// object propery access.
inline bool set_prop(HVM vm, value obj, value key, value value) { return ni()->set_prop(vm,obj,key,value); }
// object creation, of_class == 0 - "Object"
inline value create_object(HVM vm, value of_class = 0) { return ni()->create_object(vm, of_class); }
inline value create_object(HVM vm, const char* class_path )
{
value cls = value_by_path(vm, class_path); assert( is_class(vm,cls) );
return ni()->create_object(vm, cls);
}
// path here is a global "path" of the object, something like: "one", "one.two", etc.
inline value value_by_path(HVM vm, const char* path) { value r = v_undefined(); ni()->get_value_by_path(vm, &r, path); return r; }
inline value value_by_path(const char* path) { HVM vm = get_current_vm(); assert(vm); value r = v_undefined(); ni()->get_value_by_path(vm, &r, path); return r; }
inline value v_bytes(HVM vm, const unsigned char* data, unsigned datalen) { return ni()->bytes_value(vm,data,datalen); }
// convert value to string represenatation.
inline std::ustring to_string(HVM vm,value v) { return c_string(ni()->to_string(vm,v)); }
CDoc* PApp::OpenWindow(const entry_ref& doc, bool show)
{
try
{
BNode n(&doc);
char mime[256];
BNodeInfo ni(&n);
if (ni.GetType(mime) != B_OK)
mime[0] = 0;
if (gPrefs->GetPrefInt(prf_I_AutodetectProjects, 1)) {
if (!strcmp(doc.name, "Jamfile"))
ni.SetType("text/x-jamfile");
else if (!strcasecmp(doc.name, "Makefile"))
ni.SetType("text/x-makefile");
ni.GetType(mime);
}
if (strcmp(mime, "text/x-vnd.Hekkel-Pe-Group") == 0 ||
strcmp(mime, "text/x-pe-group") == 0)
{
PGroupWindow *w = dynamic_cast<PGroupWindow*>(CDoc::FindDoc(doc));
if (w)
{
if (gPrefs->GetPrefInt(prf_I_SmartWorkspaces, 1))
w->SetWorkspaces(1 << current_workspace());
if (show)
w->Activate(true);
return CDoc::FindDoc(doc);
}
else
return new PGroupWindow(&doc);
}
else if (ProjectRoster->IsProjectType(mime))
{
BWindow *w = dynamic_cast<BWindow*>(CDoc::FindDoc(doc));
if (w)
{
if (gPrefs->GetPrefInt(prf_I_SmartWorkspaces, 1))
w->SetWorkspaces(1 << current_workspace());
if (show)
w->Activate(true);
return CDoc::FindDoc(doc);
}
else
{
PProjectWindow* prjWin = PProjectWindow::Create(&doc, mime);
if (prjWin && prjWin->InitCheck() == B_OK)
{
prjWin->Show();
return prjWin;
}
else
{
delete prjWin;
return gApp->NewWindow(&doc);
}
}
}
else
{
PDoc *d = dynamic_cast<PDoc*>(CDoc::FindDoc(doc));
if (d)
{
if (gPrefs->GetPrefInt(prf_I_SmartWorkspaces, 1))
d->SetWorkspaces(1 << current_workspace());
if (show)
d->Activate(true);
return CDoc::FindDoc(doc);
}
else
return NewWindow(&doc, show);
}
}
catch (HErr& e)
{
e.DoError();
}
return NULL;
} /* PApp::OpenWindow */
pbool PScene::unpack(const PXmlElement* xmlElement)
{
// Sanity check
if (pstrcmp(xmlElement->name(), "scene") != 0)
{
PLOG_ERROR("It is not a scene element");
return false;
}
// Delete all scene nodes
PDELETE(m_root);
PResourceManager *resourceManager = context()->module<PResourceManager>("resource-manager");
// Delete all effects
PList<PAbstractEffect *>::iterator it = m_effects.begin();
PList<PAbstractEffect *>::iterator ie = m_effects.end();
while (it != ie)
{
PAbstractEffect *effect = *it;
effect->m_scene = P_NULL;
PDELETE(effect);
++it;
}
// Recursively unpack its children
PXmlElement childElement = xmlElement->firstChild();
while (childElement.isValid())
{
if (pstrcmp(childElement.name(), "root") == 0)
{
const pchar *rootNameValue = childElement.attribute("name");
PASSERT(rootNameValue != P_NULL);
m_root = PNEW(PRootNode(rootNameValue, this));
if (!m_root->unpack(&childElement))
{
return false;
}
}
else if (pstrcmp(childElement.name(), "effect") == 0)
{
PAbstractEffect *effect = s_effectFactory.unpack(&childElement, this);
if (effect == P_NULL)
{
return false;
}
}
else if (pstrcmp(childElement.name(), "texture") == 0)
{
const pchar *textureId = childElement.attribute("id");
if (textureId != P_NULL)
{
PTexture *texture = resourceManager->getTexture(textureId);
if (texture == P_NULL)
{
PLOG_ERROR("Failed to find texture %s.", textureId);
}
else
{
const pchar *wrapValue = childElement.attribute("wrap");
if (wrapValue != P_NULL)
{
if (pstrcmp(wrapValue, "repeat") == 0)
{
texture->setRepeatWrappingEnabled(true, true);
}
}
const pchar *mipmapValue = childElement.attribute("mipmap");
if (mipmapValue != P_NULL)
{
if (pstrcmp(mipmapValue, "true") == 0)
{
// TODO:
PASSERT_NOTIMPLEMENTED();
}
}
}
}
else
{
PLOG_ERROR("Failed to find the id of the texture is missing.");
}
}
else
{
PLOG_WARNING("Unknown element node (%s) in scene.", childElement.name());
}
childElement = childElement.nextSibling();
}
// Find the main camera.
const pchar *mainCameraValue = xmlElement->attribute("maincamera");
m_mainCamera = P_NULL;
if (mainCameraValue == P_NULL)
{
// When the main camera is not specified, use the first camera in the
// scene nodes as the main camera.
PNode::iterator ni(m_root);
PNode *node = *(++ni); // Skip the root
while (node != P_NULL)
{
PCamera *camera = dynamic_cast<PCamera *>(node);
if (camera != P_NULL)
{
m_mainCamera = camera;
break;
}
node = *(++ni);
}
if (m_mainCamera == P_NULL)
{
PLOG_WARNING("No camera is found. The scene may not be rendered properly.");
}
}
else
{
PNode::iterator ni(m_root);
PNode *node = *(++ni); // Skip the root
while (node != P_NULL)
{
if (node->name() == mainCameraValue)
{
PCamera *camera = dynamic_cast<PCamera *>(node);
if (camera != P_NULL)
{
m_mainCamera = camera;
break;
}
}
node = *(++ni);
}
if (m_mainCamera == P_NULL)
{
PLOG_WARNING("There is no such camera called %s in the scene.");
}
}
return true;
}
const_iterator end() const
{
node_pointer ni(m_roots.get(), m_roots->end());
return const_iterator(ni);
}
/*
*************************************************************************
*
* computeFillBoxesAndNeighborhoodSets
*
*************************************************************************
*/
void
PatchLevelBorderFillPattern::computeFillBoxesAndNeighborhoodSets(
boost::shared_ptr<hier::BoxLevel>& fill_box_level,
boost::shared_ptr<hier::Connector>& dst_to_fill,
const hier::BoxLevel& dst_box_level,
const hier::IntVector& fill_ghost_width,
bool data_on_patch_border)
{
TBOX_ASSERT_OBJDIM_EQUALITY2(dst_box_level, fill_ghost_width);
fill_box_level.reset(new hier::BoxLevel(
dst_box_level.getRefinementRatio(),
dst_box_level.getGridGeometry(),
dst_box_level.getMPI()));
dst_to_fill.reset(new hier::Connector(dst_box_level,
*fill_box_level,
fill_ghost_width));
const hier::BoxContainer& dst_boxes = dst_box_level.getBoxes();
const int dst_level_num = dst_box_level.getGridGeometry()->
getEquivalentLevelNumber(dst_box_level.getRefinementRatio());
hier::IntVector dst_to_dst_width(fill_ghost_width);
if (data_on_patch_border) {
dst_to_dst_width += hier::IntVector::getOne(fill_ghost_width.getDim());
}
const hier::Connector& dst_to_dst =
dst_box_level.findConnector(dst_box_level,
dst_to_dst_width,
hier::CONNECTOR_IMPLICIT_CREATION_RULE,
true);
/*
* To get the level border, grow each patch box and remove
* the level from it.
*/
hier::LocalId last_id = dst_box_level.getLastLocalId();
for (hier::RealBoxConstIterator ni(dst_boxes.realBegin());
ni != dst_boxes.realEnd(); ++ni) {
const hier::Box& dst_box = *ni;
hier::BoxContainer fill_boxes(
hier::Box::grow(dst_box, fill_ghost_width));
hier::Connector::ConstNeighborhoodIterator nabrs =
dst_to_dst.find(dst_box.getBoxId());
for (hier::Connector::ConstNeighborIterator na = dst_to_dst.begin(nabrs);
na != dst_to_dst.end(nabrs); ++na) {
if (dst_box.getBlockId() == na->getBlockId()) {
fill_boxes.removeIntersections(*na);
} else {
boost::shared_ptr<const hier::BaseGridGeometry> grid_geometry(
dst_box_level.getGridGeometry());
const hier::BlockId& dst_block_id = dst_box.getBlockId();
const hier::BlockId& nbr_block_id = na->getBlockId();
TBOX_ASSERT(grid_geometry->areNeighbors(dst_block_id,
nbr_block_id));
hier::Transformation::RotationIdentifier rotation =
grid_geometry->getRotationIdentifier(dst_block_id,
nbr_block_id);
hier::IntVector offset(
grid_geometry->getOffset(dst_block_id, nbr_block_id, dst_level_num));
hier::Transformation transformation(rotation, offset,
nbr_block_id, dst_block_id);
hier::Box nbr_box(*na);
transformation.transform(nbr_box);
fill_boxes.removeIntersections(nbr_box);
}
}
if (!fill_boxes.empty()) {
d_max_fill_boxes = tbox::MathUtilities<int>::Max(d_max_fill_boxes,
fill_boxes.size());
hier::Connector::NeighborhoodIterator base_box_itr =
dst_to_fill->makeEmptyLocalNeighborhood(dst_box.getBoxId());
for (hier::BoxContainer::iterator li = fill_boxes.begin();
li != fill_boxes.end(); ++li) {
hier::Box fill_box(*li,
++last_id,
dst_box.getOwnerRank());
TBOX_ASSERT(fill_box.getBlockId() == dst_box.getBlockId());
fill_box_level->addBoxWithoutUpdate(fill_box);
dst_to_fill->insertLocalNeighbor(fill_box, base_box_itr);
}
}
}
fill_box_level->finalize();
}
const_iterator begin() const
{
node_pointer ni(m_roots.get(), m_roots->begin());
return const_iterator(ni);
}
iterator end()
{
node_pointer ni(m_roots.get(), m_roots->end());
return iterator(ni);
}
void RDAfact::debug_dump(FILE * outf, bool brief)
{
if(is_bot){
fprintf(outf, "bot\n");
} else if(brief){
int numaos = 0;
int numnodes = 0;
int numrets = 0;
int numargs = 0;
for(LocAidNode * np = this->head; np; np = np->next){
numaos++;
numnodes += np->nodes.Length();
numrets += np->rets.Length();
numargs += np->args.Length();
}
fprintf(outf, "%d aos, %d nodes, %d rets, %d args\n",
numaos, numnodes, numrets, numargs);
} else {
LocAidNode * np;
fprintf(outf, "\n");
for(np = this->head; np; np = np->next){
fprintf(outf, "\t[ ");
np->getAO().write_string_rep(outf, true);
fprintf(outf, ":");
suco_iterator<PgmExpr *> ni(np->nodes);
while(ni.Iterate()){
switch(ni.Current()->getKind()){
/*
case PgmExpr::fCall: {
AID& aid = ((PExprCall *)ni.Current())->getAid();
fprintf(outf, " call<%d,%d>", aid.filestem_id, aid.aid);
} break;
*/
case PgmExpr::fAssign: {
AID& aid = ((PExprAssign *)ni.Current())->getAid();
fprintf(outf, " assign<%d,%d>", aid.filestem_id, aid.aid);
} break;
case PgmExpr::fVerify: {
PExprVerify& pv = *(PExprVerify *)ni.Current();
AID& aid = pv.getAid();
fprintf(outf, " verify%s%s<%d,%d>",
pv.getVtKindString(), pv.getVpKindString(),
aid.filestem_id, aid.aid);
} break;
case PgmExpr::fDecl: {
fprintf(outf, " decl(");
((PExprDecl *)ni.Current())->getAO().write_string_rep(outf, true);
fprintf(outf, ")");
} break;
default:
fprintf(outf, "Invalid PgmExpr recorded in RDAfact:\n");
ni.Current()->debug_dump(outf, 2);
}
}
suco_iterator<PExprArg *> ai(np->args);
while(ai.Iterate()){
AID& aid = ((PExprArg *)ai.Current())->getAid();
fprintf(outf, " arg<%d,%d>", aid.filestem_id, aid.aid);
}
suco_iterator<PgmStmt *> ri(np->rets);
while(ri.Iterate()){
AID& aid = ((PgmStmt *)ri.Current())->getAid();
fprintf(outf, " ret<%d,%d>", aid.filestem_id, aid.aid);
}
fprintf(outf, " ]\n");
}
}
}
status_t
TerminalThemesAddon::ApplyThemeR5(BMessage &theme, uint32 flags)
{
BMessage termpref;
status_t err;
struct termprefs tp;
err = MyMessage(theme, termpref);
if (err)
return err;
tp.magic = TP_MAGIC;
tp.version = TP_VERSION;
tp.x = 0; // don't open at specific coords
tp.y = 0;
if (termpref.FindInt32(TP_COLS, (int32 *)&tp.p.cols) != B_OK)
tp.p.cols = 80;
if (termpref.FindInt32(TP_ROWS, (int32 *)&tp.p.rows) != B_OK)
tp.p.rows = 25;
if (termpref.FindInt32(TP_TABWIDTH, (int32 *)&tp.p.tab_width) != B_OK)
tp.p.tab_width = 8;
BFont tFont;
tp.p.font_size = 12;
strcpy(tp.p.font, "Courier10 BT/Roman");
if (FindFont(termpref, TP_FONT, 0, &tFont) == B_OK) {
font_family ff;
font_style fs;
tFont.GetFamilyAndStyle(&ff, &fs);
strcpy(tp.p.font, ff);
strcat(tp.p.font, "/");
strcat(tp.p.font, fs);
tp.p.font_size = (uint32)tFont.Size();
}
tp.p.cursor_blink_rate = 1000000;
tp.p.refresh_rate = 0;
if (FindRGBColor(termpref, TP_BG, 0, &tp.p.bg) != B_OK)
tp.p.bg = make_color(255,255,255,255);
if (FindRGBColor(termpref, TP_FG, 0, &tp.p.fg) != B_OK)
tp.p.fg = make_color(0,0,0,255);
if (FindRGBColor(termpref, TP_CURBG, 0, &tp.p.curbg) != B_OK)
tp.p.curbg = make_color(255,255,255,255);
if (FindRGBColor(termpref, TP_CURFG, 0, &tp.p.curfg) != B_OK)
tp.p.curfg = make_color(0,0,0,255);
if (FindRGBColor(termpref, TP_SELBG, 0, &tp.p.selbg) != B_OK)
tp.p.selbg = make_color(0,0,0,255);
if (FindRGBColor(termpref, TP_SELFG, 0, &tp.p.selfg) != B_OK)
tp.p.selfg = make_color(255,255,255,255);
if (termpref.FindInt32(TP_ENCODING, (int32 *)&tp.p.encoding) != B_OK)
tp.p.encoding = 0; // UTF-8
if (flags & UI_THEME_SETTINGS_SAVE && AddonFlags() & Z_THEME_ADDON_DO_SAVE) {
BPath pTermPref;
if (find_directory(B_USER_SETTINGS_DIRECTORY, &pTermPref) < B_OK)
return EINVAL;
pTermPref.Append("Terminal");
BFile fTermPref(pTermPref.Path(), B_WRITE_ONLY|B_CREATE_FILE|B_ERASE_FILE);
if (fTermPref.InitCheck() != B_OK) {
return fTermPref.InitCheck();
}
fTermPref.Write(&tp, sizeof(struct termprefs));
BNodeInfo ni(&fTermPref);
if (ni.InitCheck() == B_OK)
ni.SetType("application/x-vnd.Be-pref");
}
if (flags & UI_THEME_SETTINGS_APPLY && AddonFlags() & Z_THEME_ADDON_DO_APPLY) {
BList teamList;
app_info ainfo;
int32 count, i;
be_roster->GetAppList(&teamList);
count = teamList.CountItems();
for (i = 0; i < count; i++) {
if (be_roster->GetRunningAppInfo((team_id)(teamList.ItemAt(i)), &ainfo) == B_OK) {
if (!strcmp(ainfo.signature, kBeOSTerminalAppSig)) {
err = B_OK;
BMessage msg(MSG_R5_SET_PREF);
BMessenger msgr(NULL, ainfo.team);
tp.x = 0;
tp.y = 0;
//msg.AddData("", 'UBYT', &(tp.p), sizeof(struct tpref));
msg.AddData("", 'UBYT', &(tp), sizeof(struct termprefs));
msg.AddSpecifier("Window", 0L);
err = msgr.SendMessage(&msg);
}
}
}
}
return B_OK;
}
void BoxLevelStatistics::computeLocalBoxLevelStatistics(const BoxLevel& box_level)
{
box_level.cacheGlobalReducedData();
/*
* Compute per-processor statistics. Some quantities are readily
* available while others are computed in the loop following.
*
* Aspect ratio uses a generalized formula that goes to 1 when box
* has same length on all sides (regardless of dimension),
* degenerates to the rectangular aspect ratio in 2D, and grows
* appropriately for dimensions higher than 2.
*/
d_sq.d_values[HAS_ANY_BOX] = (box_level.getLocalNumberOfBoxes() > 0);
d_sq.d_values[NUMBER_OF_CELLS] =
static_cast<double>(box_level.getLocalNumberOfCells());
d_sq.d_values[NUMBER_OF_BOXES] =
static_cast<double>(box_level.getLocalNumberOfBoxes());
d_sq.d_values[MAX_BOX_VOL] = 0;
d_sq.d_values[MIN_BOX_VOL] = tbox::MathUtilities<double>::getMax();
d_sq.d_values[MAX_BOX_LEN] = 0;
d_sq.d_values[MIN_BOX_LEN] = tbox::MathUtilities<double>::getMax();
d_sq.d_values[MAX_ASPECT_RATIO] = 0;
d_sq.d_values[SUM_ASPECT_RATIO] = 0;
d_sq.d_values[SUM_SURFACE_AREA] = 0.;
d_sq.d_values[SUM_NORM_SURFACE_AREA] = 0.;
const BoxContainer& boxes = box_level.getBoxes();
for (RealBoxConstIterator ni(boxes.realBegin());
ni != boxes.realEnd(); ++ni) {
const Box& box = *ni;
const IntVector boxdims = box.numberCells();
const double boxvol = static_cast<double>(boxdims.getProduct());
const int longdim = boxdims.max();
const int shortdim = boxdims.min();
double aspect_ratio = 0.0;
double surfarea = 0.;
for (int d = 0; d < d_dim.getValue(); ++d) {
surfarea += 2 * double(boxvol) / boxdims(d);
double tmp = static_cast<double>(boxdims(d)) / shortdim - 1.0;
aspect_ratio += tmp * tmp;
}
aspect_ratio = 1.0 + sqrt(aspect_ratio);
d_sq.d_values[MAX_BOX_VOL] =
tbox::MathUtilities<double>::Max(d_sq.d_values[MAX_BOX_VOL],
boxvol);
d_sq.d_values[MIN_BOX_VOL] =
tbox::MathUtilities<double>::Min(d_sq.d_values[MIN_BOX_VOL],
boxvol);
d_sq.d_values[MAX_BOX_LEN] =
tbox::MathUtilities<double>::Max(d_sq.d_values[MAX_BOX_LEN],
longdim);
d_sq.d_values[MIN_BOX_LEN] =
tbox::MathUtilities<double>::Min(d_sq.d_values[MIN_BOX_LEN],
shortdim);
d_sq.d_values[MAX_ASPECT_RATIO] =
tbox::MathUtilities<double>::Max(d_sq.d_values[MAX_ASPECT_RATIO],
aspect_ratio);
d_sq.d_values[SUM_ASPECT_RATIO] += aspect_ratio;
d_sq.d_values[SUM_SURFACE_AREA] += surfarea;
}
/*
* Smallest surface area possible for the number of cells perfectly
* distributed in d_mpi.
*/
const double ideal_surfarea =
2 * d_dim.getValue()
* pow(double(box_level.getGlobalNumberOfCells()) / d_mpi.getSize(),
double(d_dim.getValue() - 1) / d_dim.getValue());
d_sq.d_values[SUM_NORM_SURFACE_AREA] =
d_sq.d_values[SUM_SURFACE_AREA] / ideal_surfarea;
}
