int Pdfsync::SourceToDoc(const WCHAR* srcfilename, UINT line, UINT col, UINT* page, Vec<RectI>& rects) {
if (IsIndexDiscarded())
if (RebuildIndex() != PDFSYNCERR_SUCCESS)
return PDFSYNCERR_SYNCFILE_CANNOT_BE_OPENED;
Vec<size_t> found_records;
UINT ret = SourceToRecord(srcfilename, line, col, found_records);
if (ret != PDFSYNCERR_SUCCESS || found_records.size() == 0)
return ret;
rects.Reset();
// records have been found for the desired source position:
// we now find the page and positions in the PDF corresponding to these found records
UINT firstPage = UINT_MAX;
for (size_t i = 0; i < points.size(); i++) {
if (!found_records.Contains(points.at(i).record))
continue;
if (firstPage != UINT_MAX && firstPage != points.at(i).page)
continue;
firstPage = *page = points.at(i).page;
RectD rc(SYNC_TO_PDF_COORDINATE(points.at(i).x), SYNC_TO_PDF_COORDINATE(points.at(i).y), MARK_SIZE, MARK_SIZE);
// PdfSync coordinates are y-inversed
RectD mbox = engine->PageMediabox(firstPage);
rc.y = mbox.dy - (rc.y + rc.dy);
rects.Push(rc.Round());
}
if (rects.size() > 0)
return PDFSYNCERR_SUCCESS;
// the record does not correspond to any point in the PDF: this is possible...
return PDFSYNCERR_NOSYNCPOINT_FOR_LINERECORD;
}
int Pdfsync::DocToSource(UINT pageNo, PointI pt, AutoFreeW& filename, UINT* line, UINT* col) {
if (IsIndexDiscarded())
if (RebuildIndex() != PDFSYNCERR_SUCCESS)
return PDFSYNCERR_SYNCFILE_CANNOT_BE_OPENED;
// find the entry in the index corresponding to this page
if (pageNo <= 0 || pageNo >= sheetIndex.size() || pageNo > (UINT)engine->PageCount())
return PDFSYNCERR_INVALID_PAGE_NUMBER;
// PdfSync coordinates are y-inversed
RectI mbox = engine->PageMediabox(pageNo).Round();
pt.y = mbox.dy - pt.y;
// distance to the closest pdf location (in the range <PDFSYNC_EPSILON_SQUARE)
UINT closest_xydist = UINT_MAX;
UINT selected_record = UINT_MAX;
// If no record is found within a distance^2 of PDFSYNC_EPSILON_SQUARE
// (selected_record == -1) then we pick up the record that is closest
// vertically to the hit-point.
UINT closest_ydist = UINT_MAX; // vertical distance between the hit point and the vertically-closest record
UINT closest_xdist = UINT_MAX; // horizontal distance between the hit point and the vertically-closest record
UINT closest_ydist_record = UINT_MAX; // vertically-closest record
// read all the sections of 'p' declarations for this pdf sheet
for (size_t i = sheetIndex.at(pageNo); i < points.size() && points.at(i).page == pageNo; i++) {
// check whether it is closer than the closest point found so far
UINT dx = abs(pt.x - (int)SYNC_TO_PDF_COORDINATE(points.at(i).x));
UINT dy = abs(pt.y - (int)SYNC_TO_PDF_COORDINATE(points.at(i).y));
UINT dist = dx * dx + dy * dy;
if (dist < PDFSYNC_EPSILON_SQUARE && dist < closest_xydist) {
selected_record = points.at(i).record;
closest_xydist = dist;
} else if ((closest_xydist == UINT_MAX) && dy < PDFSYNC_EPSILON_Y &&
(dy < closest_ydist || (dy == closest_ydist && dx < closest_xdist))) {
closest_ydist_record = points.at(i).record;
closest_ydist = dy;
closest_xdist = dx;
}
}
if (selected_record == UINT_MAX)
selected_record = closest_ydist_record;
if (selected_record == UINT_MAX)
return PDFSYNCERR_NO_SYNC_AT_LOCATION; // no record was found close enough to the hit point
// We have a record number, we need to find its declaration ('l ...') in the syncfile
PdfsyncLine cmp;
cmp.record = selected_record;
PdfsyncLine* found =
(PdfsyncLine*)bsearch(&cmp, lines.LendData(), lines.size(), sizeof(PdfsyncLine), cmpLineRecords);
AssertCrash(found);
if (!found)
return PDFSYNCERR_NO_SYNC_AT_LOCATION;
filename.SetCopy(srcfiles.at(found->file));
*line = found->line;
*col = found->column;
return PDFSYNCERR_SUCCESS;
}
static bool IsInRange(Vec<PageRange>& ranges, int pageNo) {
for (size_t i = 0; i < ranges.size(); i++) {
if (ranges.at(i).start <= pageNo && pageNo <= ranges.at(i).end)
return true;
}
return false;
}
static void BenchFile(const WCHAR* filePath, const WCHAR* pagesSpec) {
if (!file::Exists(filePath)) {
return;
}
// ad-hoc: if enabled times layout instead of rendering and does layout
// using all text rendering methods, so that we can compare and find
// docs that take a long time to load
if (Doc::IsSupportedFile(filePath) && !gGlobalPrefs->ebookUI.useFixedPageUI) {
BenchEbookLayout(filePath);
return;
}
if (ChmModel::IsSupportedFile(filePath) && !gGlobalPrefs->chmUI.useFixedPageUI) {
BenchChmLoadOnly(filePath);
return;
}
Timer total;
logbench(L"Starting: %s", filePath);
Timer t;
BaseEngine* engine = EngineManager::CreateEngine(filePath);
if (!engine) {
logbench(L"Error: failed to load %s", filePath);
return;
}
double timeMs = t.Stop();
logbench(L"load: %.2f ms", timeMs);
int pages = engine->PageCount();
logbench(L"page count: %d", pages);
if (nullptr == pagesSpec) {
for (int i = 1; i <= pages; i++) {
BenchLoadRender(engine, i);
}
}
AssertCrash(!pagesSpec || IsBenchPagesInfo(pagesSpec));
Vec<PageRange> ranges;
if (ParsePageRanges(pagesSpec, ranges)) {
for (size_t i = 0; i < ranges.size(); i++) {
for (int j = ranges.at(i).start; j <= ranges.at(i).end; j++) {
if (1 <= j && j <= pages)
BenchLoadRender(engine, j);
}
}
}
delete engine;
total.Stop();
logbench(L"Finished (in %.2f ms): %s", total.GetTimeInMs(), filePath);
}
// Select random files to test. We want to test each file type equally, so
// we first group them by file extension and then select up to maxPerType
// for each extension, randomly, and inter-leave the files with different
// extensions, so their testing is evenly distributed.
// Returns result in <files>.
static void RandomizeFiles(WStrVec& files, int maxPerType) {
WStrVec fileExts;
Vec<WStrVec*> filesPerType;
for (size_t i = 0; i < files.size(); i++) {
const WCHAR* file = files.at(i);
const WCHAR* ext = path::GetExt(file);
CrashAlwaysIf(!ext);
int typeNo = fileExts.FindI(ext);
if (-1 == typeNo) {
fileExts.Append(str::Dup(ext));
filesPerType.Append(new WStrVec());
typeNo = (int)filesPerType.size() - 1;
}
filesPerType.at(typeNo)->Append(str::Dup(file));
}
for (size_t j = 0; j < filesPerType.size(); j++) {
WStrVec* all = filesPerType.at(j);
WStrVec* random = new WStrVec();
for (int n = 0; n < maxPerType && all->size() > 0; n++) {
int idx = rand() % all->size();
WCHAR* file = all->at(idx);
random->Append(file);
all->RemoveAtFast(idx);
}
filesPerType.at(j) = random;
delete all;
}
files.Reset();
bool gotAll = false;
while (!gotAll) {
gotAll = true;
for (size_t j = 0; j < filesPerType.size(); j++) {
WStrVec* random = filesPerType.at(j);
if (random->size() > 0) {
gotAll = false;
WCHAR* file = random->at(0);
files.Append(file);
random->RemoveAtFast(0);
}
}
}
for (size_t j = 0; j < filesPerType.size(); j++) {
delete filesPerType.at(j);
}
}
// add offset to coordinate in dimension d of index i
long addCoord(long i, long d, long offset) const {
assert(i >= 0 && i < size);
offset = offset % dims.at(d);
if (offset < 0) offset += dims.at(d);
long i_d = getCoord(i, d);
long i_d1 = (i_d + offset) % dims.at(d);
long i1 = i + (i_d1 - i_d) * prods.at(d+1);
return i1;
}
void applyPermToVec(Vec<T>& out, const Vec<T>& in, const Permut& p1)
{
assert(&out != &in); // NOT an in-place procedure
out.SetLength(p1.length());
for (long i=0; i<p1.length(); i++)
out[i] = in.at(p1[i]);
}
// removes file history entries which shouldn't be saved anymore
// (see the loop below for the details)
void FileHistory::Purge(bool alwaysUseDefaultState) {
// minOpenCount is set to the number of times a file must have been
// opened to be kept (provided that there is no other valuable
// information about the file to be remembered)
int minOpenCount = 0;
if (alwaysUseDefaultState) {
Vec<DisplayState*> frequencyList;
GetFrequencyOrder(frequencyList);
if (frequencyList.size() > FILE_HISTORY_MAX_RECENT)
minOpenCount = frequencyList.at(FILE_HISTORY_MAX_FREQUENT)->openCount / 2;
}
for (size_t j = states->size(); j > 0; j--) {
DisplayState* state = states->at(j - 1);
// never forget pinned documents, documents we've remembered a password for and
// documents for which there are favorites
if (state->isPinned || state->decryptionKey != nullptr || state->favorites->size() > 0)
continue;
// forget about missing documents without valuable state
if (state->isMissing && (alwaysUseDefaultState || state->useDefaultState))
states->RemoveAt(j - 1);
// forget about files last opened longer ago than the last FILE_HISTORY_MAX_FILES ones
else if (j > FILE_HISTORY_MAX_FILES)
states->RemoveAt(j - 1);
// forget about files that were hardly used (and without valuable state)
else if (alwaysUseDefaultState && state->openCount < minOpenCount && j > FILE_HISTORY_MAX_RECENT)
states->RemoveAt(j - 1);
else
continue;
DeleteDisplayState(state);
}
}
// Find a record corresponding to the given source file, line number and optionally column number.
// (at the moment the column parameter is ignored)
//
// If there are several *consecutively declared* records for the same line then they are all returned.
// The list of records is added to the vector 'records'
//
// If there is no record for that line, the record corresponding to the nearest line is selected
// (within a range of EPSILON_LINE)
//
// The function returns PDFSYNCERR_SUCCESS if a matching record was found.
UINT Pdfsync::SourceToRecord(const WCHAR* srcfilename, UINT line, UINT col, Vec<size_t>& records) {
UNUSED(col);
if (!srcfilename)
return PDFSYNCERR_INVALID_ARGUMENT;
AutoFreeW srcfilepath;
// convert the source file to an absolute path
if (PathIsRelative(srcfilename))
srcfilepath.Set(PrependDir(srcfilename));
else
srcfilepath.SetCopy(srcfilename);
if (!srcfilepath)
return PDFSYNCERR_OUTOFMEMORY;
// find the source file entry
size_t isrc;
for (isrc = 0; isrc < srcfiles.size(); isrc++)
if (path::IsSame(srcfilepath, srcfiles.at(isrc)))
break;
if (isrc == srcfiles.size())
return PDFSYNCERR_UNKNOWN_SOURCEFILE;
if (fileIndex.at(isrc).start == fileIndex.at(isrc).end)
return PDFSYNCERR_NORECORD_IN_SOURCEFILE; // there is not any record declaration for that particular source file
// look for sections belonging to the specified file
// starting with the first section that is declared within the scope of the file.
UINT min_distance = EPSILON_LINE; // distance to the closest record
size_t lineIx = (size_t)-1; // closest record-line index
for (size_t isec = fileIndex.at(isrc).start; isec < fileIndex.at(isrc).end; isec++) {
// does this section belong to the desired file?
if (lines.at(isec).file != isrc)
continue;
UINT d = abs((int)lines.at(isec).line - (int)line);
if (d < min_distance) {
min_distance = d;
lineIx = isec;
if (0 == d)
break; // We have found a record for the requested line!
}
}
if (lineIx == (size_t)-1)
return PDFSYNCERR_NORECORD_FOR_THATLINE;
// we read all the consecutive records until we reach a record belonging to another line
for (size_t i = lineIx; i < lines.size() && lines.at(i).line == lines.at(lineIx).line; i++)
records.Push(lines.at(i).record);
return PDFSYNCERR_SUCCESS;
}
// For easy access, we try to show favorites in the menu, similar to a list of
// recently opened files.
// The first menu items are for currently opened file (up to MAX_FAV_MENUS), based
// on the assumption that user is usually interested in navigating current file.
// Then we have a submenu for each file for which there are bookmarks (up to
// MAX_FAV_SUBMENUS), each having up to MAX_FAV_MENUS menu items.
// If not all favorites can be shown, we also enable "Show all favorites" menu which
// will provide a way to see all favorites.
// Note: not sure if that's the best layout. Maybe we should always use submenu and
// put the submenu for current file as the first one (potentially named as "Current file"
// or some such, to make it stand out from other submenus)
static void AppendFavMenus(HMENU m, const WCHAR* currFilePath) {
// To minimize mouse movement when navigating current file via favorites
// menu, put favorites for current file first
DisplayState* currFileFav = nullptr;
if (currFilePath) {
currFileFav = gFavorites.GetFavByFilePath(currFilePath);
}
// sort the files with favorites by base file name of file path
Vec<const WCHAR*> filePathsSorted;
if (HasPermission(Perm_DiskAccess)) {
// only show favorites for other files, if we're allowed to open them
GetSortedFilePaths(filePathsSorted, currFileFav);
}
if (currFileFav && currFileFav->favorites->size() > 0) {
filePathsSorted.InsertAt(0, currFileFav->filePath);
}
if (filePathsSorted.size() == 0) {
return;
}
AppendMenu(m, MF_SEPARATOR, 0, nullptr);
gFavorites.ResetMenuIds();
UINT menuId = IDM_FAV_FIRST;
size_t menusCount = filePathsSorted.size();
if (menusCount > MAX_FAV_MENUS) {
menusCount = MAX_FAV_MENUS;
}
for (size_t i = 0; i < menusCount; i++) {
const WCHAR* filePath = filePathsSorted.at(i);
DisplayState* f = gFavorites.GetFavByFilePath(filePath);
CrashIf(!f);
HMENU sub = m;
bool combined = (f->favorites->size() == 1);
if (!combined) {
sub = CreateMenu();
}
AppendFavMenuItems(sub, f, menuId, combined, f == currFileFav);
if (!combined) {
if (f == currFileFav) {
AppendMenu(m, MF_POPUP | MF_STRING, (UINT_PTR)sub, _TR("Current file"));
} else {
AutoFreeW tmp;
tmp.SetCopy(path::GetBaseName(filePath));
auto fileName = win::menu::ToSafeString(tmp);
AppendMenuW(m, MF_POPUP | MF_STRING, (UINT_PTR)sub, fileName);
}
}
}
}
// don't emit multiple spaces and don't emit spaces
// at the beginning of the line
static bool CanEmitElasticSpace(float currX, float NewLineX, float maxCurrX, Vec<DrawInstr>& currLineInstr) {
if (NewLineX == currX || 0 == currLineInstr.size())
return false;
// prevent elastic spaces from being flushed to the
// beginning of the next line
if (currX > maxCurrX)
return false;
DrawInstr& di = currLineInstr.Last();
// don't add a space if only an anchor would be in between them
if (InstrAnchor == di.type && currLineInstr.size() > 1)
di = currLineInstr.at(currLineInstr.size() - 2);
return (InstrElasticSpace != di.type) && (InstrFixedSpace != di.type);
}
// For each position in the data vector, compute how many slots it should be
// shifted inside its small permutation.
// Return value is zero if all the shift amounts are zero, nonzero otherwise.
long ColPerm::getShiftAmounts(Vec<long>& out) const
{
long sz = getSize();
out.SetLength(sz);
long nonZero = 0;
for (long k = 0; k < sz; k++) {
long i = getCoord(k, dim);
long pi_i = at(k);
if (i != pi_i) nonZero = 1;
out.at(addCoord(k, dim, pi_i-i)) = i - pi_i;
}
return nonZero;
}
static VerticalLayout* VerticalLayoutFromDef(ParsedMui& parsed, TxtNode* structDef) {
CrashIf(!structDef->IsStructWithName("VerticalLayout"));
VerticalLayoutDef* def = DeserializeVerticalLayoutDef(structDef);
VerticalLayout* l = new VerticalLayout();
l->SetName(def->name);
Vec<DirectionalLayoutDataDef*>* children = def->children;
DirectionalLayoutData ld;
for (size_t i = 0; children && i < children->size(); i++) {
SetDirectionalLayouData(ld, parsed, children->at(i));
l->Add(ld);
}
FreeVerticalLayoutDef(def);
return l;
}
static bool HasPreviousLineSingleImage(Vec<DrawInstr>& instrs) {
REAL imageY = -1;
for (size_t idx = instrs.size(); idx > 0; idx--) {
DrawInstr& i = instrs.at(idx - 1);
if (!IsVisibleDrawInstr(i))
continue;
if (-1 != imageY) {
// if another visible item precedes the image,
// it must be completely above it (previous line)
return i.bbox.Y + i.bbox.Height <= imageY;
}
if (InstrImage != i.type)
return false;
imageY = i.bbox.Y;
}
return imageY != -1;
}
RectF MeasureTextQuick(Graphics* g, Font* f, const WCHAR* s, int len) {
CrashIf(0 >= len);
static Vec<Font*> fontCache;
static Vec<bool> fixCache;
RectF bbox;
g->MeasureString(s, len, f, PointF(0, 0), &bbox);
int idx = fontCache.Find(f);
if (-1 == idx) {
LOGFONTW lfw;
Status ok = f->GetLogFontW(g, &lfw);
bool isItalicOrMonospace = Ok != ok || lfw.lfItalic || str::Eq(lfw.lfFaceName, L"Courier New") ||
str::Find(lfw.lfFaceName, L"Consol") || str::EndsWith(lfw.lfFaceName, L"Mono") ||
str::EndsWith(lfw.lfFaceName, L"Typewriter");
fontCache.Append(f);
fixCache.Append(isItalicOrMonospace);
idx = (int)fontCache.size() - 1;
}
// most documents look good enough with these adjustments
if (!fixCache.at(idx)) {
REAL correct = 0;
for (int i = 0; i < len; i++) {
switch (s[i]) {
case 'i':
case 'l':
correct += 0.2f;
break;
case 't':
case 'f':
case 'I':
correct += 0.1f;
break;
case '.':
case ',':
case '!':
correct += 0.1f;
break;
}
}
bbox.Width *= (1.0f - correct / len) * 0.99f;
}
bbox.Height *= 0.95f;
return bbox;
}
void PopulateFavTreeIfNeeded(WindowInfo* win) {
HWND hwndTree = win->hwndFavTree;
if (TreeView_GetCount(hwndTree) > 0) {
return;
}
Vec<const WCHAR*> filePathsSorted;
GetSortedFilePaths(filePathsSorted);
SendMessage(hwndTree, WM_SETREDRAW, FALSE, 0);
for (size_t i = 0; i < filePathsSorted.size(); i++) {
DisplayState* f = gFavorites.GetFavByFilePath(filePathsSorted.at(i));
bool isExpanded = win->expandedFavorites.Contains(f);
HTREEITEM node = InsertFavTopLevelNode(hwndTree, f, isExpanded);
if (f->favorites->size() > 1) {
InsertFavSecondLevelNodes(hwndTree, node, f);
}
}
SendMessage(hwndTree, WM_SETREDRAW, TRUE, 0);
UINT fl = RDW_ERASE | RDW_FRAME | RDW_INVALIDATE | RDW_ALLCHILDREN;
RedrawWindow(hwndTree, nullptr, nullptr, fl);
}
void PaintTransparentRectangles(HDC hdc, RectI screenRc, Vec<RectI>& rects, COLORREF selectionColor, BYTE alpha,
int margin) {
using namespace Gdiplus;
// create path from rectangles
GraphicsPath path(FillModeWinding);
screenRc.Inflate(margin, margin);
for (size_t i = 0; i < rects.size(); i++) {
RectI rc = rects.at(i).Intersect(screenRc);
if (!rc.IsEmpty())
path.AddRectangle(rc.ToGdipRect());
}
// fill path (and draw optional outline margin)
Graphics gs(hdc);
Color c(alpha, GetRValueSafe(selectionColor), GetGValueSafe(selectionColor), GetBValueSafe(selectionColor));
SolidBrush tmpBrush(c);
gs.FillPath(&tmpBrush, &path);
if (margin) {
path.Outline(nullptr, 0.2f);
Pen tmpPen(Color(alpha, 0, 0, 0), (REAL)margin);
gs.DrawPath(&tmpPen, &path);
}
}
// removes thumbnails that don't belong to any frequently used item in file history
void CleanUpThumbnailCache(const FileHistory& fileHistory) {
AutoFreeW thumbsPath(AppGenDataFilename(THUMBNAILS_DIR_NAME));
if (!thumbsPath)
return;
AutoFreeW pattern(path::Join(thumbsPath, L"*.png"));
WStrVec files;
WIN32_FIND_DATA fdata;
HANDLE hfind = FindFirstFile(pattern, &fdata);
if (INVALID_HANDLE_VALUE == hfind)
return;
do {
if (!(fdata.dwFileAttributes & FILE_ATTRIBUTE_DIRECTORY))
files.Append(str::Dup(fdata.cFileName));
} while (FindNextFile(hfind, &fdata));
FindClose(hfind);
Vec<DisplayState*> list;
fileHistory.GetFrequencyOrder(list);
for (size_t i = 0; i < list.size() && i < FILE_HISTORY_MAX_FREQUENT * 2; i++) {
AutoFreeW bmpPath(GetThumbnailPath(list.at(i)->filePath));
if (!bmpPath)
continue;
int idx = files.Find(path::GetBaseName(bmpPath));
if (idx != -1) {
CrashIf(idx < 0 || files.size() <= (size_t)idx);
free(files.PopAt(idx));
}
}
for (size_t i = 0; i < files.size(); i++) {
AutoFreeW bmpPath(path::Join(thumbsPath, files.at(i)));
file::Delete(bmpPath);
}
}
UINT RenderCache::Paint(HDC hdc, RectI bounds, DisplayModel* dm, int pageNo, PageInfo* pageInfo,
bool* renderOutOfDateCue) {
AssertCrash(pageInfo->shown && 0.0 != pageInfo->visibleRatio);
if (!dm->ShouldCacheRendering(pageNo)) {
int rotation = dm->GetRotation();
float zoom = dm->GetZoomReal(pageNo);
bounds = pageInfo->pageOnScreen.Intersect(bounds);
RectD area = bounds.Convert<double>();
area.Offset(-pageInfo->pageOnScreen.x, -pageInfo->pageOnScreen.y);
area = dm->GetEngine()->Transform(area, pageNo, zoom, rotation, true);
RenderedBitmap* bmp = dm->GetEngine()->RenderBitmap(pageNo, zoom, rotation, &area);
bool success = bmp && bmp->GetBitmap() && bmp->StretchDIBits(hdc, bounds);
delete bmp;
return success ? 0 : RENDER_DELAY_FAILED;
}
int rotation = dm->GetRotation();
float zoom = dm->GetZoomReal();
USHORT targetRes = GetTileRes(dm, pageNo);
USHORT maxRes = GetMaxTileRes(dm, pageNo, rotation);
if (maxRes < targetRes)
maxRes = targetRes;
Vec<TilePosition> queue;
queue.Append(TilePosition(0, 0, 0));
UINT renderDelayMin = RENDER_DELAY_UNDEFINED;
bool neededScaling = false;
while (queue.size() > 0) {
TilePosition tile = queue.PopAt(0);
RectI tileOnScreen = GetTileOnScreen(dm->GetEngine(), pageNo, rotation, zoom, tile, pageInfo->pageOnScreen);
if (tileOnScreen.IsEmpty()) {
// display an error message when only empty tiles should be drawn (i.e. on page loading errors)
renderDelayMin = std::min(RENDER_DELAY_FAILED, renderDelayMin);
continue;
}
tileOnScreen = pageInfo->pageOnScreen.Intersect(tileOnScreen);
RectI isect = bounds.Intersect(tileOnScreen);
if (isect.IsEmpty())
continue;
bool isTargetRes = tile.res == targetRes;
UINT renderDelay = PaintTile(hdc, isect, dm, pageNo, tile, tileOnScreen, isTargetRes, renderOutOfDateCue,
isTargetRes ? &neededScaling : nullptr);
if (!(isTargetRes && 0 == renderDelay) && tile.res < maxRes) {
queue.Append(TilePosition(tile.res + 1, tile.row * 2, tile.col * 2));
queue.Append(TilePosition(tile.res + 1, tile.row * 2, tile.col * 2 + 1));
queue.Append(TilePosition(tile.res + 1, tile.row * 2 + 1, tile.col * 2));
queue.Append(TilePosition(tile.res + 1, tile.row * 2 + 1, tile.col * 2 + 1));
}
if (isTargetRes && renderDelay > 0)
neededScaling = true;
renderDelayMin = std::min(renderDelay, renderDelayMin);
// paint tiles from left to right from top to bottom
if (tile.res > 0 && queue.size() > 0 && tile.res < queue.at(0).res)
queue.Sort(cmpTilePosition);
}
#ifdef CONSERVE_MEMORY
if (!neededScaling) {
if (renderOutOfDateCue)
*renderOutOfDateCue = false;
// free tiles with different resolution
TilePosition tile(targetRes, (USHORT)-1, 0);
FreePage(dm, pageNo, &tile);
}
FreeNotVisible();
#endif
return renderDelayMin;
}
// - Note
// index접근을 지원하는 operator[] overload
const time_type& operator[](int idx) const
noexcept(false)
{
return times.at(idx);
}
// reference to element at position i, with bounds check
T& at(long i) { return data.at(i); }
//////////////////////////////////////////////////
// start the scan parsing of a mzXML file
void FTPeakDetectController::startScanParsing(Vec datavec)
{
// set the titel of the current LC_MS run:
string name = "tmplcms";
// create a new LC/MS:
lcms_ = new LCMS(name);
lcms_->set_spectrum_ID((int) this->lcmsRuns_.size());
ProcessData * dataProcessor = new ProcessData();
unsigned int i;
for (i = 0; i < datavec.size(); i++)
{
Map it = datavec.at(i);
dataProcessor->setMaxScanDistance(0);
if ((it.first >= SuperHirnParameters::instance()->getMinTR()) &&
(it.first <= SuperHirnParameters::instance()->getMaxTR()))
{
SuperHirnParameters::instance()->getScanTRIndex()->insert(std::pair<int, float>(i, (float) it.first));
// centroid it:
CentroidData cd(SuperHirnParameters::instance()->getCentroidWindowWidth(), it.second, it.first,
SuperHirnParameters::instance()->centroidDataModus());
// store it:
dataProcessor->add_scan_raw_data(i, it.first, &cd);
}
}
//////////////////////////////////////
// post processing of mzXML data of a file:
// !!! MS1 LEVEL !!!
process_MS1_level_data_structure(dataProcessor);
// !!! MS2 LEVEL !!!
//process_MS2_level_data_structure( reader );
lcms_->order_by_mass();
if (SuperHirnParameters::instance()->ms1FeatureClustering())
{
MS1FeatureMerger * merg = new MS1FeatureMerger(lcms_);
merg->startFeatureMerging();
delete merg;
}
lcms_->show_info();
/* Debug-output, commented out for brutus */
/*
string SEP = "";
FILE *file;
file = fopen("ffsh-features.txt","w+");
fprintf(file,"%s", "Features\n");
vector<feature>::iterator p = lcms_->get_feature_list_begin();
while(p != lcms_->get_feature_list_end()){
fprintf(file, "MS1 Feature#:%d,%s", (*p).get_feature_ID(),SEP.c_str());
fprintf(file, "m/z:%0.5f%s",(*p).get_MZ(),SEP.c_str());
fprintf(file, "[+%d],%s",(*p).get_charge_state(),SEP.c_str());
fprintf(file, "Area:%0.2f%s",(*p).get_peak_area(),SEP.c_str());
fprintf(file, ",apex:%0.2f[%0.2f:%0.2f][%d:%d:%d],s/n:%0.2f,%0.2f%s",(*p).get_retention_time(),(*p).get_retention_time_START(),(*p).get_retention_time_END(),(*p).get_scan_start(),(*p).get_scan_number(),(*p).get_scan_end(), (*p).getSignalToNoise(), (*p).get_peak_score(),SEP.c_str());
fprintf(file, ",matches:%d%s",(*p).get_replicate_match_nb(),SEP.c_str());
fprintf(file, ",LCMS-ID: %d",(*p).get_spectrum_ID());
fprintf(file,"%s", "\n");
p++;
}
fclose(file);
*/
lcmsRuns_.push_back(*lcms_);
delete dataProcessor;
}
// read-only reference to element at position i, with bounds check
const T& at(long i) const { return data.at(i); }
// size of dimension d
long getDim(long d) const { return dims.at(d); }
// product of sizes of dimensions d, d+1, ...
long getProd(long d) const { return prods.at(d);}
// get coordinate in dimension d of index i
long getCoord(long i, long d) const {
assert(i >= 0 && i < size);
return (i % prods.at(d)) / prods.at(d+1);
}
bool StressTest::OpenFile(const WCHAR* fileName) {
wprintf(L"%s\n", fileName);
fflush(stdout);
LoadArgs args(fileName);
args.forceReuse = rand() % 3 != 1;
WindowInfo* w = LoadDocument(args);
if (!w)
return false;
if (w == win) { // WindowInfo reused
if (!win->IsDocLoaded())
return false;
} else if (!w->IsDocLoaded()) { // new WindowInfo
CloseWindow(w, false);
return false;
}
// transfer ownership of stressTest object to a new window and close the
// current one
AssertCrash(this == win->stressTest);
if (w != win) {
if (win->IsDocLoaded()) {
// try to provoke a crash in RenderCache cleanup code
ClientRect rect(win->hwndFrame);
rect.Inflate(rand() % 10, rand() % 10);
SendMessage(win->hwndFrame, WM_SIZE, 0, MAKELONG(rect.dx, rect.dy));
if (win->AsFixed())
win->cbHandler->RequestRendering(1);
win->RepaintAsync();
}
WindowInfo* toClose = win;
w->stressTest = win->stressTest;
win->stressTest = nullptr;
win = w;
CloseWindow(toClose, false);
}
if (!win->IsDocLoaded())
return false;
win->ctrl->SetDisplayMode(DM_CONTINUOUS);
win->ctrl->SetZoomVirtual(ZOOM_FIT_PAGE, nullptr);
win->ctrl->GoToFirstPage();
if (win->tocVisible || gGlobalPrefs->showFavorites)
SetSidebarVisibility(win, win->tocVisible, gGlobalPrefs->showFavorites);
currPage = pageRanges.at(0).start;
win->ctrl->GoToPage(currPage, false);
currPageRenderTime.Start();
++filesCount;
pageForSearchStart = (rand() % win->ctrl->PageCount()) + 1;
// search immediately in single page documents
if (1 == pageForSearchStart) {
// use text that is unlikely to be found, so that we search all pages
win::SetText(win->hwndFindBox, L"!z_yt");
FindTextOnThread(win, TextSearchDirection::Forward, true);
}
int secs = SecsSinceSystemTime(stressStartTime);
AutoFreeW tm(FormatTime(secs));
AutoFreeW s(str::Format(L"File %d: %s, time: %s", filesCount, fileName, tm));
win->ShowNotification(s, NOS_PERSIST, NG_STRESS_TEST_SUMMARY);
return true;
}
// see http://itexmac.sourceforge.net/pdfsync.html for the specification
int Pdfsync::RebuildIndex() {
OwnedData data(file::ReadFile(syncfilepath));
if (!data.data) {
return PDFSYNCERR_SYNCFILE_CANNOT_BE_OPENED;
}
// convert the file data into a list of zero-terminated strings
str::TransChars(data.data, "\r\n", "\0\0");
// parse preamble (jobname and version marker)
char* line = data.data;
char* dataEnd = data.data + data.size;
// replace star by spaces (TeX uses stars instead of spaces in filenames)
str::TransChars(line, "*/", " \\");
AutoFreeW jobName(str::conv::FromAnsi(line));
jobName.Set(str::Join(jobName, L".tex"));
jobName.Set(PrependDir(jobName));
line = Advance0Line(line, dataEnd);
UINT versionNumber = 0;
if (!line || !str::Parse(line, "version %u", &versionNumber) || versionNumber != 1) {
return PDFSYNCERR_SYNCFILE_CANNOT_BE_OPENED;
}
// reset synchronizer database
srcfiles.Reset();
lines.Reset();
points.Reset();
fileIndex.Reset();
sheetIndex.Reset();
Vec<size_t> filestack;
UINT page = 1;
sheetIndex.Append(0);
// add the initial tex file to the source file stack
filestack.Push(srcfiles.size());
srcfiles.Append(jobName.StealData());
PdfsyncFileIndex findex = {0};
fileIndex.Append(findex);
PdfsyncLine psline;
PdfsyncPoint pspoint;
// parse data
UINT maxPageNo = engine->PageCount();
while ((line = Advance0Line(line, dataEnd)) != nullptr) {
if (!line)
break;
switch (*line) {
case 'l':
psline.file = filestack.Last();
if (str::Parse(line, "l %u %u %u", &psline.record, &psline.line, &psline.column))
lines.Append(psline);
else if (str::Parse(line, "l %u %u", &psline.record, &psline.line)) {
psline.column = 0;
lines.Append(psline);
}
// else dbg("Bad 'l' line in the pdfsync file");
break;
case 's':
if (str::Parse(line, "s %u", &page))
sheetIndex.Append(points.size());
// else dbg("Bad 's' line in the pdfsync file");
// if (0 == page || page > maxPageNo)
// dbg("'s' line with invalid page number in the pdfsync file");
break;
case 'p':
pspoint.page = page;
if (0 == page || page > maxPageNo)
/* ignore point for invalid page number */;
else if (str::Parse(line, "p %u %u %u", &pspoint.record, &pspoint.x, &pspoint.y))
points.Append(pspoint);
else if (str::Parse(line, "p* %u %u %u", &pspoint.record, &pspoint.x, &pspoint.y))
points.Append(pspoint);
// else dbg("Bad 'p' line in the pdfsync file");
break;
case '(': {
AutoFreeW filename(str::conv::FromAnsi(line + 1));
// if the filename contains quotes then remove them
// TODO: this should never happen!?
if (filename[0] == '"' && filename[str::Len(filename) - 1] == '"')
filename.Set(str::DupN(filename + 1, str::Len(filename) - 2));
// undecorate the filepath: replace * by space and / by \ (backslash)
str::TransChars(filename, L"*/", L" \\");
// if the file name extension is not specified then add the suffix '.tex'
if (str::IsEmpty(path::GetExt(filename)))
filename.Set(str::Join(filename, L".tex"));
// ensure that the path is absolute
if (PathIsRelative(filename))
filename.Set(PrependDir(filename));
filestack.Push(srcfiles.size());
srcfiles.Append(filename.StealData());
findex.start = findex.end = lines.size();
fileIndex.Append(findex);
} break;
case ')':
if (filestack.size() > 1)
fileIndex.at(filestack.Pop()).end = lines.size();
// else dbg("Unbalanced ')' line in the pdfsync file");
break;
default:
// dbg("Ignoring invalid pdfsync line starting with '%c'", *line);
break;
}
}
fileIndex.at(0).end = lines.size();
AssertCrash(filestack.size() == 1);
return Synchronizer::RebuildIndex();
}
