bool orReport::print(QPrinter *prtThis, bool boolSetupPrinter, bool showPreview, QWidget *parent)
{
// TODO: Figure out how all this is supposed to be with the new engine
bool retval = false;
bool localPrinter = false;
if (multiPainter)
{
if(_internal->_prerenderer.isValid())
{
_internal->_genDoc = _internal->_prerenderer.generate();
if(_internal->_genDoc)
{
ORPrintRender prender;
prender.setupPrinter(_internal->_genDoc, prtThis);
if (boolSetupPrinter) // 1st call
{
retval = multiPainter->begin(multiPrinter);
if (retval == false)
{
delete multiPainter;
multiPrinter = 0;
multiPainter = 0;
}
}
else // 2nd or later print call
retval = multiPrinter->newPage();
if (retval)
retval = render(multiPainter, multiPrinter);
delete _internal->_genDoc;
_internal->_genDoc = 0;
}
}
}
else
{
if(_internal != 0)
{
if (prtThis == 0)
{
prtThis = new ReportPrinter(QPrinter::HighResolution);
localPrinter = true;
}
if(_internal->_prerenderer.isValid())
{
_internal->_genDoc = _internal->_prerenderer.generate();
if(_internal->_genDoc)
{
retval = true;
ORPrintRender prender;
prender.setupPrinter(_internal->_genDoc, prtThis);
if (showPreview)
{
PreviewDialog preview(_internal->_genDoc, prtThis, parent);
if (preview.exec() == QDialog::Rejected)
return false;
}
QPrintDialog pd(prtThis);
if (boolSetupPrinter)
{
pd.setMinMax(1, _internal->_genDoc->pages());
retval = (pd.exec() == QDialog::Accepted);
}
if(retval == true)
retval = render(0, prtThis);
delete _internal->_genDoc;
_internal->_genDoc = 0;
}
}
if (localPrinter && prtThis != 0)
delete prtThis;
}
}
return retval;
}
void Album::print()
{
if (_scores.isEmpty())
return;
loadScores();
QPrinter printer(QPrinter::HighResolution);
Score* score = _scores[0]->score;
printer.setCreator("MuseScore Version: " MSC_VERSION);
printer.setFullPage(true);
printer.setColorMode(QPrinter::Color);
printer.setDoubleSidedPrinting(score->pageFormat()->twosided());
printer.setOutputFormat(QPrinter::NativeFormat);
QPrintDialog pd(&printer, 0);
if (!pd.exec())
return;
QPainter painter(&printer);
painter.setRenderHint(QPainter::Antialiasing, true);
painter.setRenderHint(QPainter::TextAntialiasing, true);
double mag = printer.logicalDpiX() / MScore::DPI;
painter.scale(mag, mag);
int fromPage = printer.fromPage() - 1;
int toPage = printer.toPage() - 1;
if (fromPage < 0)
fromPage = 0;
if (toPage < 0)
toPage = 100000;
//
// start pageOffset with configured offset of
// first score
//
int pageOffset = 0;
if (_scores[0]->score)
pageOffset = _scores[0]->score->pageNumberOffset();
foreach(AlbumItem* item, _scores) {
Score* score = item->score;
if (score == 0)
continue;
score->setPrinting(true);
//
// here we ignore the configured page offset
//
int oldPageOffset = score->pageNumberOffset();
score->setPageNumberOffset(pageOffset);
score->doLayout();
const QList<Page*> pl = score->pages();
int pages = pl.size();
for (int n = 0; n < pages; ++n) {
if (n)
printer.newPage();
Page* page = pl.at(n);
QRectF fr = page->abbox();
QList<Element*> ell = page->items(fr);
qStableSort(ell.begin(), ell.end(), elementLessThan);
foreach(const Element* e, ell) {
e->itemDiscovered = 0;
if (!e->visible())
continue;
QPointF pos(e->pagePos());
painter.translate(pos);
e->draw(&painter);
painter.translate(-pos);
}
}
/***********************************************************************
// compress a block of data.
************************************************************************/
static NOINLINE unsigned
do_compress(const uint8_t* in, unsigned in_len,
uint8_t* out, unsigned* out_len,
void* wrkmem)
{
register const uint8_t* ip;
uint8_t* op;
const uint8_t* const in_end = in + in_len;
const uint8_t* const ip_end = in + in_len - M2_MAX_LEN - 5;
const uint8_t* ii;
const void* *const dict = (const void**) wrkmem;
op = out;
ip = in;
ii = ip;
ip += 4;
for (;;) {
register const uint8_t* m_pos;
unsigned m_off;
unsigned m_len;
unsigned dindex;
D_INDEX1(dindex,ip);
GINDEX(m_pos,m_off,dict,dindex,in);
if (LZO_CHECK_MPOS_NON_DET(m_pos,m_off,in,ip,M4_MAX_OFFSET))
goto literal;
#if 1
if (m_off <= M2_MAX_OFFSET || m_pos[3] == ip[3])
goto try_match;
D_INDEX2(dindex,ip);
#endif
GINDEX(m_pos,m_off,dict,dindex,in);
if (LZO_CHECK_MPOS_NON_DET(m_pos,m_off,in,ip,M4_MAX_OFFSET))
goto literal;
if (m_off <= M2_MAX_OFFSET || m_pos[3] == ip[3])
goto try_match;
goto literal;
try_match:
#if 1 && defined(LZO_UNALIGNED_OK_2)
if (* (const lzo_ushortp) m_pos != * (const lzo_ushortp) ip)
#else
if (m_pos[0] != ip[0] || m_pos[1] != ip[1])
#endif
{
} else {
if (m_pos[2] == ip[2]) {
#if 0
if (m_off <= M2_MAX_OFFSET)
goto match;
if (lit <= 3)
goto match;
if (lit == 3) { /* better compression, but slower */
assert(op - 2 > out);
op[-2] |= (uint8_t)(3);
*op++ = *ii++;
*op++ = *ii++;
*op++ = *ii++;
goto code_match;
}
if (m_pos[3] == ip[3])
#endif
goto match;
}
else {
/* still need a better way for finding M1 matches */
#if 0
/* a M1 match */
#if 0
if (m_off <= M1_MAX_OFFSET && lit > 0 && lit <= 3)
#else
if (m_off <= M1_MAX_OFFSET && lit == 3)
#endif
{
register unsigned t;
t = lit;
assert(op - 2 > out);
op[-2] |= (uint8_t)(t);
do *op++ = *ii++;
while (--t > 0);
assert(ii == ip);
m_off -= 1;
*op++ = (uint8_t)(M1_MARKER | ((m_off & 3) << 2));
*op++ = (uint8_t)(m_off >> 2);
ip += 2;
goto match_done;
}
#endif
}
}
/* a literal */
literal:
UPDATE_I(dict, 0, dindex, ip, in);
++ip;
if (ip >= ip_end)
break;
continue;
/* a match */
match:
UPDATE_I(dict, 0, dindex, ip, in);
/* store current literal run */
if (pd(ip, ii) > 0) {
register unsigned t = pd(ip, ii);
if (t <= 3) {
assert(op - 2 > out);
op[-2] |= (uint8_t)(t);
}
else if (t <= 18)
*op++ = (uint8_t)(t - 3);
else {
register unsigned tt = t - 18;
*op++ = 0;
while (tt > 255) {
tt -= 255;
*op++ = 0;
}
assert(tt > 0);
*op++ = (uint8_t)(tt);
}
do *op++ = *ii++;
while (--t > 0);
}
/* code the match */
assert(ii == ip);
ip += 3;
if (m_pos[3] != *ip++ || m_pos[4] != *ip++ || m_pos[5] != *ip++
|| m_pos[6] != *ip++ || m_pos[7] != *ip++ || m_pos[8] != *ip++
#ifdef LZO1Y
|| m_pos[ 9] != *ip++ || m_pos[10] != *ip++ || m_pos[11] != *ip++
|| m_pos[12] != *ip++ || m_pos[13] != *ip++ || m_pos[14] != *ip++
#endif
) {
--ip;
m_len = pd(ip, ii);
assert(m_len >= 3);
assert(m_len <= M2_MAX_LEN);
if (m_off <= M2_MAX_OFFSET) {
m_off -= 1;
#if defined(LZO1X)
*op++ = (uint8_t)(((m_len - 1) << 5) | ((m_off & 7) << 2));
*op++ = (uint8_t)(m_off >> 3);
#elif defined(LZO1Y)
*op++ = (uint8_t)(((m_len + 1) << 4) | ((m_off & 3) << 2));
*op++ = (uint8_t)(m_off >> 2);
#endif
}
else if (m_off <= M3_MAX_OFFSET) {
void gameDialog::UpdateCameraPosition(void) {
static double last = 0.0;
double delta = (gCurrentFrameTime - last)*20; // Number of blocks/s
last = gCurrentFrameTime;
if (delta > fRequestedCameraDistance - fCameraDistance)
delta = fRequestedCameraDistance - fCameraDistance;
// If the requested camera distance is bigger than the current, then slowly move out.
if (fRequestedCameraDistance > fCameraDistance)
fCameraDistance += delta;
else
fCameraDistance = fRequestedCameraDistance;
Options::fgOptions.fCameraDistance = fRequestedCameraDistance; // Make sure it is saved
if (fCameraDistance == 0.0f)
return;
ChunkCoord cc;
gPlayer.GetChunkCoord(&cc);
glm::vec3 playerOffset = gPlayer.GetOffsetToChunk();
glm::vec3 pd(playerOffset.x, -playerOffset.z, playerOffset.y); // Same offset, but in Ephenation server coordinates
glm::mat4 T1 = glm::translate(glm::mat4(1), playerOffset);
glm::mat4 R1 = glm::rotate(glm::mat4(1), _angleVert, glm::vec3(-1.0f, 0.0f, 0.0f));
glm::mat4 R2 = glm::rotate(glm::mat4(1), _angleHor, glm::vec3(0.0f, -1.0f, 0.0f));
glm::mat4 T2 = glm::translate(glm::mat4(1.0f), glm::vec3(0.0f, 0.0f, fCameraDistance));
glm::vec4 pos = T1 * R2 * R1 * T2 * glm::vec4(0,0,0,1);
glm::vec3 cd(pos.x, -pos.z, pos.y); // Camera delta in Ephenation coordinates.
// printf("Player: %.2f, %.2f, %.2f. Camera: %.2f,%.2f,%.2f\n", pd.x, pd.y, pd.z, cd.x, cd.y, cd.z);
glm::vec3 norm = glm::normalize(cd-pd); // Vector from player to camera
const float step = 0.1f;
for (float d = step; d <= this->fCameraDistance; d = d + step) {
signed long long x, y, z;
x = gPlayer.x + (signed long long)(d * norm.x*BLOCK_COORD_RES);
y = gPlayer.y + (signed long long)(d * norm.y*BLOCK_COORD_RES);
z = gPlayer.z + (signed long long)(d * norm.z*BLOCK_COORD_RES);
if (chunk::GetChunkAndBlock(x, y, z) != BT_Air) {
this->fCameraDistance = d-step;
break;
}
if (chunk::GetChunkAndBlock(x+1, y, z) != BT_Air) {
this->fCameraDistance = d-step;
break;
}
if (chunk::GetChunkAndBlock(x, y+1, z) != BT_Air) {
this->fCameraDistance = d-step;
break;
}
if (chunk::GetChunkAndBlock(x, y, z+1) != BT_Air) {
this->fCameraDistance = d-step;
break;
}
if (chunk::GetChunkAndBlock(x-1, y, z) != BT_Air) {
this->fCameraDistance = d-step;
break;
}
if (chunk::GetChunkAndBlock(x, y-1, z) != BT_Air) {
this->fCameraDistance = d-step;
break;
}
if (chunk::GetChunkAndBlock(x, y, z-1) != BT_Air) {
this->fCameraDistance = d-step;
break;
}
}
}
IGL_INLINE
void igl::copyleft::cgal::order_facets_around_edge(
const Eigen::PlainObjectBase<DerivedV>& V,
const Eigen::PlainObjectBase<DerivedF>& F,
size_t s,
size_t d,
const std::vector<int>& adj_faces,
const Eigen::PlainObjectBase<DerivedV>& pivot_point,
Eigen::PlainObjectBase<DerivedI>& order)
{
assert(V.cols() == 3);
assert(F.cols() == 3);
assert(pivot_point.cols() == 3);
auto signed_index_to_index = [&](int signed_idx)
{
return abs(signed_idx) -1;
};
auto get_opposite_vertex_index = [&](size_t fid) -> typename DerivedF::Scalar
{
typedef typename DerivedF::Scalar Index;
if (F(fid, 0) != (Index)s && F(fid, 0) != (Index)d) return F(fid, 0);
if (F(fid, 1) != (Index)s && F(fid, 1) != (Index)d) return F(fid, 1);
if (F(fid, 2) != (Index)s && F(fid, 2) != (Index)d) return F(fid, 2);
assert(false);
// avoid warning
return -1;
};
{
// Check if s, d and pivot are collinear.
typedef CGAL::Exact_predicates_exact_constructions_kernel K;
K::Point_3 ps(V(s,0), V(s,1), V(s,2));
K::Point_3 pd(V(d,0), V(d,1), V(d,2));
K::Point_3 pp(pivot_point(0,0), pivot_point(0,1), pivot_point(0,2));
if (CGAL::collinear(ps, pd, pp)) {
throw std::runtime_error(
"Pivot point is collinear with the outer edge!");
}
}
const size_t N = adj_faces.size();
const size_t num_faces = N + 1; // N adj faces + 1 pivot face
// Because face indices are used for tie breaking, the original face indices
// in the new faces array must be ascending.
auto comp = [&](int i, int j)
{
return signed_index_to_index(adj_faces[i]) <
signed_index_to_index(adj_faces[j]);
};
std::vector<size_t> adj_order(N);
for (size_t i=0; i<N; i++) adj_order[i] = i;
std::sort(adj_order.begin(), adj_order.end(), comp);
DerivedV vertices(num_faces + 2, 3);
for (size_t i=0; i<N; i++)
{
const size_t fid = signed_index_to_index(adj_faces[adj_order[i]]);
vertices.row(i) = V.row(get_opposite_vertex_index(fid));
}
vertices.row(N ) = pivot_point;
vertices.row(N+1) = V.row(s);
vertices.row(N+2) = V.row(d);
DerivedF faces(num_faces, 3);
for (size_t i=0; i<N; i++)
{
if (adj_faces[adj_order[i]] < 0)
{
faces(i,0) = N+1; // s
faces(i,1) = N+2; // d
faces(i,2) = i ;
} else
{
faces(i,0) = N+2; // d
faces(i,1) = N+1; // s
faces(i,2) = i ;
}
}
// Last face is the pivot face.
faces(N, 0) = N+1;
faces(N, 1) = N+2;
faces(N, 2) = N;
std::vector<int> adj_faces_with_pivot(num_faces);
for (size_t i=0; i<num_faces; i++)
{
if ((size_t)faces(i,0) == N+1 && (size_t)faces(i,1) == N+2)
{
adj_faces_with_pivot[i] = int(i+1) * -1;
} else
{
adj_faces_with_pivot[i] = int(i+1);
}
}
DerivedI order_with_pivot;
order_facets_around_edge(
vertices, faces, N+1, N+2, adj_faces_with_pivot, order_with_pivot);
assert((size_t)order_with_pivot.size() == num_faces);
order.resize(N);
size_t pivot_index = num_faces + 1;
for (size_t i=0; i<num_faces; i++)
{
if ((size_t)order_with_pivot[i] == N)
{
pivot_index = i;
break;
}
}
assert(pivot_index < num_faces);
for (size_t i=0; i<N; i++)
{
order[i] = adj_order[order_with_pivot[(pivot_index+i+1)%num_faces]];
}
}
void displayPrivate::print(bool showPreview)
{
int numCopies = 1;
ParameterList params;
if(!_parent->setParams(params))
return;
XSqlQuery report;
report.prepare("SELECT report_grade, report_source "
" FROM report "
" WHERE (report_name=:report_name)"
" ORDER BY report_grade DESC LIMIT 1");
report.bindValue(":report_name", reportName);
report.exec();
QDomDocument _doc;
if (report.first())
{
QString errorMessage;
int errorLine;
if (!_doc.setContent(report.value("report_source").toString(), &errorMessage, &errorLine))
{
QMessageBox::critical(_parent, ::display::tr("Error Parsing Report"),
::display::tr("There was an error Parsing the report definition. %1 %2").arg(errorMessage).arg(errorLine));
return;
}
}
else
{
QMessageBox::critical(_parent, ::display::tr("Report Not Found"),
::display::tr("The report %1 does not exist.").arg(reportName));
return;
}
ORPreRender pre;
pre.setDom(_doc);
pre.setParamList(params);
ORODocument * doc = pre.generate();
if(doc)
{
QPrinter printer(QPrinter::HighResolution);
printer.setNumCopies( numCopies );
ORPrintRender render;
render.setupPrinter(doc, &printer);
if(showPreview)
{
PreviewDialog preview (doc, &printer, _parent);
if (preview.exec() == QDialog::Rejected)
return;
}
QPrintDialog pd(&printer);
pd.setMinMax(1, doc->pages());
if(pd.exec() == QDialog::Accepted)
{
render.setPrinter(&printer);
render.render(doc);
}
delete doc;
}
}
void printChecks::sPrint()
{
QList<int> printedChecks;
ParameterList params;
params.append("bankaccnt_id", _bankaccnt->id());
bool setup = true;
XSqlQuery checks;
checks.prepare( "SELECT checkhead_id, checkhead_number, report_name "
"FROM checkhead, bankaccnt, form, report "
"WHERE ( (checkhead_bankaccnt_id=bankaccnt_id)"
" AND (bankaccnt_check_form_id=form_id)"
" AND (form_report_id=report_id)"
" AND (NOT checkhead_printed) "
" AND (NOT checkhead_void) "
" AND (bankaccnt_id=:bankaccnt_id) ) "
"ORDER BY checkhead_number "
"LIMIT :numtoprint; " );
checks.bindValue(":bankaccnt_id", _bankaccnt->id());
checks.bindValue(":numtoprint", _numberOfChecks->value());
checks.exec();
/*
bool userCanceled = false;
if (orReport::beginMultiPrint(&printer, userCanceled) == false)
{
if(!userCanceled)
systemError(this, tr("<p>Could not initialize printing system for "
"multiple reports."));
return;
}
*/
QDomDocument docReport;
QPrinter printer(QPrinter::HighResolution);
ORPrintRender render;
while (checks.next())
{
if(setup)
{
// get the report definition out of the database
// this should somehow be condensed into a common code call or something
// in the near future to facilitate easier conversion in other places
// of the application to use the new rendering engine directly
XSqlQuery report;
report.prepare( "SELECT report_source "
" FROM report "
" WHERE (report_name=:report_name) "
"ORDER BY report_grade DESC LIMIT 1;" );
report.bindValue(":report_name", checks.value("report_name").toString());
report.exec();
if (report.first())
{
QString errorMessage;
int errorLine;
if (!docReport.setContent(report.value("report_source").toString(), &errorMessage, &errorLine))
{
systemError(this, errorMessage, __FILE__, __LINE__);
return;
}
}
else
{
systemError(this, report.lastError().databaseText(), __FILE__, __LINE__);
return;
}
// end getting the report definition out the database
if(_setCheckNumber != -1 && _setCheckNumber != _nextCheckNum->text().toInt())
{
q.prepare("SELECT setNextCheckNumber(:bankaccnt_id, :nextCheckNumber) AS result;");
q.bindValue(":bankaccnt_id", _bankaccnt->id());
q.bindValue(":nextCheckNumber", _nextCheckNum->text().toInt());
q.exec();
if (q.first())
{
int result = q.value("result").toInt();
if (result < 0)
{
systemError(this, storedProcErrorLookup("setNextCheckNumber", result),
__FILE__, __LINE__);
return;
}
}
else if (q.lastError().type() != QSqlError::NoError)
{
systemError(this, q.lastError().databaseText(), __FILE__, __LINE__);
return;
}
}
}
q.prepare("UPDATE checkhead SET checkhead_number=fetchNextCheckNumber(checkhead_bankaccnt_id)"
" WHERE(checkhead_id=:checkhead_id);");
q.bindValue(":checkhead_id", checks.value("checkhead_id").toInt());
q.exec();
if (q.lastError().type() != QSqlError::NoError)
{
systemError(this, q.lastError().databaseText(), __FILE__, __LINE__);
return;
}
ParameterList params;
params.append("checkhead_id", checks.value("checkhead_id").toInt());
params.append("apchk_id", checks.value("checkhead_id").toInt());
ORPreRender pre;
pre.setDom(docReport);
pre.setParamList(params);
ORODocument * doc = pre.generate();
if(setup)
{
render.setupPrinter(doc, &printer);
QPrintDialog pd(&printer);
pd.setMinMax(1, doc->pages());
if(pd.exec() != QDialog::Accepted)
return;
render.setPrinter(&printer);
setup = false;
}
render.render(doc);
printedChecks.append(checks.value("checkhead_id").toInt());
int page_num = 1;
while(page_num < doc->pages())
{
page_num++;
XSqlQuery qq;
qq.prepare("INSERT INTO checkhead"
" (checkhead_recip_id, checkhead_recip_type,"
" checkhead_bankaccnt_id, checkhead_printed,"
" checkhead_checkdate, checkhead_number,"
" checkhead_amount, checkhead_void,"
" checkhead_misc,"
" checkhead_for, checkhead_notes,"
" checkhead_curr_id, checkhead_deleted) "
"SELECT checkhead_recip_id, checkhead_recip_type,"
" checkhead_bankaccnt_id, TRUE,"
" checkhead_checkdate, fetchNextCheckNumber(checkhead_bankaccnt_id),"
" checkhead_amount, TRUE, TRUE,"
" 'Continuation of Check #'||checkhead_number,"
" 'Continuation of Check #'||checkhead_number,"
" checkhead_curr_id, TRUE"
" FROM checkhead"
" WHERE(checkhead_id=:checkhead_id);");
qq.bindValue(":checkhead_id", checks.value("checkhead_id").toInt());
if(!qq.exec())
{
systemError(this, "Received error but will continue anyway:\n"+qq.lastError().databaseText(), __FILE__, __LINE__);
}
}
}
//orReport::endMultiPrint(&printer);
if (checks.lastError().type() != QSqlError::None)
{
systemError(this, checks.lastError().databaseText(), __FILE__, __LINE__);
return;
}
if(!printedChecks.empty())
{
QList<int>::iterator it;
if ( QMessageBox::question(this, tr("All Checks Printed"),
tr("<p>Did all the Checks print successfully?"),
QMessageBox::Yes,
QMessageBox::No | QMessageBox::Default) == QMessageBox::Yes)
{
XSqlQuery postCheck;
postCheck.prepare( "SELECT markCheckAsPrinted(:checkhead_id) AS result;");
for( it = printedChecks.begin(); it != printedChecks.end(); ++it)
{
postCheck.bindValue(":checkhead_id", (*it));
postCheck.exec();
if (postCheck.first())
{
int result = postCheck.value("result").toInt();
if (result < 0)
{
systemError(this, storedProcErrorLookup("markCheckAsPrinted",
result), __FILE__, __LINE__);
return;
}
}
else if (postCheck.lastError().type() != QSqlError::None)
{
systemError(this, postCheck.lastError().databaseText(), __FILE__, __LINE__);
return;
}
}
}
else
{
printChecksReview newdlg(this, "", TRUE);
QString query = QString( "SELECT checkhead_id, checkhead_number"
" FROM checkhead"
" WHERE (checkhead_id IN (" );
bool first = true;
for( it = printedChecks.begin(); it != printedChecks.end(); ++it)
{
if(!first)
query += ",";
query += QString::number((*it));
first = false;
}
query += ") ); ";
newdlg._checks->populate(query);
newdlg.sSelectAll();
newdlg.sMarkPrinted();
newdlg._checks->clearSelection();
newdlg.exec();
}
}
else
QMessageBox::information( this, tr("No Checks Printed"),
tr("<p>No Checks were printed for the selected "
"Bank Account.") );
omfgThis->sChecksUpdated(_bankaccnt->id(), -1, TRUE);
sHandleBankAccount(_bankaccnt->id());
}
void dispTree (tleaf* tree, void (*pd)(void*))
{
if(tree->p[0]) dispTree(tree->p[0],pd);
pd(tree->pData);
if(tree->p[1]) dispTree(tree->p[1],pd);
}
static void smbconf_txt_flush_cache(struct smbconf_ctx *ctx)
{
talloc_free(pd(ctx)->cache);
pd(ctx)->cache = NULL;
}
bool PrintFile(const WCHAR *fileName, const WCHAR *printerName, bool displayErrors, const WCHAR *settings)
{
if (!HasPermission(Perm_PrinterAccess))
return false;
ScopedMem<WCHAR> fileName2(path::Normalize(fileName));
BaseEngine *engine = EngineManager::CreateEngine(!gUseEbookUI, fileName2);
if (!engine || !engine->IsPrintingAllowed()) {
if (displayErrors)
MessageBox(NULL, _TR("Cannot print this file"), _TR("Printing problem."), MB_ICONEXCLAMATION | MB_OK | (IsUIRightToLeft() ? MB_RTLREADING : 0));
return false;
}
HANDLE printer;
bool ok = OpenPrinter((WCHAR *)printerName, &printer, NULL);
if (!ok) {
if (displayErrors)
MessageBox(NULL, _TR("Printer with given name doesn't exist"), _TR("Printing problem."), MB_ICONEXCLAMATION | MB_OK | (IsUIRightToLeft() ? MB_RTLREADING : 0));
return false;
}
// get printer driver information
DWORD needed = 0;
GetPrinter(printer, 2, NULL, 0, &needed);
ScopedMem<PRINTER_INFO_2> infoData((PRINTER_INFO_2 *)AllocArray<BYTE>(needed));
if (infoData)
ok = GetPrinter(printer, 2, (LPBYTE)infoData.Get(), needed, &needed);
if (!ok || !infoData || needed <= sizeof(PRINTER_INFO_2)) goto Exit;
LONG structSize = DocumentProperties(NULL,
printer, /* Handle to our printer. */
(WCHAR *)printerName, /* Name of the printer. */
NULL, /* Asking for size, so */
NULL, /* these are not used. */
0); /* Zero returns buffer size. */
if (structSize < sizeof(DEVMODE)) {
// If failure, inform the user, cleanup and return failure.
if (displayErrors)
MessageBox(NULL, _TR("Could not obtain Printer properties"), _TR("Printing problem."), MB_ICONEXCLAMATION | MB_OK | (IsUIRightToLeft() ? MB_RTLREADING : 0));
goto Exit;
}
LPDEVMODE devMode = (LPDEVMODE)malloc(structSize);
if (!devMode) goto Exit;
// Get the default DevMode for the printer and modify it for your needs.
LONG returnCode = DocumentProperties(NULL,
printer,
(WCHAR *)printerName,
devMode, /* The address of the buffer to fill. */
NULL, /* Not using the input buffer. */
DM_OUT_BUFFER); /* Have the output buffer filled. */
if (IDOK != returnCode) {
// If failure, inform the user, cleanup and return failure.
if (displayErrors)
MessageBox(NULL, _TR("Could not obtain Printer properties"), _TR("Printing problem."), MB_ICONEXCLAMATION | MB_OK | (IsUIRightToLeft() ? MB_RTLREADING : 0));
goto Exit;
}
ClosePrinter(printer);
printer = NULL;
{
Print_Advanced_Data advanced;
Vec<PRINTPAGERANGE> ranges;
ApplyPrintSettings(settings, engine->PageCount(), ranges, advanced);
PrintData pd(engine, infoData, devMode, ranges, advanced);
ok = PrintToDevice(pd);
if (!ok && displayErrors)
MessageBox(NULL, _TR("Couldn't initialize printer"), _TR("Printing problem."),
MB_ICONEXCLAMATION | MB_OK | (IsUIRightToLeft() ? MB_RTLREADING : 0));
}
Exit:
free(devMode);
if (printer)
ClosePrinter(printer);
delete engine;
return ok;
}
int main(int argc, char const *argv[])
{
if (argc != 7)
{
std::cerr << "Usage: itqlsh_test data_path lsh_file param.L param.N benchmark_file hamming" << std::endl;
return -1;
}
std::cout << "Example of using Iterative Quantization" << std::endl << std::endl;
typedef float DATATYPE;
std::cout << "LOADING DATA ..." << std::endl;
lshbox::timer timer;
lshbox::Matrix<DATATYPE> data(argv[1]);
std::cout << "LOAD TIME: " << timer.elapsed() << "s." << std::endl;
std::cout << "CONSTRUCTING INDEX ..." << std::endl;
timer.restart();
std::string file(argv[2]);
bool use_index = false;
lshbox::itqLsh<DATATYPE> mylsh;
if (use_index)
{
mylsh.load(file);
}
else
{
lshbox::itqLsh<DATATYPE>::Parameter param;
param.L = atoi(argv[3]);
param.D = data.getDim();
param.N = atoi(argv[4]);
param.S = 10000;
param.I = 50;
mylsh.reset(param);
mylsh.train(data);
mylsh.hash(data);
}
mylsh.save(file);
std::cout << "CONSTRUCTING TIME: " << timer.elapsed() << "s." << std::endl;
std::cout << "LOADING BENCHMARK ..." << std::endl;
timer.restart();
lshbox::Matrix<DATATYPE>::Accessor accessor(data);
lshbox::Metric<DATATYPE> metric(data.getDim(), L2_DIST);
lshbox::Benchmark bench;
std::string benchmark(argv[5]);
bench.load(benchmark);
unsigned K = bench.getK();
lshbox::Scanner<lshbox::Matrix<DATATYPE>::Accessor> scanner(
accessor,
metric,
K
);
std::cout << "LOADING TIME: " << timer.elapsed() << "s." << std::endl;
std::cout << "RUNING QUERY ..." << std::endl;
lshbox::Stat cost, recall;
lshbox::progress_display pd(bench.getQ());
timer.restart();
for (unsigned i = 0; i != bench.getQ(); ++i)
{
mylsh.query(data[bench.getQuery(i)], scanner, atoi(argv[6]));
recall << bench.getAnswer(i).recall(scanner.topk());
cost << float(scanner.cnt()) / float(data.getSize());
++pd;
}
std::cout << "MEAN QUERY TIME: " << timer.elapsed() / bench.getQ() << "s." << std::endl;
std::cout << "RECALL : " << recall.getAvg() << " +/- " << recall.getStd() << std::endl;
std::cout << "COST : " << cost.getAvg() << " +/- " << cost.getStd() << std::endl;
}
// Turns LLL tree into tree of code fragments
programData opcodeify(Node node,
programAux aux=Aux(),
programVerticalAux vaux=verticalAux()) {
std::string symb = "_"+mkUniqueToken();
Metadata m = node.metadata;
// Numbers
if (node.type == TOKEN) {
return pd(aux, nodeToNumeric(node), 1);
}
else if (node.val == "ref" || node.val == "get" || node.val == "set") {
std::string varname = node.args[0].val;
// Determine reference to variable
if (!aux.vars.count(node.args[0].val)) {
aux.vars[node.args[0].val] = utd(aux.nextVarMem);
aux.nextVarMem += 32;
}
Node varNode = tkn(aux.vars[varname], m);
//std::cerr << varname << " " << printSimple(varNode) << "\n";
// Set variable
if (node.val == "set") {
programData sub = opcodeify(node.args[1], aux, vaux);
if (!sub.outs)
err("Value to set variable must have nonzero arity!", m);
// What if we are setting a stack variable?
if (vaux.dupvars.count(node.args[0].val)) {
int h = vaux.height - vaux.dupvars[node.args[0].val];
if (h > 16) err("Too deep for stack variable (max 16)", m);
Node nodelist[] = {
sub.code,
token("SWAP"+unsignedToDecimal(h), m),
token("POP", m)
};
return pd(sub.aux, multiToken(nodelist, 3, m), 0);
}
// Setting a memory variable
else {
Node nodelist[] = {
sub.code,
varNode,
token("MSTORE", m),
};
return pd(sub.aux, multiToken(nodelist, 3, m), 0);
}
}
// Get variable
else if (node.val == "get") {
// Getting a stack variable
if (vaux.dupvars.count(node.args[0].val)) {
int h = vaux.height - vaux.dupvars[node.args[0].val];
if (h > 16) err("Too deep for stack variable (max 16)", m);
return pd(aux, token("DUP"+unsignedToDecimal(h)), 1);
}
// Getting a memory variable
else {
Node nodelist[] =
{ varNode, token("MLOAD", m) };
return pd(aux, multiToken(nodelist, 2, m), 1);
}
}
// Refer variable
else if (node.val == "ref") {
if (vaux.dupvars.count(node.args[0].val))
err("Cannot ref stack variable!", m);
return pd(aux, varNode, 1);
}
}
// Comments do nothing
else if (node.val == "comment") {
return pd(aux, astnode("_", m), 0);
}
// Custom operation sequence
// eg. (ops bytez id msize swap1 msize add 0 swap1 mstore) == alloc
if (node.val == "ops") {
std::vector<Node> subs2;
int depth = 0;
for (unsigned i = 0; i < node.args.size(); i++) {
std::string op = upperCase(node.args[i].val);
if (node.args[i].type == ASTNODE || opinputs(op) == -1) {
programVerticalAux vaux2 = vaux;
vaux2.height = vaux.height - i - 1 + node.args.size();
programData sub = opcodeify(node.args[i], aux, vaux2);
aux = sub.aux;
depth += sub.outs;
subs2.push_back(sub.code);
}
else {
subs2.push_back(token(op, m));
depth += opoutputs(op) - opinputs(op);
}
}
if (depth < 0 || depth > 1) err("Stack depth mismatch", m);
return pd(aux, astnode("_", subs2, m), 0);
}
// Code blocks
if (node.val == "lll" && node.args.size() == 2) {
if (node.args[1].val != "0") aux.allocUsed = true;
std::vector<Node> o;
o.push_back(finalize(opcodeify(node.args[0])));
programData sub = opcodeify(node.args[1], aux, vaux);
Node code = astnode("____CODE", o, m);
Node nodelist[] = {
token("$begincode"+symb+".endcode"+symb, m), token("DUP1", m),
token("$begincode"+symb, m), sub.code, token("CODECOPY", m),
token("$endcode"+symb, m), token("JUMP", m),
token("~begincode"+symb, m), code,
token("~endcode"+symb, m), token("JUMPDEST", m)
};
return pd(sub.aux, multiToken(nodelist, 11, m), 1);
}
// Stack variables
if (node.val == "with") {
programData initial = opcodeify(node.args[1], aux, vaux);
programVerticalAux vaux2 = vaux;
vaux2.dupvars[node.args[0].val] = vaux.height;
vaux2.height += 1;
if (!initial.outs)
err("Initial variable value must have nonzero arity!", m);
programData sub = opcodeify(node.args[2], initial.aux, vaux2);
Node nodelist[] = {
initial.code,
sub.code
};
programData o = pd(sub.aux, multiToken(nodelist, 2, m), sub.outs);
if (sub.outs)
o.code.args.push_back(token("SWAP1", m));
o.code.args.push_back(token("POP", m));
return o;
}
// Seq of multiple statements
if (node.val == "seq") {
std::vector<Node> children;
int lastOut = 0;
for (unsigned i = 0; i < node.args.size(); i++) {
programData sub = opcodeify(node.args[i], aux, vaux);
aux = sub.aux;
if (sub.outs == 1) {
if (i < node.args.size() - 1) sub.code = popwrap(sub.code);
else lastOut = 1;
}
children.push_back(sub.code);
}
return pd(aux, astnode("_", children, m), lastOut);
}
// 2-part conditional (if gets rewritten to unless in rewrites)
else if (node.val == "unless" && node.args.size() == 2) {
programData cond = opcodeify(node.args[0], aux, vaux);
programData action = opcodeify(node.args[1], cond.aux, vaux);
aux = action.aux;
if (!cond.outs) err("Condition of if/unless statement has arity 0", m);
if (action.outs) action.code = popwrap(action.code);
Node nodelist[] = {
cond.code,
token("$endif"+symb, m), token("JUMPI", m),
action.code,
token("~endif"+symb, m), token("JUMPDEST", m)
};
return pd(aux, multiToken(nodelist, 6, m), 0);
}
// 3-part conditional
else if (node.val == "if" && node.args.size() == 3) {
programData ifd = opcodeify(node.args[0], aux, vaux);
programData thend = opcodeify(node.args[1], ifd.aux, vaux);
programData elsed = opcodeify(node.args[2], thend.aux, vaux);
aux = elsed.aux;
if (!ifd.outs)
err("Condition of if/unless statement has arity 0", m);
// Handle cases where one conditional outputs something
// and the other does not
int outs = (thend.outs && elsed.outs) ? 1 : 0;
if (thend.outs > outs) thend.code = popwrap(thend.code);
if (elsed.outs > outs) elsed.code = popwrap(elsed.code);
Node nodelist[] = {
ifd.code,
token("ISZERO", m),
token("$else"+symb, m), token("JUMPI", m),
thend.code,
token("$endif"+symb, m), token("JUMP", m),
token("~else"+symb, m), token("JUMPDEST", m),
elsed.code,
token("~endif"+symb, m), token("JUMPDEST", m)
};
return pd(aux, multiToken(nodelist, 12, m), outs);
}
// While (rewritten to this in rewrites)
else if (node.val == "until") {
programData cond = opcodeify(node.args[0], aux, vaux);
programData action = opcodeify(node.args[1], cond.aux, vaux);
aux = action.aux;
if (!cond.outs)
err("Condition of while/until loop has arity 0", m);
if (action.outs) action.code = popwrap(action.code);
Node nodelist[] = {
token("~beg"+symb, m), token("JUMPDEST", m),
cond.code,
token("$end"+symb, m), token("JUMPI", m),
action.code,
token("$beg"+symb, m), token("JUMP", m),
token("~end"+symb, m), token("JUMPDEST", m),
};
return pd(aux, multiToken(nodelist, 10, m));
}
// Memory allocations
else if (node.val == "alloc") {
programData bytez = opcodeify(node.args[0], aux, vaux);
aux = bytez.aux;
if (!bytez.outs)
err("Alloc input has arity 0", m);
aux.allocUsed = true;
Node nodelist[] = {
bytez.code,
token("MSIZE", m), token("SWAP1", m), token("MSIZE", m),
token("ADD", m),
token("0", m), token("SWAP1", m), token("MSTORE", m)
};
return pd(aux, multiToken(nodelist, 8, m), 1);
}
// All other functions/operators
else {
std::vector<Node> subs2;
int depth = opinputs(upperCase(node.val));
if (depth == -1)
err("Not a function or opcode: "+node.val, m);
if ((int)node.args.size() != depth)
err("Invalid arity for "+node.val, m);
for (int i = node.args.size() - 1; i >= 0; i--) {
programVerticalAux vaux2 = vaux;
vaux2.height = vaux.height - i - 1 + node.args.size();
programData sub = opcodeify(node.args[i], aux, vaux2);
aux = sub.aux;
if (!sub.outs)
err("Input "+unsignedToDecimal(i)+" has arity 0", sub.code.metadata);
subs2.push_back(sub.code);
}
subs2.push_back(token(upperCase(node.val), m));
int outdepth = opoutputs(upperCase(node.val));
return pd(aux, astnode("_", subs2, m), outdepth);
}
}
void dispTree (tleaf* tree, void (*pd)(void*))
{
if(tree->pl) dispTree(tree->pl,pd);
pd(tree->pData);
if(tree->pr) dispTree(tree->pr,pd);
}
int main(int argc, char const *argv[])
{
if (argc != 4)
{
std::cerr << "Usage: ./thlsh_test data_file lsh_file benchmark_file" << std::endl;
return -1;
}
std::cout << "Example of using Thresholding LSH" << std::endl << std::endl;
typedef float DATATYPE;
std::cout << "LOADING DATA ..." << std::endl;
lshbox::timer timer;
lshbox::Matrix<DATATYPE> data(argv[1]);
std::cout << "LOAD TIME: " << timer.elapsed() << "s." << std::endl;
std::cout << "CONSTRUCTING INDEX ..." << std::endl;
timer.restart();
std::string file(argv[2]);
bool use_index = false;
lshbox::thLsh<DATATYPE> mylsh;
if (use_index)
{
mylsh.load(file);
}
else
{
lshbox::thLsh<DATATYPE>::Parameter param;
param.M = 521;
param.L = 5;
param.D = data.getDim();
param.N = 12;
param.Max = std::numeric_limits<float>::max();
param.Min = - std::numeric_limits<float>::max();
for (unsigned i = 0; i != data.getSize(); ++i)
{
for (unsigned j = 0; j != data.getDim(); ++j)
{
if (data[i][j] > param.Max)
{
param.Max = data[i][j];
}
if (data[i][j] < param.Min)
{
param.Min = data[i][j];
}
}
}
mylsh.reset(param);
lshbox::progress_display pd(data.getSize());
for (unsigned i = 0; i != data.getSize(); ++i)
{
mylsh.insert(i, data[i]);
++pd;
}
}
mylsh.save(file);
std::cout << "CONSTRUCTING TIME: " << timer.elapsed() << "s." << std::endl;
std::cout << "LOADING BENCHMARK ..." << std::endl;
timer.restart();
lshbox::Matrix<DATATYPE>::Accessor accessor(data);
lshbox::Metric<DATATYPE> metric(data.getDim(), L1_DIST);
lshbox::Benchmark bench;
std::string benchmark(argv[3]);
bench.load(benchmark);
unsigned K = bench.getK();
lshbox::Scanner<lshbox::Matrix<DATATYPE>::Accessor> scanner(
accessor,
metric,
K
);
std::cout << "LOADING TIME: " << timer.elapsed() << "s." << std::endl;
std::cout << "RUNING QUERY ..." << std::endl;
timer.restart();
lshbox::Stat cost, recall, precision;
lshbox::progress_display pd(bench.getQ());
for (unsigned i = 0; i != bench.getQ(); ++i)
{
scanner.reset(data[bench.getQuery(i)]);
mylsh.query(data[bench.getQuery(i)], scanner);
scanner.topk().genTopk();
recall << bench.getAnswer(i).recall(scanner.topk());
recall << bench.getAnswer(i).precision(scanner.topk());
cost << float(scanner.cnt()) / float(data.getSize());
++pd;
}
std::cout << "MEAN QUERY TIME: " << timer.elapsed() / bench.getQ() << "s." << std::endl;
std::cout << "RECALL : " << recall.getAvg() << " +/- " << recall.getStd() << std::endl;
std::cout << "PRECISION: " << recall.getAvg() << " +/- " << recall.getStd() << std::endl;
std::cout << "COST : " << cost.getAvg() << " +/- " << cost.getStd() << std::endl;
// scanner.reset(data[0]);
// mylsh.query(data[0], scanner);
// scanner.topk().genTopk();
// std::vector<std::pair<float, unsigned> > res = scanner.topk().getTopk();
// for (std::vector<std::pair<float, unsigned> >::iterator it = res.begin(); it != res.end(); ++it)
// {
// std::cout << it->second << ": " << it->first << std::endl;
// }
// std::cout << "DISTANCE COMPARISON TIMES: " << scanner.cnt() << std::endl;
}
gcException IPCToolMain::installTool(gcRefPtr<UserCore::ToolInfo> info)
{
gcString exe(info->getExe());
gcString args(info->getArgs());
if (!UTIL::FS::isValidFile(exe.c_str()))
return gcException(ERR_INVALIDFILE);
if (exe.size() > 0 && args == "GAME_LIBRARY")
{
size_t pos = exe.find_last_of(".bz2");
if (pos == (exe.size()-1))
{
UTIL::FS::Path pd(exe.c_str(), "", true);
pd += UTIL::FS::File(info->getName());
gcString dest = pd.getFullPath();
uint64 size = UTIL::FS::getFileSize(exe.c_str());
try
{
UTIL::FS::FileHandle srcFh(exe.c_str(), UTIL::FS::FILE_READ);
UTIL::FS::FileHandle destFh(dest.c_str(), UTIL::FS::FILE_WRITE);
UTIL::MISC::BZ2Worker bz2(UTIL::MISC::BZ2_DECOMPRESS);
srcFh.read(size, [&bz2, &destFh](const unsigned char* buff, uint32 size) -> bool
{
UTIL::FS::FileHandle *pDest = &destFh;
bz2.write((const char*)buff, size, [&pDest](const unsigned char* buff, uint32 size) -> bool
{
pDest->write((const char*)buff, size);
return false;
});
return false;
});
}
catch (gcException &e)
{
return e;
}
info->overridePath(dest.c_str());
UTIL::FS::delFile(exe.c_str());
}
else
{
info->overridePath(exe.c_str());
}
}
else if (args.find("PRECHECK_") == 0)
{
info->setInstalled();
}
else
{
return gcException(ERR_TOOLINSTALL, gcString("Un-supported tool install [{0}]", info->getName()));
}
return gcException(ERR_COMPLETED);
}
/**
* get the list of share names defined in the configuration.
*/
static WERROR smbconf_txt_get_share_names(struct smbconf_ctx *ctx,
TALLOC_CTX *mem_ctx,
uint32_t *num_shares,
char ***share_names)
{
uint32_t count;
uint32_t added_count = 0;
TALLOC_CTX *tmp_ctx = NULL;
WERROR werr = WERR_OK;
char **tmp_share_names = NULL;
if ((num_shares == NULL) || (share_names == NULL)) {
werr = WERR_INVALID_PARAM;
goto done;
}
werr = smbconf_txt_load_file(ctx);
if (!W_ERROR_IS_OK(werr)) {
return werr;
}
tmp_ctx = talloc_stackframe();
/* make sure "global" is always listed first,
* possibly after NULL section */
if (smbconf_share_exists(ctx, NULL)) {
werr = smbconf_add_string_to_array(tmp_ctx, &tmp_share_names,
0, NULL);
if (!W_ERROR_IS_OK(werr)) {
goto done;
}
added_count++;
}
if (smbconf_share_exists(ctx, GLOBAL_NAME)) {
werr = smbconf_add_string_to_array(tmp_ctx, &tmp_share_names,
added_count, GLOBAL_NAME);
if (!W_ERROR_IS_OK(werr)) {
goto done;
}
added_count++;
}
for (count = 0; count < pd(ctx)->cache->num_shares; count++) {
if (strequal(pd(ctx)->cache->share_names[count], GLOBAL_NAME) ||
(pd(ctx)->cache->share_names[count] == NULL))
{
continue;
}
werr = smbconf_add_string_to_array(tmp_ctx, &tmp_share_names,
added_count,
pd(ctx)->cache->share_names[count]);
if (!W_ERROR_IS_OK(werr)) {
goto done;
}
added_count++;
}
*num_shares = added_count;
if (added_count > 0) {
*share_names = talloc_move(mem_ctx, &tmp_share_names);
} else {
*share_names = NULL;
}
done:
talloc_free(tmp_ctx);
return werr;
}
void slotChangedObject(const App::DocumentObject& Obj, const App::Property& Prop)
{
if (object == &Obj && Prop.getTypeId() == Part::PropertyGeometryList::getClassTypeId()) {
const Part::PropertyGeometryList& geom = static_cast<const Part::PropertyGeometryList&>(Prop);
const std::vector<Part::Geometry*>& items = geom.getValues();
if (items.size() != 2)
return;
Part::Geometry* g1 = items[0];
Part::Geometry* g2 = items[1];
if (!g1 || g1->getTypeId() != Part::GeomArcOfCircle::getClassTypeId())
return;
if (!g2 || g2->getTypeId() != Part::GeomLineSegment::getClassTypeId())
return;
Part::GeomArcOfCircle* arc = static_cast<Part::GeomArcOfCircle*>(g1);
Part::GeomLineSegment* seg = static_cast<Part::GeomLineSegment*>(g2);
try {
Base::Vector3d m1 = arc->getCenter();
//Base::Vector3d a3 = arc->getStartPoint();
Base::Vector3d a3 = arc->getEndPoint(true);
//Base::Vector3d l1 = seg->getStartPoint();
Base::Vector3d l2 = seg->getEndPoint();
#if 0
Py::Module pd("FilletArc");
Py::Callable method(pd.getAttr(std::string("makeFilletArc")));
Py::Callable vector(pd.getAttr(std::string("Vector")));
Py::Tuple xyz(3);
Py::Tuple args(6);
xyz.setItem(0, Py::Float(m1.x));
xyz.setItem(1, Py::Float(m1.y));
xyz.setItem(2, Py::Float(m1.z));
args.setItem(0,vector.apply(xyz));
xyz.setItem(0, Py::Float(a3.x));
xyz.setItem(1, Py::Float(a3.y));
xyz.setItem(2, Py::Float(a3.z));
args.setItem(1,vector.apply(xyz));
xyz.setItem(0, Py::Float(l2.x));
xyz.setItem(1, Py::Float(l2.y));
xyz.setItem(2, Py::Float(l2.z));
args.setItem(2,vector.apply(xyz));
xyz.setItem(0, Py::Float((float)0));
xyz.setItem(1, Py::Float((float)0));
xyz.setItem(2, Py::Float((float)1));
args.setItem(3,vector.apply(xyz));
args.setItem(4,Py::Float(radius));
args.setItem(5,Py::Int((int)0));
Py::Tuple ret(method.apply(args));
Py::Object S1(ret.getItem(0));
Py::Object S2(ret.getItem(1));
Py::Object M2(ret.getItem(2));
Base::Vector3d s1, s2, m2;
s1.x = (double)Py::Float(S1.getAttr("x"));
s1.y = (double)Py::Float(S1.getAttr("y"));
s1.z = (double)Py::Float(S1.getAttr("z"));
s2.x = (double)Py::Float(S2.getAttr("x"));
s2.y = (double)Py::Float(S2.getAttr("y"));
s2.z = (double)Py::Float(S2.getAttr("z"));
m2.x = (double)Py::Float(M2.getAttr("x"));
m2.y = (double)Py::Float(M2.getAttr("y"));
m2.z = (double)Py::Float(M2.getAttr("z"));
coords->point.set1Value(0, (float)s1.x,(float)s1.y,(float)s1.z);
coords->point.set1Value(1, (float)m2.x,(float)m2.y,(float)m2.z);
coords->point.set1Value(2, (float)s2.x,(float)s2.y,(float)s2.z);
Base::Console().Message("M1=<%.4f,%.4f>\n", m1.x,m1.y);
Base::Console().Message("M2=<%.4f,%.4f>\n", m2.x,m2.y);
Base::Console().Message("S1=<%.4f,%.4f>\n", s1.x,s1.y);
Base::Console().Message("S2=<%.4f,%.4f>\n", s2.x,s2.y);
Base::Console().Message("P=<%.4f,%.4f>\n", a3.x,a3.y);
Base::Console().Message("Q=<%.4f,%.4f>\n", l2.x,l2.y);
Base::Console().Message("\n");
#else
Py::Module pd("PartDesign");
Py::Callable method(pd.getAttr(std::string("makeFilletArc")));
Py::Tuple args(6);
args.setItem(0,Py::Vector(m1));
args.setItem(1,Py::Vector(a3));
args.setItem(2,Py::Vector(l2));
args.setItem(3,Py::Vector(Base::Vector3d(0,0,1)));
args.setItem(4,Py::Float(radius));
//args.setItem(5,Py::Int((int)0));
args.setItem(5,Py::Int((int)1));
Py::Tuple ret(method.apply(args));
Py::Vector S1(ret.getItem(0));
Py::Vector S2(ret.getItem(1));
Py::Vector M2(ret.getItem(2));
Base::Vector3d s1 = S1.toVector();
Base::Vector3d s2 = S2.toVector();
Base::Vector3d m2 = M2.toVector();
coords->point.set1Value(0, (float)s1.x,(float)s1.y,(float)s1.z);
coords->point.set1Value(1, (float)m2.x,(float)m2.y,(float)m2.z);
coords->point.set1Value(2, (float)s2.x,(float)s2.y,(float)s2.z);
Base::Console().Message("M1=<%.4f,%.4f>\n", m1.x,m1.y);
Base::Console().Message("M2=<%.4f,%.4f>\n", m2.x,m2.y);
Base::Console().Message("S1=<%.4f,%.4f>\n", s1.x,s1.y);
Base::Console().Message("S2=<%.4f,%.4f>\n", s2.x,s2.y);
Base::Console().Message("P=<%.4f,%.4f>\n", a3.x,a3.y);
Base::Console().Message("Q=<%.4f,%.4f>\n", l2.x,l2.y);
Base::Console().Message("\n");
#endif
}
catch (Py::Exception&) {
Base::PyException e; // extract the Python error text
Base::Console().Error("%s\n", e.what());
}
}
}
/**
* get a definition of a share (service) from configuration.
*/
static WERROR smbconf_txt_get_share(struct smbconf_ctx *ctx,
TALLOC_CTX *mem_ctx,
const char *servicename,
struct smbconf_service **service)
{
WERROR werr;
uint32_t sidx, count;
bool found;
TALLOC_CTX *tmp_ctx = NULL;
struct smbconf_service *tmp_service = NULL;
werr = smbconf_txt_load_file(ctx);
if (!W_ERROR_IS_OK(werr)) {
return werr;
}
found = smbconf_find_in_array(servicename,
pd(ctx)->cache->share_names,
pd(ctx)->cache->num_shares,
&sidx);
if (!found) {
return WERR_NO_SUCH_SERVICE;
}
tmp_ctx = talloc_stackframe();
tmp_service = TALLOC_ZERO_P(tmp_ctx, struct smbconf_service);
if (tmp_service == NULL) {
werr = WERR_NOMEM;
goto done;
}
if (servicename != NULL) {
tmp_service->name = talloc_strdup(tmp_service, servicename);
if (tmp_service->name == NULL) {
werr = WERR_NOMEM;
goto done;
}
}
for (count = 0; count < pd(ctx)->cache->num_params[sidx]; count++) {
werr = smbconf_add_string_to_array(tmp_service,
&(tmp_service->param_names),
count,
pd(ctx)->cache->param_names[sidx][count]);
if (!W_ERROR_IS_OK(werr)) {
goto done;
}
werr = smbconf_add_string_to_array(tmp_service,
&(tmp_service->param_values),
count,
pd(ctx)->cache->param_values[sidx][count]);
if (!W_ERROR_IS_OK(werr)) {
goto done;
}
}
tmp_service->num_params = count;
if (count > 0) {
*service = talloc_move(mem_ctx, &tmp_service);
} else {
*service = NULL;
}
done:
talloc_free(tmp_ctx);
return werr;
}
void packControlMessageForSending( ControlInfoWrapper& cinfo,
minissf::CompactDataType* mesg )
{
PackedData pd(mesg);
cinfo.pack( pd );
}
int _lzo1c_do_compress ( const lzo_bytep in, lzo_uint in_len,
lzo_bytep out, lzo_uintp out_len,
lzo_voidp wrkmem,
lzo_compress_t func )
{
int r;
#if defined(LZO_TEST_COMPRESS_OVERRUN)
lzo_uint avail_out = *out_len;
#endif
#if defined(LZO_COLLECT_STATS)
_lzo1c_stats_init(lzo_stats);
lzo_stats->in_len = in_len;
#endif
/* don't try to compress a block that's too short */
if (in_len <= 0)
{
*out_len = 0;
r = LZO_E_OK;
}
else if (in_len <= MIN_LOOKAHEAD + 1)
{
#if defined(LZO_RETURN_IF_NOT_COMPRESSIBLE)
*out_len = 0;
r = LZO_E_NOT_COMPRESSIBLE;
#else
*out_len = pd(STORE_RUN(out,in,in_len), out);
r = (*out_len > in_len) ? LZO_E_OK : LZO_E_ERROR;
#endif
}
else
r = func(in,in_len,out,out_len,wrkmem);
#if defined(LZO_EOF_CODE)
#if defined(LZO_TEST_COMPRESS_OVERRUN)
if (r == LZO_E_OK && avail_out - *out_len < 3)
r = LZO_E_COMPRESS_OVERRUN;
#endif
if (r == LZO_E_OK)
{
lzo_bytep op = out + *out_len;
*op++ = M3_MARKER | 1;
*op++ = 0;
*op++ = 0;
*out_len += 3;
}
#endif
#if defined(LZO_COLLECT_STATS)
lzo_stats->out_len = *out_len;
lzo_stats->match_bytes =
1 * lzo_stats->m1_matches + 2 * lzo_stats->m2_matches +
3 * lzo_stats->m3_matches + 4 * lzo_stats->m4_matches;
_lzo1c_stats_calc(lzo_stats);
#endif
return r;
}
// ---------------------------------------------------------
// TDdParser::SetMediaObjAttrL()
// ---------------------------------------------------------
//
void TDdParser::SetMediaObjAttrL( TDdAttr aAttr, const TDesC& aValue, CMediaObjectData *& aMediaObject )
{
TInt ok( ETrue );
switch( aAttr )
{
case EDdSize:
{
if ( !aMediaObject->Size() )
{
// Parse as TUint - negative not allowed.
TUint size;
TLex lex( aValue );
if ( !lex.Val( size ) )
{
aMediaObject->SetSize( size );
}
else
{
ok = EFalse;
}
}
break;
}
case EDdType:
{
ok = aMediaObject->AddTypeL( aValue );
break;
}
case EDdProgressiveDl:
{
TBool pd( EFalse );
if ( !aValue.CompareF( KDdTrue ) )
{
pd = ETrue;
}
else if ( aValue.CompareF( KDdFalse ) )
{
// Expected 'true' or 'false'
Error( KErrCodInvalidDescriptor );
break;
}
aMediaObject->SetProgressiveDownload( pd );
break;
}
case EDdSuppressUserConfirmation:
{
TInt confirm = CCodData::ENever;
if ( !aValue.CompareF(KDdNever) )
{
confirm = CCodData::ENever;
}
else if ( aValue.CompareF(KDdUserConfirmStepOnly) )
{
confirm = CCodData::EUserConfirmStepOnly;
}
else if ( aValue.CompareF(KDdAlways) )
{
confirm = CCodData::EAlways;
}
else
{
Error( KErrCodInvalidDescriptor );
}
iData->SetSuppressConfirm( confirm );
break;
}
case EDdUpdatedDDURI:
{
if(!iData->UpdatedDDUriL().Length())
{
iData->SetUpdatedDDURI( aValue );
}
break;
}
default:
{
// Unexpected value.
CodPanic( ECodInternal );
}
}
if ( !ok )
{
Error( KErrCodInvalidDescriptor );
}
}
bool Player::prepare()
{
//Init Gst
//
QString caps_value = "audio/x-raw-int";
// On mac we bundle the gstreamer plugins with knowthelist
#if defined(Q_OS_DARWIN)
QString scanner_path;
QString plugin_path;
QString registry_filename;
caps_value = "audio/x-raw-float";
QDir pd(QCoreApplication::applicationDirPath() + "/../plugins");
scanner_path = QCoreApplication::applicationDirPath() + "/../plugins/gst-plugin-scanner";
plugin_path = QCoreApplication::applicationDirPath() + "/../plugins/gstreamer";
registry_filename = QDesktopServices::storageLocation(QDesktopServices::DataLocation) +
QString("/gst-registry-%1-bin").arg(QCoreApplication::applicationVersion());
if ( pd.exists())
setenv("GST_PLUGIN_SCANNER", scanner_path.toLocal8Bit().constData(), 1);
if ( pd.exists()) {
setenv("GST_PLUGIN_PATH", plugin_path.toLocal8Bit().constData(), 1);
// Never load plugins from anywhere else.
setenv("GST_PLUGIN_SYSTEM_PATH", plugin_path.toLocal8Bit().constData(), 1);
}
if (!registry_filename.isEmpty()) {
setenv("GST_REGISTRY", registry_filename.toLocal8Bit().constData(), 1);
}
#endif
gst_init (0, 0);
//prepare
GstElement *dec, *conv,*resample,*sink, *gain, *audio, *vol, *level, *equalizer;
GstElement *levelout;
GstPad *audiopad;
GstCaps *caps;
pipeline = gst_pipeline_new ("pipeline");
bus = gst_pipeline_get_bus (GST_PIPELINE (pipeline));
caps = gst_caps_new_simple (caps_value.toLatin1().data(),
"channels", G_TYPE_INT, 2, NULL);
dec = gst_element_factory_make ("decodebin2", "decoder");
g_signal_connect (dec, "new-decoded-pad", G_CALLBACK (cb_newpad), this);
gst_bin_add (GST_BIN (pipeline), dec);
audio = gst_bin_new ("audiobin");
conv = gst_element_factory_make ("audioconvert", "aconv");
resample = gst_element_factory_make ("audioresample", "resample");
audiopad = gst_element_get_static_pad (conv, "sink");
gain = gst_element_factory_make ("audioamplify", "gain");
level = gst_element_factory_make ("level", "levelintern");
vol = gst_element_factory_make ("volume", "volume");
levelout = gst_element_factory_make ("level", "levelout");
equalizer = gst_element_factory_make ("equalizer-3bands", "equalizer");
sink = gst_element_factory_make ("autoaudiosink", "sink");
g_object_set (level, "message", TRUE, NULL);
g_object_set (levelout, "message", TRUE, NULL);
g_object_set (level, "peak-ttl", 300000000000, NULL);
gst_bin_add_many (GST_BIN (audio), conv, resample, level, gain, equalizer, levelout, vol, sink, NULL);
gst_element_link (conv,resample);
gst_element_link_filtered (resample, level, caps);
gst_element_link (level, gain);
gst_element_link (gain, equalizer);
gst_element_link (equalizer, vol);
gst_element_link_filtered (vol, levelout, caps);
gst_element_link (levelout,sink);
gst_element_add_pad (audio, gst_ghost_pad_new ("sink", audiopad));
gst_bin_add (GST_BIN (pipeline), audio);
GstElement *l_src;
l_src = gst_element_factory_make ("filesrc", "localsrc");
gst_bin_add_many (GST_BIN (pipeline), l_src, NULL);
gst_element_set_state (l_src, GST_STATE_NULL);
gst_element_link ( l_src,dec);
gst_bus_set_sync_handler (bus, bus_cb, this);
gst_object_unref (audiopad);
return pipeline;
}
void QWidget::scroll( int dx, int dy, const QRect& r )
{
if ( testWState( WState_BlockUpdates ) && !children() )
return;
bool valid_rect = r.isValid();
QRect sr = valid_rect?r:rect();
int x1, y1, x2, y2, w=sr.width(), h=sr.height();
if ( dx > 0 ) {
x1 = sr.x();
x2 = x1+dx;
w -= dx;
} else {
x2 = sr.x();
x1 = x2-dx;
w += dx;
}
if ( dy > 0 ) {
y1 = sr.y();
y2 = y1+dy;
h -= dy;
} else {
y2 = sr.y();
y1 = y2-dy;
h += dy;
}
if ( dx == 0 && dy == 0 )
return;
QSize s( qt_screen->width(), qt_screen->height() );
QRegion alloc = valid_rect ? paintableRegion() : allocatedRegion();
QRegion dAlloc = alloc;
QPoint td1 = qt_screen->mapToDevice( QPoint(0,0), s );
QPoint td2 = qt_screen->mapToDevice( QPoint(dx,dy), s );
dAlloc.translate( td2.x()-td1.x(), td2.y()-td1.y() );
QRegion scrollRegion( alloc & dAlloc );
if ( w > 0 && h > 0 ) {
QGfx * mygfx=graphicsContext( FALSE );
mygfx->setClipDeviceRegion( scrollRegion );
mygfx->scroll(x2,y2,w,h,x1,y1);
delete mygfx;
}
paintable_region_dirty = TRUE;
QPoint gpos = mapToGlobal( QPoint() );
if ( !valid_rect && children() ) { // scroll children
setChildrenAllocatedDirty();
QPoint pd( dx, dy );
QObjectListIt it(*children());
register QObject *object;
while ( it ) { // move all children
object = it.current();
if ( object->isWidgetType() ) {
QWidget *w = (QWidget *)object;
QPoint oldp = w->pos();
QRect r( w->pos() + pd, w->size() );
w->crect = r;
w->updateRequestedRegion( gpos + w->pos() );
QMoveEvent e( r.topLeft(), oldp );
QApplication::sendEvent( w, &e );
}
++it;
}
}
QSize ds( qt_screen->deviceWidth(), qt_screen->deviceHeight() );
scrollRegion = qt_screen->mapFromDevice( scrollRegion, ds );
scrollRegion.translate( -gpos.x(), -gpos.y() );
QRegion update( sr );
update -= scrollRegion;
if ( dx ) {
int x = x2 == sr.x() ? sr.x()+w : sr.x();
update |= QRect( x, sr.y(), QABS(dx), sr.height() );
}
if ( dy ) {
int y = y2 == sr.y() ? sr.y()+h : sr.y();
update |= QRect( sr.x(), y, sr.width(), QABS(dy) );
}
repaint( update, !testWFlags(WRepaintNoErase) );
if ( !valid_rect && children() )
paint_children( this, update, FALSE );
}
bool UserPropertiesHandler::handleURI(URI& uri)
{
bool addUser = uri.action == "add_user";
bool editUser = uri.action == "edit_user";
if (!addUser && !editUser)
return false;
wxWindow* w = getParentWindow(uri);
ServerPtr server;
UserPtr user;
wxString title(_("Modify User"));
if (addUser)
{
server = extractMetadataItemPtrFromURI<Server>(uri);
if (!server)
return true;
title = _("Create New User");
user.reset(new User(server));
}
else
{
user = extractMetadataItemPtrFromURI<User>(uri);
if (!user)
return true;
#ifdef __WXGTK__
if (user->getUsername() == "SYSDBA")
{
showWarningDialog(w, _("The password for the SYSDBA user should not be changed here."),
_("The appropriate way to change the password of the SYSDBA user is to run the changeDBAPassword.sh script in Firebird's bin directory.\n\nOtherwise the scripts will not be updated."),
AdvancedMessageDialogButtonsOk(), config(), "DIALOG_warn_sysdba_change",
_("Do not show this information again"));
}
#endif
server = user->getServer();
if (!server)
return true;
}
UserDialog d(w, title, addUser);
d.setUser(user);
if (d.ShowModal() == wxID_OK)
{
ProgressDialog pd(w, _("Connecting to Server..."), 1);
pd.doShow();
IBPP::Service svc;
if (!getService(server.get(), svc, &pd, true)) // true = need SYSDBA password
return true;
try
{
IBPP::User u;
user->assignTo(u);
if (addUser)
svc->AddUser(u);
else
svc->ModifyUser(u);
server->notifyObservers();
}
catch(IBPP::Exception& e)
{
wxMessageBox(e.what(), _("Error"),
wxOK | wxICON_WARNING);
}
}
return true;
}
dtype compute_graph(int num_parts_y,int num_parts_x,int num_pairs,int *pairs,int num_lab_y,int num_lab_x,Real *data,Real *dist,Real *wcosts,
int numhyp,Real* lscr,int *reslab,int aiter,int restart)
{
double lowerBound;
float t,tot_t;
int iter;
int seed = 1124285485;
srand(seed);
dtype scr;
int st_parts_x=num_parts_x;
int st_parts_y=num_parts_y;
int st_num_lab_x=num_lab_x;
int st_num_lab_y=num_lab_y;
int st_numlab=num_lab_y*num_lab_x;//num_parts_x*num_parts_y;//num_labels;
//copy data because it is internally modified
std::vector<dtype> copy_data_vec(data, data + num_parts_x * num_parts_y * num_lab_x * num_lab_y);
dtype* copy_data = copy_data_vec.data();
// dtype* copy_data=(dtype*)malloc(num_parts_x*num_parts_y*num_lab_x*num_lab_y*sizeof(dtype));
// for (int i=0;i<num_parts_x*num_parts_y*num_lab_x*num_lab_y;i++)
// copy_data[i]=data[i];
clock_t t0,t1;
t0 = clock ();
int l1,l2;
CV_Fast_PD pd( num_parts_x*num_parts_y, num_lab_x*num_lab_y, num_lab_x, copy_data,
num_pairs, pairs, dist, aiter,
wcosts );
//CV_Fast_PD pd( _numpoints, _numlabels, _lcosts,
// _numpairs, _pairs, _dist, _max_iters,
// _wcosts );
//printf("Parts %d,%d Labels %d\n",num_parts_x,num_parts_y,num_lab_x*num_lab_y);
pd.run();
for( int i = 0; i < num_parts_x*num_parts_y; i++ )
{
//printf("Lab%d:%d ",i,pd._pinfo[i].label);
reslab[i]= pd._pinfo[i].label;
}
Real bestE=pd.score();
lscr[0]=-bestE;
/*for (iter=0; iter<numhyp; iter++)
{
bestE=10000;
for (int idrestart=restart; idrestart>=0;idrestart--)
{
if (restart==0)
mrf->optimize(aiter, t);
else
{
//mrf->initialize();
((Expansion*)mrf)->clearAnswer();
mrf->optimize(aiter,t);
}
//printf("After C\n");
E = mrf->totalEnergy();
//printf("After(%d,%d)",num_lab_y,num_lab_x);
if (restart>0 && E>bestE)
{
//printf("Higher energy it=%d rest=%d energy=%f\n",iter,idrestart,E);
continue;
}
//printf("Lower energy it=%d rest=%d energy=%f\n",iter,idrestart,E);
bestE=E;
//lowerBound = mrf->lowerBound();
tot_t = tot_t + t ;
for ( int i = 0; i < num_parts_y*num_parts_x; i++ )
{
reslab[iter*num_parts_y*num_parts_x+i] = mrf->getLabel(i);//gc->whatLabel(i);
}
}
*lscr=-bestE;
lscr++;
//t0 = clock ();
for ( int i = 0; i < num_parts_y*num_parts_x; i++ )
{
int aux=reslab[iter*num_parts_y*num_parts_x+i];
//reslab[iter*num_parts_y*num_parts_x+i] = aux;//gc->whatLabel(i);
//data[i*st_numlab+aux]=1;//delete solution
for (int rx=-1;rx<2;rx++)
{
for (int ry=-1;ry<2;ry++)
{
int pp=aux+rx+ry*st_num_lab_x;
pp=maxi(pp,0);
pp=mini(pp,st_numlab-1);
data[pp+i*st_numlab]=10;//delete solution
}
}
//printf("%d ",reslab[i]);
}
//printf("Done\n",num_lab_y,num_lab_x);
//t1 = clock ();
//printf("t0=%d t1=%d Diff %f \n",t0,t1,float(t1-t0)/CLOCKS_PER_SEC);
//trees=((Expansion*)mrf)->getEnergies();
//sol=((Expansion*)mrf)->getSolutions();
}
delete mrf;*/
t1 = clock ();
//printf("t0=%d t1=%d Diff %f \n",t0,t1,float(t1-t0)/CLOCKS_PER_SEC);
return -bestE;
}
bool PrintFile(const WCHAR *fileName, WCHAR *printerName, bool displayErrors, const WCHAR *settings)
{
bool ok = false;
if (!HasPermission(Perm_PrinterAccess))
return false;
ScopedMem<WCHAR> fileName2(path::Normalize(fileName));
BaseEngine *engine = EngineManager::CreateEngine(fileName2, true /* prefer Chm2Engine */);
#ifndef DISABLE_DOCUMENT_RESTRICTIONS
if (engine && !engine->AllowsPrinting()) {
delete engine;
engine = NULL;
}
#endif
if (!engine) {
if (displayErrors)
MessageBoxWarning(NULL, _TR("Cannot print this file"), _TR("Printing problem."));
return false;
}
HANDLE printer;
BOOL res = OpenPrinter(printerName, &printer, NULL);
if (0 == res) {
if (displayErrors)
MessageBoxWarning(NULL, _TR("Printer with given name doesn't exist"), _TR("Printing problem."));
return false;
}
LPDEVMODE devMode = NULL;
// get printer driver information
DWORD needed = 0;
GetPrinter(printer, 2, NULL, 0, &needed);
ScopedMem<PRINTER_INFO_2> infoData((PRINTER_INFO_2 *)AllocArray<BYTE>(needed));
if (infoData)
res = GetPrinter(printer, 2, (LPBYTE)infoData.Get(), needed, &needed);
if ((0 == res) || !infoData || needed <= sizeof(PRINTER_INFO_2))
goto Exit;
LONG structSize = DocumentProperties(NULL,
printer,
printerName,
NULL, /* Asking for size, so */
NULL, /* not used. */
0); /* Zero returns buffer size. */
if (structSize < sizeof(DEVMODE)) {
// If failure, inform the user, cleanup and return failure.
if (displayErrors)
MessageBoxWarning(NULL, _TR("Could not obtain Printer properties"), _TR("Printing problem."));
goto Exit;
}
devMode = (LPDEVMODE)malloc(structSize);
if (!devMode)
goto Exit;
// Get the default DevMode for the printer and modify it for your needs.
LONG returnCode = DocumentProperties(NULL,
printer,
printerName,
devMode, /* The address of the buffer to fill. */
NULL, /* Not using the input buffer. */
DM_OUT_BUFFER); /* Have the output buffer filled. */
if (IDOK != returnCode) {
// If failure, inform the user, cleanup and return failure.
if (displayErrors)
MessageBoxWarning(NULL, _TR("Could not obtain Printer properties"), _TR("Printing problem."));
goto Exit;
}
ClosePrinter(printer);
printer = NULL;
{
Print_Advanced_Data advanced;
Vec<PRINTPAGERANGE> ranges;
ApplyPrintSettings(settings, engine->PageCount(), ranges, advanced, devMode);
PrintData pd(engine, infoData, devMode, ranges, advanced);
ok = PrintToDevice(pd);
if (!ok && displayErrors)
MessageBoxWarning(NULL, _TR("Couldn't initialize printer"), _TR("Printing problem."));
}
Exit:
free(devMode);
if (printer)
ClosePrinter(printer);
delete engine;
return ok;
}
bool SkKTXFile::readKTXFile(const uint8_t* data, size_t dataLen) {
const uint8_t *buf = data;
size_t bytesLeft = dataLen;
// Make sure original KTX header is there... this should have been checked
// already by a call to is_ktx()
SkASSERT(bytesLeft > KTX_FILE_IDENTIFIER_SIZE);
SkASSERT(0 == memcmp(KTX_FILE_IDENTIFIER, buf, KTX_FILE_IDENTIFIER_SIZE));
buf += KTX_FILE_IDENTIFIER_SIZE;
bytesLeft -= KTX_FILE_IDENTIFIER_SIZE;
// Read header, but first make sure that we have the proper space: we need
// two 32-bit ints: 1 for endianness, and another for the mandatory image
// size after the header.
if (bytesLeft < 8 + sizeof(Header)) {
return false;
}
uint32_t endianness = this->readInt(&buf, &bytesLeft);
fSwapBytes = kKTX_ENDIANNESS_CODE != endianness;
// Read header values
fHeader.fGLType = this->readInt(&buf, &bytesLeft);
fHeader.fGLTypeSize = this->readInt(&buf, &bytesLeft);
fHeader.fGLFormat = this->readInt(&buf, &bytesLeft);
fHeader.fGLInternalFormat = this->readInt(&buf, &bytesLeft);
fHeader.fGLBaseInternalFormat = this->readInt(&buf, &bytesLeft);
fHeader.fPixelWidth = this->readInt(&buf, &bytesLeft);
fHeader.fPixelHeight = this->readInt(&buf, &bytesLeft);
fHeader.fPixelDepth = this->readInt(&buf, &bytesLeft);
fHeader.fNumberOfArrayElements = this->readInt(&buf, &bytesLeft);
fHeader.fNumberOfFaces = this->readInt(&buf, &bytesLeft);
fHeader.fNumberOfMipmapLevels = this->readInt(&buf, &bytesLeft);
fHeader.fBytesOfKeyValueData = this->readInt(&buf, &bytesLeft);
// Check for things that we understand...
{
// First, we only support compressed formats and single byte
// representations at the moment. If the internal format is
// compressed, the the GLType field in the header must be zero.
// In the future, we may support additional data types (such
// as GL_UNSIGNED_SHORT_5_6_5)
if (fHeader.fGLType != 0 && fHeader.fGLType != GR_GL_UNSIGNED_BYTE) {
return false;
}
// This means that for well-formatted KTX files, the glTypeSize
// field must be one...
if (fHeader.fGLTypeSize != 1) {
return false;
}
// We don't support 3D textures.
if (fHeader.fPixelDepth > 1) {
return false;
}
// We don't support texture arrays
if (fHeader.fNumberOfArrayElements > 1) {
return false;
}
// We don't support cube maps
if (fHeader.fNumberOfFaces > 1) {
return false;
}
// We don't support width and/or height <= 0
if (fHeader.fPixelWidth <= 0 || fHeader.fPixelHeight <= 0) {
return false;
}
}
// Make sure that we have enough bytes left for the key/value
// data according to what was said in the header.
if (bytesLeft < fHeader.fBytesOfKeyValueData) {
return false;
}
// Next read the key value pairs
size_t keyValueBytesRead = 0;
while (keyValueBytesRead < fHeader.fBytesOfKeyValueData) {
uint32_t keyValueBytes = this->readInt(&buf, &bytesLeft);
keyValueBytesRead += 4;
if (keyValueBytes > bytesLeft) {
return false;
}
KeyValue kv(keyValueBytes);
if (!kv.readKeyAndValue(buf)) {
return false;
}
fKeyValuePairs.push_back(kv);
uint32_t keyValueBytesPadded = (keyValueBytes + 3) & ~3;
buf += keyValueBytesPadded;
keyValueBytesRead += keyValueBytesPadded;
bytesLeft -= keyValueBytesPadded;
}
// Read the pixel data...
int mipmaps = SkMax32(fHeader.fNumberOfMipmapLevels, 1);
SkASSERT(mipmaps == 1);
int arrayElements = SkMax32(fHeader.fNumberOfArrayElements, 1);
SkASSERT(arrayElements == 1);
int faces = SkMax32(fHeader.fNumberOfFaces, 1);
SkASSERT(faces == 1);
int depth = SkMax32(fHeader.fPixelDepth, 1);
SkASSERT(depth == 1);
for (int mipmap = 0; mipmap < mipmaps; ++mipmap) {
// Make sure that we have at least 4 more bytes for the first image size
if (bytesLeft < 4) {
return false;
}
uint32_t imgSize = this->readInt(&buf, &bytesLeft);
// Truncated file.
if (bytesLeft < imgSize) {
return false;
}
// !FIXME! If support is ever added for cube maps then the padding
// needs to be taken into account here.
for (int arrayElement = 0; arrayElement < arrayElements; ++arrayElement) {
for (int face = 0; face < faces; ++face) {
for (int z = 0; z < depth; ++z) {
PixelData pd(buf, imgSize);
fPixelData.append(1, &pd);
}
}
}
uint32_t imgSizePadded = (imgSize + 3) & ~3;
buf += imgSizePadded;
bytesLeft -= imgSizePadded;
}
return bytesLeft == 0;
}
void register_callback(const typename callback_t<T>::msg_callback_type &handler)
{
std::shared_ptr<callback_base_t> pd(new callback_t<T>(handler));
callbacks_.insert(T::descriptor(), pd);
}
// Implementation of encoding/decoding with length argument that is not provided with normal Decoder/Encoder calls
void kafka_proto_io_impl(PacketCodec& p, MessageSet& ms, int32_t encoded_length)
{
if (p.is_writer()) {
if (ms.compression_ == COMP_None) {
for (auto& message : ms.messages_) {
// Encode offset
p.io(message.offset);
// Add encoded message length field
auto len_field = p.start_length();
// Encode message
p.io(message);
// Update length field
p.end_length(len_field);
}
} else {
// First we need to encode into an uncompressed messages set in a temp buffer
PacketEncoder pe(ms.encoded_size_);
// Store the actual compression requested and make a recursive call with no compression set
auto actual_compression = ms.compression_;
ms.compression_ = COMP_None;
pe.io(ms);
if (!pe.ok()) {
p.set_err(pe.err())
<< "Failed to encoded message set before compression: "
<< pe.err_str();
return;
}
// Reset compression to avoid confusion
ms.compression_ = actual_compression;
// Now encode a regular message with that value.
// Note that for now this means a whole extra copy since we need to assign the encoded buffer to a string
// Maybe if we ever need to optimise this we can find a cleaner way to allow non-copy references in message value
// without making them much harder to work with in general.
MessageSet::Message m{slice(), pe.get_as_slice(false), 0, actual_compression};
// Now we can encode the message set with single compressed message into the output buffer
// Encode null offset
static int64_t zero = 0;
p.io(zero);
// Add encoded message length field
auto len_field = p.start_length();
// Encode message
p.io(m);
// Update length field
p.end_length(len_field);
}
} else {
// No length prefix for messages and we might have partial one at end of buffer legitimately
// Keep reading until we have them all (or hit error)...
// In some cases a MessageSet might be embedded inside a larger structure with a length prefix before it
// in this case we need to stop reading once we have consumed the length the prefix gave otherwise we might
// read past the end and into non MessageSet bytes that follow.
// Decoder provides access to the last length prefix passed for this purpose, although it is not always present
// so only use it if it is
auto start_offset = p.get_cursor();
while (p.ok() && (encoded_length == -1 || (p.get_cursor() - start_offset) < static_cast<size_t>(encoded_length))) {
MessageSet::Message m;
p.io(m.offset);
auto len_field = p.start_length();
p.io(m);
p.end_length(len_field);
if (p.ok()) {
if (m.compression_ == COMP_None) {
// This doesn't
ms.push(std::move(m));
} else {
// Message decoder already should have detected compression and decompressed the message's value
// we just need to decode that as a nested message set and append messages to this message set...
// We rely on the decompressed buffer being the last one decompressed and so it is on the end of the
// Decoder's list. We get it and use directly which both saves copy overhead but more importantly
// means the messages we decode will have their key/value slices pointing into a valid buffer once
// this PacketDecoder is destructed below.
auto decoder = reinterpret_cast<PacketDecoder *>(&p);
PacketDecoder pd(decoder->get_last_decompress_buffer());
// Decode messages directly into the message set here - new ones will be appended.
pd.io(ms);
}
}
}
// Not having enough bytes to read more is a normal termination condition for reads regardless of if we had
// partial message at end off buffer or not. In both cases it's expected case and so should not be left as
// an error state. Any other error should be left though.
if (p.err() == PacketCodec::ERR_TRUNCATED) {
p.set_err(PacketCodec::ERR_NONE);
}
}
}
void SurfaceItem::render(const Map &map, const Camera &camera)
{
int zone = map.zone(vertices().at(0));
GLuint tex = textureId();
if (zone < 0)
return;
m_program->bind();
m_program->setUniformValue(m_matrixUniform, camera.viewProjectionMatrix());
QSize size = surface()->size();
m_program->setUniformValue(m_pixelSizeUniform, 5. / size.width(), 5. / size.height());
m_program->setUniformValue(m_eyeUniform, camera.viewPos());
m_program->setUniformValue(m_focusColorUniform, GLfloat(m_opacity));
m_program->setUniformValueArray(m_lightsUniform, map.lights(zone).constData(), map.lights(zone).size());
m_program->setUniformValue(m_numLightsUniform, map.lights(zone).size());
glActiveTexture(GL_TEXTURE0);
glBindTexture(GL_TEXTURE_2D, tex);
QVector<QVector3D> v = vertices();
QVector3D va = v[0];
QVector3D vb = v[1];
QVector3D vc = v[2];
QVector3D vd = v[3];
QVector<QVector3D> vertexBuffer;
vertexBuffer << va << vb << vd << vd << vb << vc;
qreal y1 = 0;
qreal y2 = 1;
if (surface()->origin() == QWaylandSurface::OriginTopLeft)
qSwap(y1, y2);
QVector<QVector2D> texCoordBuffer;
texCoordBuffer << QVector2D(0, y2) << QVector2D(1, y2)
<< QVector2D(0, y1) << QVector2D(0, y1)
<< QVector2D(1, y2) << QVector2D(1, y1);
m_program->setUniformValue(m_normalUniform, -QVector3D::crossProduct(vb - va, vc - va).normalized());
m_program->enableAttributeArray(m_vertexAttr);
m_program->setAttributeArray(m_vertexAttr, vertexBuffer.constData());
m_program->enableAttributeArray(m_texCoordAttr);
m_program->setAttributeArray(m_texCoordAttr, texCoordBuffer.constData());
glEnable(GL_BLEND);
glDisable(GL_CULL_FACE);
glBlendFunc(GL_ONE, GL_ONE_MINUS_SRC_ALPHA);
glDrawArrays(GL_TRIANGLES, 0, 6);
glDisable(GL_BLEND);
m_program->disableAttributeArray(m_texCoordAttr);
m_program->disableAttributeArray(m_vertexAttr);
#if 0
QOpenGLPaintDevice device(camera.viewSize());
QPainter p(&device);
va = camera.viewProjectionMatrix().map(va);
vb = camera.viewProjectionMatrix().map(vb);
vc = camera.viewProjectionMatrix().map(vc);
vd = camera.viewProjectionMatrix().map(vd);
QVector3D c(camera.viewSize().width() * 0.5, camera.viewSize().height() * 0.5, 0);
va = c + c * va * QVector3D(1, -1, 0);
vb = c + c * vb * QVector3D(1, -1, 0);
vc = c + c * vc * QVector3D(1, -1, 0);
vd = c + c * vd * QVector3D(1, -1, 0);
QPointF pa(va.x(), va.y());
QPointF pb(vb.x(), vb.y());
QPointF pc(vc.x(), vc.y());
QPointF pd(vd.x(), vd.y());
p.drawLine(pa, pb);
p.drawLine(pb, pc);
p.drawLine(pc, pd);
p.drawLine(pd, pa);
extern QVector3D debug;
QVector3D d = camera.viewProjectionMatrix().map(debug);
d = c + c * d * QVector3D(1, -1, 0);
static QVector3D old;
if (debug != old)
old = debug;
p.setPen(Qt::NoPen);
p.setBrush(Qt::red);
p.drawEllipse(QRectF(d.x() - 2, d.y() - 2, 4, 4));
p.end();
#endif
}