(ct, i, (void **) &cn, (void **) &crec)) {
if (crec->flags & CREC_isAssociation && crec->parent == NULL) {
/*
* add top-level association class
*/
CMSetArrayElementAt(ar, n++, cn, CMPI_chars);
}
}
CMAddArg(out, "assocs", &ar, CMPI_stringA);
cReg->ft->wUnLock(cReg);
}
else if (strcasecmp(methodName, "ischild") == 0) {
char *parent = (char *) CMGetClassName(ref, NULL)->hdl;
char *chldn =
(char *) CMGetArg(in, "child", NULL).value.string->hdl;
st.rc = traverseChildren(cReg, parent, chldn);
}
else if (strcasecmp(methodName, "_startup") == 0) {
/* let providerMgr know that we're odne init'ing */
semRelease(sfcbSem,INIT_CLASS_PROV_ID);
st.rc = CMPI_RC_OK;
}
else {
mlogf(M_ERROR, M_SHOW,
"--- ClassProvider: Invalid invokeMethod request %s\n",
methodName);
st.rc = CMPI_RC_ERR_METHOD_NOT_FOUND;
}
_SFCB_RETURN(st);
}
void AcceleratorManagerPrivate::manageWidget(QWidget *w, Item *item)
{
// first treat the special cases
QTabBar *tabBar = qobject_cast<QTabBar*>(w);
if (tabBar)
{
manageTabBar(tabBar, item);
return;
}
QStackedWidget *wds = qobject_cast<QStackedWidget*>( w );
if ( wds )
{
QWidgetStackAccelManager::manage( wds );
// return;
}
QDockWidget *dock = qobject_cast<QDockWidget*>( w );
if ( dock )
{
//QWidgetStackAccelManager::manage( wds );
manageDockWidget(dock, item);
}
QMenu *popupMenu = qobject_cast<QMenu*>(w);
if (popupMenu)
{
// create a popup accel manager that can deal with dynamic menus
PopupAccelManager::manage(popupMenu);
return;
}
QStackedWidget *wdst = qobject_cast<QStackedWidget*>( w );
if ( wdst )
{
QWidgetStackAccelManager::manage( wdst );
// return;
}
QMenuBar *menuBar = qobject_cast<QMenuBar*>(w);
if (menuBar)
{
manageMenuBar(menuBar, item);
return;
}
if (qobject_cast<QComboBox*>(w) || qobject_cast<QLineEdit*>(w) ||
w->inherits("Q3TextEdit") ||
qobject_cast<QTextEdit*>(w) ||
qobject_cast<QAbstractSpinBox*>(w) || w->inherits( "KMultiTabBar" ) )
return;
if ( w->inherits("KUrlRequester") ) {
traverseChildren(w, item);
return;
}
if ( qobject_cast<PathRequester*>(w) ) {
traverseChildren(w, item);
return;
}
// now treat 'ordinary' widgets
QLabel *label = qobject_cast<QLabel*>(w);
if ( label ) {
if ( !label->buddy() )
return;
else {
if ( label->textFormat() == Qt::RichText ||
( label->textFormat() == Qt::AutoText &&
Qt::mightBeRichText( label->text() ) ) )
return;
}
}
if (w->focusPolicy() != Qt::NoFocus || label || qobject_cast<QGroupBox*>(w) || qobject_cast<QRadioButton*>( w ))
{
QString content;
QVariant variant;
int tprop = w->metaObject()->indexOfProperty("text");
if (tprop != -1) {
QMetaProperty p = w->metaObject()->property( tprop );
if ( p.isValid() && p.isWritable() )
variant = p.read (w);
else
tprop = -1;
}
if (tprop == -1) {
tprop = w->metaObject()->indexOfProperty("title");
if (tprop != -1) {
QMetaProperty p = w->metaObject()->property( tprop );
if ( p.isValid() && p.isWritable() )
variant = p.read (w);
}
}
if (variant.isValid())
content = variant.toString();
if (!content.isEmpty())
{
Item *i = new Item;
i->m_widget = w;
// put some more weight on the usual action elements
int weight = AccelManagerAlgorithm::DEFAULT_WEIGHT;
if (qobject_cast<QPushButton*>(w) || qobject_cast<QCheckBox*>(w) || qobject_cast<QRadioButton*>(w) || qobject_cast<QLabel*>(w))
weight = AccelManagerAlgorithm::ACTION_ELEMENT_WEIGHT;
// don't put weight on non-checkable group boxes,
// as usually the contents are more important
QGroupBox *groupBox = qobject_cast<QGroupBox*>(w);
if (groupBox)
{
if (groupBox->isCheckable())
weight = AccelManagerAlgorithm::CHECKABLE_GROUP_BOX_WEIGHT;
else
weight = AccelManagerAlgorithm::GROUP_BOX_WEIGHT;
}
i->m_content = AccelString(content, weight);
item->addChild(i);
}
}
traverseChildren(w, item);
}
void ColumnBalancer::traverseChildren(const LayoutObject& object) {
// The break-after value from the previous in-flow block-level object to be
// joined with the break-before value of the next in-flow block-level sibling.
EBreak previousBreakAfterValue = BreakAuto;
for (const LayoutObject* child = object.slowFirstChild(); child;
child = child->nextSibling()) {
if (!child->isBox()) {
// Keep traversing inside inlines. There may be floats there.
if (child->isLayoutInline())
traverseChildren(*child);
continue;
}
const LayoutBox& childBox = toLayoutBox(*child);
LayoutUnit borderEdgeOffset;
LayoutUnit logicalTop = childBox.logicalTop();
LayoutUnit logicalHeight = childBox.logicalHeightWithVisibleOverflow();
// Floats' margins don't collapse with column boundaries, and we don't want
// to break inside them, or separate them from the float's border box. Set
// the offset to the margin-before edge (rather than border-before edge),
// and include the block direction margins in the child height.
if (childBox.isFloating()) {
LayoutUnit marginBefore = childBox.marginBefore(object.style());
LayoutUnit marginAfter = childBox.marginAfter(object.style());
logicalHeight =
std::max(logicalHeight, childBox.logicalHeight() + marginAfter);
logicalTop -= marginBefore;
logicalHeight += marginBefore;
// As soon as we want to process content inside this child, though, we
// need to get to its border-before edge.
borderEdgeOffset = marginBefore;
}
if (m_flowThreadOffset + logicalTop + logicalHeight <=
logicalTopInFlowThread()) {
// This child is fully above the flow thread portion we're examining.
continue;
}
if (m_flowThreadOffset + logicalTop >= logicalBottomInFlowThread()) {
// This child is fully below the flow thread portion we're examining. We
// cannot just stop here, though, thanks to negative margins.
// So keep looking.
continue;
}
if (childBox.isOutOfFlowPositioned() || childBox.isColumnSpanAll())
continue;
// Tables are wicked. Both table rows and table cells are relative to their
// table section.
LayoutUnit offsetForThisChild =
childBox.isTableRow() ? LayoutUnit() : logicalTop;
m_flowThreadOffset += offsetForThisChild;
examineBoxAfterEntering(childBox, logicalHeight, previousBreakAfterValue);
// Unless the child is unsplittable, or if the child establishes an inner
// multicol container, we descend into its subtree for further examination.
if (childBox.getPaginationBreakability() != LayoutBox::ForbidBreaks &&
(!childBox.isLayoutBlockFlow() ||
!toLayoutBlockFlow(childBox).multiColumnFlowThread())) {
// We need to get to the border edge before processing content inside
// this child. If the child is floated, we're currently at the margin
// edge.
m_flowThreadOffset += borderEdgeOffset;
traverseSubtree(childBox);
m_flowThreadOffset -= borderEdgeOffset;
}
previousBreakAfterValue = childBox.breakAfter();
examineBoxBeforeLeaving(childBox, logicalHeight);
m_flowThreadOffset -= offsetForThisChild;
}
}
static CMPIStatus ClassProviderInvokeMethod(CMPIMethodMI * mi,
const CMPIContext * ctx,
const CMPIResult * rslt,
const CMPIObjectPath * ref,
const char *methodName,
const CMPIArgs * in, CMPIArgs * out)
{
CMPIStatus st = { CMPI_RC_OK, NULL };
CMPIArray *ar;
int rc;
ClassRegister *cReg;
_SFCB_ENTER(TRACE_PROVIDERS, "ClassProviderInvokeMethod");
cReg=getNsReg(ref, &rc);
if (cReg==NULL) {
CMPIStatus st = { CMPI_RC_ERR_INVALID_NAMESPACE, NULL };
_SFCB_RETURN(st);
}
if (strcasecmp(methodName, "getchildren") == 0) {
CMPIData cn = CMGetArg(in, "class", NULL);
_SFCB_TRACE(1,("--- getchildren %s",(char*)cn.value.string->hdl));
cReg->ft->wLock(cReg);
if (cn.type == CMPI_string && cn.value.string && cn.value.string->hdl) {
char *child;
int l=0, i=0;
UtilList *ul = getChildren(cReg, (char *) cn.value.string->hdl);
if (ul) l = ul->ft->size(ul);
ar = CMNewArray(_broker, l, CMPI_string, NULL);
if (ul) for (child = (char *) ul->ft->getFirst(ul); child; child = (char *)
ul->ft->getNext(ul)) {
CMSetArrayElementAt(ar, i++, child, CMPI_chars);
}
st = CMAddArg(out, "children", &ar, CMPI_stringA);
}
else {
}
cReg->ft->wUnLock(cReg);
}
else if (strcasecmp(methodName, "getallchildren") == 0) {
int ignprov=0;
CMPIStatus st;
CMPIData cn = CMGetArg(in, "class", &st);
cReg->ft->wLock(cReg);
if (st.rc!=CMPI_RC_OK) {
cn = CMGetArg(in, "classignoreprov", NULL);
ignprov=1;
}
_SFCB_TRACE(1,("--- getallchildren %s",(char*)cn.value.string->hdl));
if (cn.type == CMPI_string && cn.value.string && cn.value.string->hdl) {
int n=0,i=0;
loopOnChildCount(cReg,(char *)cn.value.string->hdl,&n,ignprov);
_SFCB_TRACE(1,("--- count %d",n));
ar = CMNewArray(_broker, n, CMPI_string, NULL);
if (n) {
_SFCB_TRACE(1,("--- loop %s",(char*)cn.value.string->hdl));
loopOnChildChars(cReg, (char *)cn.value.string->hdl,ar,&i,ignprov);
}
st = CMAddArg(out, "children", &ar, CMPI_stringA);
}
else {
}
cReg->ft->wUnLock(cReg);
}
else if (strcasecmp(methodName, "getassocs") == 0) {
ar = CMNewArray(_broker, cReg->topAssocs, CMPI_string, NULL);
ClassBase *cb = (ClassBase *) (cReg + 1);
UtilHashTable *ct = cb->ht;
HashTableIterator *i;
char *cn;
ClassRecord *crec;
int n;
cReg->ft->wLock(cReg);
for (n = 0, i = ct->ft->getFirst(ct, (void **) &cn, (void **) &crec); i;
i = ct->ft->getNext(ct, i, (void **) &cn, (void **) &crec)) {
if(crec->flags & CREC_isAssociation && crec->parent == NULL) {
/* add top-level association class */
CMSetArrayElementAt(ar, n++, cn, CMPI_chars);
}
}
CMAddArg(out, "assocs", &ar, CMPI_stringA);
cReg->ft->wUnLock(cReg);
}
else if (strcasecmp(methodName, "ischild") == 0) {
char *parent=(char*)CMGetClassName(ref,NULL)->hdl;
char *chldn=(char*)CMGetArg(in, "child", NULL).value.string->hdl;
st.rc = traverseChildren(cReg, parent, chldn);
}
else if (strcasecmp(methodName, "_startup") == 0) {
/* check to see if cacheLimit was specified in providerRegister */
CMPIStatus parm_st = { CMPI_RC_OK, NULL };
CMPIData parmdata = CMGetContextEntry(ctx, "sfcbProviderParameters", &parm_st);
if (parm_st.rc == CMPI_RC_OK ) {
const char* parms = CMGetCharPtr(parmdata.value.string);
/* cacheLimit is currently the only param, so just take whatever is after the '=' */
const char* val = strchr(parms,'=');
/* conversion to uint may cause wrapping; won't catch negatives */
cacheLimit = ((val != NULL) && (cacheLimit = atoi(val+sizeof(char)))>0) ? cacheLimit : 10;
}
st.rc=CMPI_RC_OK;
}
else {
mlogf(M_ERROR,M_SHOW,"--- ClassProvider: Invalid invokeMethod request %s\n", methodName);
st.rc = CMPI_RC_ERR_METHOD_NOT_FOUND;
}
_SFCB_RETURN(st);
}
