/** * \file InsetMathNest.cpp * This file is part of LyX, the document processor. * Licence details can be found in the file COPYING. * * \author André Pönitz * * Full author contact details are available in file CREDITS. */ #include #include "InsetMathNest.h" #include "InsetMathArray.h" #include "InsetMathBig.h" #include "InsetMathBox.h" #include "InsetMathBrace.h" #include "InsetMathColor.h" #include "InsetMathComment.h" #include "InsetMathDelim.h" #include "InsetMathHull.h" #include "InsetMathRef.h" #include "InsetMathScript.h" #include "InsetMathSpace.h" #include "InsetMathSymbol.h" #include "InsetMathUnknown.h" #include "MathCompletionList.h" #include "MathData.h" #include "MathFactory.h" #include "MathMacro.h" #include "MathMacroArgument.h" #include "MathParser.h" #include "MathStream.h" #include "MathSupport.h" #include "Bidi.h" #include "Buffer.h" #include "BufferView.h" #include "CoordCache.h" #include "Cursor.h" #include "CutAndPaste.h" #include "DispatchResult.h" #include "FuncRequest.h" #include "FuncStatus.h" #include "LyXFunc.h" #include "LyXRC.h" #include "OutputParams.h" #include "Text.h" #include "frontends/Clipboard.h" #include "frontends/Painter.h" #include "frontends/Selection.h" #include "support/lassert.h" #include "support/debug.h" #include "support/gettext.h" #include "support/lstrings.h" #include "support/textutils.h" #include "support/docstream.h" #include #include using namespace std; using namespace lyx::support; namespace lyx { using cap::copySelection; using cap::grabAndEraseSelection; using cap::cutSelection; using cap::replaceSelection; using cap::selClearOrDel; InsetMathNest::InsetMathNest(idx_type nargs) : cells_(nargs), lock_(false), mouse_hover_(false) {} InsetMathNest::InsetMathNest(InsetMathNest const & inset) : InsetMath(inset), cells_(inset.cells_), lock_(inset.lock_), mouse_hover_(false) {} InsetMathNest & InsetMathNest::operator=(InsetMathNest const & inset) { cells_ = inset.cells_; lock_ = inset.lock_; mouse_hover_ = false; InsetMath::operator=(inset); return *this; } InsetMath::idx_type InsetMathNest::nargs() const { return cells_.size(); } void InsetMathNest::cursorPos(BufferView const & bv, CursorSlice const & sl, bool /*boundary*/, int & x, int & y) const { // FIXME: This is a hack. Ideally, the coord cache should not store // absolute positions, but relative ones. This would mean to call // setXY() not in MathData::draw(), but in the parent insets' draw() // with the correctly adjusted x,y values. But this means that we'd have // to touch all (math)inset's draw() methods. Right now, we'll store // absolute value, and make them here relative, only to make them // absolute again when actually drawing the cursor. What a mess. LASSERT(&sl.inset() == this, /**/); MathData const & ar = sl.cell(); CoordCache const & coord_cache = bv.coordCache(); if (!coord_cache.getArrays().has(&ar)) { // this can (semi-)legally happen if we just created this cell // and it never has been drawn before. So don't ASSERT. //lyxerr << "no cached data for array " << &ar << endl; x = 0; y = 0; return; } Point const pt = coord_cache.getArrays().xy(&ar); if (!coord_cache.getInsets().has(this)) { // same as above //lyxerr << "no cached data for inset " << this << endl; x = 0; y = 0; return; } Point const pt2 = coord_cache.getInsets().xy(this); //lyxerr << "retrieving position cache for MathData " // << pt.x_ << ' ' << pt.y_ << endl; x = pt.x_ - pt2.x_ + ar.pos2x(&bv, sl.pos()); y = pt.y_ - pt2.y_; // lyxerr << "pt.y_ : " << pt.y_ << " pt2_.y_ : " << pt2.y_ // << " asc: " << ascent() << " des: " << descent() // << " ar.asc: " << ar.ascent() << " ar.des: " << ar.descent() << endl; // move cursor visually into empty cells ("blue rectangles"); if (ar.empty()) x += 2; } void InsetMathNest::metrics(MetricsInfo const & mi) const { MetricsInfo m = mi; for (idx_type i = 0, n = nargs(); i != n; ++i) { Dimension dim; cell(i).metrics(m, dim); } } bool InsetMathNest::idxNext(Cursor & cur) const { LASSERT(&cur.inset() == this, /**/); if (cur.idx() == cur.lastidx()) return false; ++cur.idx(); cur.pos() = 0; return true; } bool InsetMathNest::idxForward(Cursor & cur) const { return idxNext(cur); } bool InsetMathNest::idxPrev(Cursor & cur) const { LASSERT(&cur.inset() == this, /**/); if (cur.idx() == 0) return false; --cur.idx(); cur.pos() = cur.lastpos(); return true; } bool InsetMathNest::idxBackward(Cursor & cur) const { return idxPrev(cur); } bool InsetMathNest::idxFirst(Cursor & cur) const { LASSERT(&cur.inset() == this, /**/); if (nargs() == 0) return false; cur.idx() = 0; cur.pos() = 0; return true; } bool InsetMathNest::idxLast(Cursor & cur) const { LASSERT(&cur.inset() == this, /**/); if (nargs() == 0) return false; cur.idx() = cur.lastidx(); cur.pos() = cur.lastpos(); return true; } void InsetMathNest::dump() const { odocstringstream oss; WriteStream os(oss); os << "---------------------------------------------\n"; write(os); os << "\n"; for (idx_type i = 0, n = nargs(); i != n; ++i) os << cell(i) << "\n"; os << "---------------------------------------------\n"; lyxerr << to_utf8(oss.str()); } void InsetMathNest::draw(PainterInfo & pi, int x, int y) const { #if 0 if (lock_) pi.pain.fillRectangle(x, y - ascent(), width(), height(), Color_mathlockbg); #endif setPosCache(pi, x, y); } void InsetMathNest::drawSelection(PainterInfo & pi, int x, int y) const { BufferView & bv = *pi.base.bv; // this should use the x/y values given, not the cached values Cursor & cur = bv.cursor(); if (!cur.selection()) return; if (&cur.inset() != this) return; // FIXME: hack to get position cache warm bool const original_drawing_state = pi.pain.isDrawingEnabled(); pi.pain.setDrawingEnabled(false); draw(pi, x, y); pi.pain.setDrawingEnabled(original_drawing_state); CursorSlice s1 = cur.selBegin(); CursorSlice s2 = cur.selEnd(); //lyxerr << "InsetMathNest::drawing selection: " // << " s1: " << s1 << " s2: " << s2 << endl; if (s1.idx() == s2.idx()) { MathData const & c = cell(s1.idx()); Geometry const & g = bv.coordCache().getArrays().geometry(&c); int x1 = g.pos.x_ + c.pos2x(pi.base.bv, s1.pos()); int y1 = g.pos.y_ - g.dim.ascent(); int x2 = g.pos.x_ + c.pos2x(pi.base.bv, s2.pos()); int y2 = g.pos.y_ + g.dim.descent(); pi.pain.fillRectangle(x1, y1, x2 - x1, y2 - y1, Color_selection); //lyxerr << "InsetMathNest::drawing selection 3: " // << " x1: " << x1 << " x2: " << x2 // << " y1: " << y1 << " y2: " << y2 << endl; } else { for (idx_type i = 0; i < nargs(); ++i) { if (idxBetween(i, s1.idx(), s2.idx())) { MathData const & c = cell(i); Geometry const & g = bv.coordCache().getArrays().geometry(&c); int x1 = g.pos.x_; int y1 = g.pos.y_ - g.dim.ascent(); int x2 = g.pos.x_ + g.dim.width(); int y2 = g.pos.y_ + g.dim.descent(); pi.pain.fillRectangle(x1, y1, x2 - x1, y2 - y1, Color_selection); } } } } void InsetMathNest::validate(LaTeXFeatures & features) const { for (idx_type i = 0; i < nargs(); ++i) cell(i).validate(features); } void InsetMathNest::replace(ReplaceData & rep) { for (idx_type i = 0; i < nargs(); ++i) cell(i).replace(rep); } bool InsetMathNest::contains(MathData const & ar) const { for (idx_type i = 0; i < nargs(); ++i) if (cell(i).contains(ar)) return true; return false; } bool InsetMathNest::lock() const { return lock_; } void InsetMathNest::lock(bool l) { lock_ = l; } bool InsetMathNest::isActive() const { return nargs() > 0; } MathData InsetMathNest::glue() const { MathData ar; for (size_t i = 0; i < nargs(); ++i) ar.append(cell(i)); return ar; } void InsetMathNest::write(WriteStream & os) const { ModeSpecifier specifier(os, currentMode()); docstring const latex_name = name(); os << '\\' << latex_name; for (size_t i = 0; i < nargs(); ++i) os << '{' << cell(i) << '}'; if (nargs() == 0) os.pendingSpace(true); if (lock_ && !os.latex()) { os << "\\lyxlock"; os.pendingSpace(true); } } void InsetMathNest::normalize(NormalStream & os) const { os << '[' << name(); for (size_t i = 0; i < nargs(); ++i) os << ' ' << cell(i); os << ']'; } int InsetMathNest::latex(odocstream & os, OutputParams const & runparams) const { WriteStream wi(os, runparams.moving_arg, true, runparams.dryrun, runparams.encoding); write(wi); return wi.line(); } bool InsetMathNest::setMouseHover(bool mouse_hover) { mouse_hover_ = mouse_hover; return true; } bool InsetMathNest::notifyCursorLeaves(Cursor const & /*old*/, Cursor & /*cur*/) { // FIXME: look here #if 0 MathData & ar = cur.cell(); // remove base-only "scripts" for (pos_type i = 0; i + 1 < ar.size(); ++i) { InsetMathScript * p = operator[](i).nucleus()->asScriptInset(); if (p && p->nargs() == 1) { MathData ar = p->nuc(); erase(i); insert(i, ar); cur.adjust(i, ar.size() - 1); } } // glue adjacent font insets of the same kind for (pos_type i = 0; i + 1 < size(); ++i) { InsetMathFont * p = operator[](i).nucleus()->asFontInset(); InsetMathFont const * q = operator[](i + 1)->asFontInset(); if (p && q && p->name() == q->name()) { p->cell(0).append(q->cell(0)); erase(i + 1); cur.adjust(i, -1); } } #endif return false; } void InsetMathNest::handleFont (Cursor & cur, docstring const & arg, char const * const font) { handleFont(cur, arg, from_ascii(font)); } void InsetMathNest::handleFont(Cursor & cur, docstring const & arg, docstring const & font) { cur.recordUndoSelection(); // this whole function is a hack and won't work for incremental font // changes... if (cur.inset().asInsetMath()->name() == font) cur.handleFont(to_utf8(font)); else handleNest(cur, createInsetMath(font), arg); } void InsetMathNest::handleNest(Cursor & cur, MathAtom const & nest) { handleNest(cur, nest, docstring()); } void InsetMathNest::handleNest(Cursor & cur, MathAtom const & nest, docstring const & arg) { CursorSlice i1 = cur.selBegin(); CursorSlice i2 = cur.selEnd(); if (!i1.inset().asInsetMath()) return; if (i1.idx() == i2.idx()) { // the easy case where only one cell is selected cur.handleNest(nest); cur.insert(arg); return; } // multiple selected cells in a simple non-grid inset if (i1.asInsetMath()->nrows() == 0 || i1.asInsetMath()->ncols() == 0) { for (idx_type i = i1.idx(); i <= i2.idx(); ++i) { // select cell cur.idx() = i; cur.pos() = 0; cur.resetAnchor(); cur.pos() = cur.lastpos(); cur.setSelection(); // change font of cell cur.handleNest(nest); cur.insert(arg); // cur is in the font inset now. If the loop continues, // we need to get outside again for the next cell if (i + 1 <= i2.idx()) cur.pop_back(); } return; } // the complicated case with multiple selected cells in a grid row_type r1, r2; col_type c1, c2; cap::region(i1, i2, r1, r2, c1, c2); for (row_type row = r1; row <= r2; ++row) { for (col_type col = c1; col <= c2; ++col) { // select cell cur.idx() = i1.asInsetMath()->index(row, col); cur.pos() = 0; cur.resetAnchor(); cur.pos() = cur.lastpos(); cur.setSelection(); // cur.handleNest(nest); cur.insert(arg); // cur is in the font inset now. If the loop continues, // we need to get outside again for the next cell if (col + 1 <= c2 || row + 1 <= r2) cur.pop_back(); } } } void InsetMathNest::handleFont2(Cursor & cur, docstring const & arg) { cur.recordUndoSelection(); Font font; bool b; font.fromString(to_utf8(arg), b); if (font.fontInfo().color() != Color_inherit && font.fontInfo().color() != Color_ignore) handleNest(cur, MathAtom(new InsetMathColor(true, font.fontInfo().color()))); // FIXME: support other font changes here as well? } void InsetMathNest::doDispatch(Cursor & cur, FuncRequest & cmd) { //lyxerr << "InsetMathNest: request: " << cmd << endl; Parse::flags parseflg = Parse::QUIET; switch (cmd.action) { case LFUN_CLIPBOARD_PASTE: parseflg |= Parse::VERBATIM; // fall through case LFUN_PASTE: { if (cur.currentMode() == TEXT_MODE) parseflg |= Parse::TEXTMODE; cur.recordUndoSelection(); cur.message(_("Paste")); replaceSelection(cur); docstring topaste; if (cmd.argument().empty() && !theClipboard().isInternal()) topaste = theClipboard().getAsText(); else { size_t n = 0; idocstringstream is(cmd.argument()); is >> n; topaste = cap::selection(n); } cur.niceInsert(topaste, parseflg); cur.clearSelection(); // bug 393 cur.finishUndo(); break; } case LFUN_CUT: cur.recordUndo(); cutSelection(cur, true, true); cur.message(_("Cut")); // Prevent stale position >= size crash // Probably not necessary anymore, see eraseSelection (gb 2005-10-09) cur.normalize(); break; case LFUN_COPY: copySelection(cur); cur.message(_("Copy")); break; case LFUN_MOUSE_PRESS: lfunMousePress(cur, cmd); break; case LFUN_MOUSE_MOTION: lfunMouseMotion(cur, cmd); break; case LFUN_MOUSE_RELEASE: lfunMouseRelease(cur, cmd); break; case LFUN_FINISHED_LEFT: // in math, left is backwards case LFUN_FINISHED_BACKWARD: cur.bv().cursor() = cur; break; case LFUN_FINISHED_RIGHT: // in math, right is forward case LFUN_FINISHED_FORWARD: ++cur.pos(); cur.bv().cursor() = cur; break; case LFUN_CHAR_RIGHT: case LFUN_CHAR_LEFT: case LFUN_CHAR_BACKWARD: case LFUN_CHAR_FORWARD: cur.updateFlags(Update::Decoration | Update::FitCursor); case LFUN_CHAR_RIGHT_SELECT: case LFUN_CHAR_LEFT_SELECT: case LFUN_CHAR_BACKWARD_SELECT: case LFUN_CHAR_FORWARD_SELECT: { // are we in a selection? bool select = (cmd.action == LFUN_CHAR_RIGHT_SELECT || cmd.action == LFUN_CHAR_LEFT_SELECT || cmd.action == LFUN_CHAR_BACKWARD_SELECT || cmd.action == LFUN_CHAR_FORWARD_SELECT); // are we moving forward or backwards? // If the command was RIGHT or LEFT, then whether we're moving forward // or backwards depends on the cursor movement mode (logical or visual): // * in visual mode, since math is always LTR, right -> forward, // left -> backwards // * in logical mode, the mapping is determined by the // reverseDirectionNeeded() function bool forward; FuncCode finish_lfun; if (cmd.action == LFUN_CHAR_FORWARD || cmd.action == LFUN_CHAR_FORWARD_SELECT) { forward = true; finish_lfun = LFUN_FINISHED_FORWARD; } else if (cmd.action == LFUN_CHAR_BACKWARD || cmd.action == LFUN_CHAR_BACKWARD_SELECT) { forward = false; finish_lfun = LFUN_FINISHED_BACKWARD; } else { bool right = (cmd.action == LFUN_CHAR_RIGHT_SELECT || cmd.action == LFUN_CHAR_RIGHT); if (lyxrc.visual_cursor || !reverseDirectionNeeded(cur)) forward = right; else forward = !right; if (right) finish_lfun = LFUN_FINISHED_RIGHT; else finish_lfun = LFUN_FINISHED_LEFT; } // Now that we know exactly what we want to do, let's do it! cur.selHandle(select); cur.autocorrect() = false; cur.clearTargetX(); cur.macroModeClose(); // try moving forward or backwards as necessary... if (!(forward ? cursorMathForward(cur) : cursorMathBackward(cur))) { // ... and if movement failed, then finish forward or backwards // as necessary cmd = FuncRequest(finish_lfun); cur.undispatched(); } break; } case LFUN_DOWN: case LFUN_UP: cur.updateFlags(Update::Decoration | Update::FitCursor); case LFUN_DOWN_SELECT: case LFUN_UP_SELECT: { // close active macro if (cur.inMacroMode()) { cur.macroModeClose(); break; } // stop/start the selection bool select = cmd.action == LFUN_DOWN_SELECT || cmd.action == LFUN_UP_SELECT; cur.selHandle(select); // go up/down bool up = cmd.action == LFUN_UP || cmd.action == LFUN_UP_SELECT; bool successful = cur.upDownInMath(up); if (successful) break; if (cur.fixIfBroken()) // FIXME: Something bad happened. We pass the corrected Cursor // instead of letting things go worse. break; // We did not manage to move the cursor. cur.undispatched(); break; } case LFUN_MOUSE_DOUBLE: case LFUN_MOUSE_TRIPLE: case LFUN_WORD_SELECT: cur.pos() = 0; cur.idx() = 0; cur.resetAnchor(); cur.setSelection(true); cur.pos() = cur.lastpos(); cur.idx() = cur.lastidx(); break; case LFUN_PARAGRAPH_UP: case LFUN_PARAGRAPH_DOWN: cur.updateFlags(Update::Decoration | Update::FitCursor); case LFUN_PARAGRAPH_UP_SELECT: case LFUN_PARAGRAPH_DOWN_SELECT: break; case LFUN_LINE_BEGIN: case LFUN_WORD_BACKWARD: case LFUN_WORD_LEFT: cur.updateFlags(Update::Decoration | Update::FitCursor); case LFUN_LINE_BEGIN_SELECT: case LFUN_WORD_BACKWARD_SELECT: case LFUN_WORD_LEFT_SELECT: cur.selHandle(cmd.action == LFUN_WORD_BACKWARD_SELECT || cmd.action == LFUN_WORD_LEFT_SELECT || cmd.action == LFUN_LINE_BEGIN_SELECT); cur.macroModeClose(); if (cur.pos() != 0) { cur.pos() = 0; } else if (cur.col() != 0) { cur.idx() -= cur.col(); cur.pos() = 0; } else if (cur.idx() != 0) { cur.idx() = 0; cur.pos() = 0; } else { cmd = FuncRequest(LFUN_FINISHED_BACKWARD); cur.undispatched(); } break; case LFUN_WORD_FORWARD: case LFUN_WORD_RIGHT: case LFUN_LINE_END: cur.updateFlags(Update::Decoration | Update::FitCursor); case LFUN_WORD_FORWARD_SELECT: case LFUN_WORD_RIGHT_SELECT: case LFUN_LINE_END_SELECT: cur.selHandle(cmd.action == LFUN_WORD_FORWARD_SELECT || cmd.action == LFUN_WORD_RIGHT_SELECT || cmd.action == LFUN_LINE_END_SELECT); cur.macroModeClose(); cur.clearTargetX(); if (cur.pos() != cur.lastpos()) { cur.pos() = cur.lastpos(); } else if (ncols() && (cur.col() != cur.lastcol())) { cur.idx() = cur.idx() - cur.col() + cur.lastcol(); cur.pos() = cur.lastpos(); } else if (cur.idx() != cur.lastidx()) { cur.idx() = cur.lastidx(); cur.pos() = cur.lastpos(); } else { cmd = FuncRequest(LFUN_FINISHED_FORWARD); cur.undispatched(); } break; case LFUN_CELL_FORWARD: cur.updateFlags(Update::Decoration | Update::FitCursor); cur.inset().idxNext(cur); break; case LFUN_CELL_BACKWARD: cur.updateFlags(Update::Decoration | Update::FitCursor); cur.inset().idxPrev(cur); break; case LFUN_WORD_DELETE_BACKWARD: case LFUN_CHAR_DELETE_BACKWARD: if (cur.pos() == 0) // May affect external cell: cur.recordUndoInset(); else cur.recordUndoSelection(); // if the inset can not be removed from within, delete it if (!cur.backspace()) { FuncRequest cmd = FuncRequest(LFUN_CHAR_DELETE_FORWARD); cur.innerText()->dispatch(cur, cmd); } break; case LFUN_WORD_DELETE_FORWARD: case LFUN_CHAR_DELETE_FORWARD: if (cur.pos() == cur.lastpos()) // May affect external cell: cur.recordUndoInset(); else cur.recordUndoSelection(); // if the inset can not be removed from within, delete it if (!cur.erase()) { FuncRequest cmd = FuncRequest(LFUN_CHAR_DELETE_FORWARD); cur.innerText()->dispatch(cur, cmd); } break; case LFUN_ESCAPE: if (cur.selection()) cur.clearSelection(); else { cmd = FuncRequest(LFUN_FINISHED_FORWARD); cur.undispatched(); } break; // 'Locks' the math inset. A 'locked' math inset behaves as a unit // that is traversed by a single /. case LFUN_INSET_TOGGLE: cur.recordUndo(); lock(!lock()); cur.popForward(); break; case LFUN_SELF_INSERT: if (cmd.argument().size() != 1) { cur.recordUndoSelection(); docstring const arg = cmd.argument(); if (!interpretString(cur, arg)) cur.insert(arg); break; } // Don't record undo steps if we are in macro mode and // cmd.argument is the next character of the macro name. // Otherwise we'll get an invalid cursor if we undo after // the macro was finished and the macro is a known command, // e.g. sqrt. Cursor::macroModeClose replaces in this case // the InsetMathUnknown with name "frac" by an empty // InsetMathFrac -> a pos value > 0 is invalid. // A side effect is that an undo before the macro is finished // undoes the complete macro, not only the last character. if (!cur.inMacroMode()) cur.recordUndoSelection(); // spacial handling of space. If we insert an inset // via macro mode, we want to put the cursor inside it // if relevant. Think typing "\frac". if (cmd.argument()[0] == ' ' && cur.inMacroMode() && cur.macroName() != "\\" && cur.macroModeClose()) { MathAtom const atom = cur.prevAtom(); if (atom->asNestInset() && atom->isActive()) { cur.posBackward(); cur.pushBackward(*cur.nextInset()); } } else if (!interpretChar(cur, cmd.argument()[0])) { cmd = FuncRequest(LFUN_FINISHED_FORWARD); cur.undispatched(); } break; //case LFUN_SERVER_GET_XY: // sprintf(dispatch_buffer, "%d %d",); // break; case LFUN_SERVER_SET_XY: { lyxerr << "LFUN_SERVER_SET_XY broken!" << endl; int x = 0; int y = 0; istringstream is(to_utf8(cmd.argument())); is >> x >> y; cur.setScreenPos(x, y); break; } // Special casing for superscript in case of LyX handling // dead-keys: case LFUN_ACCENT_CIRCUMFLEX: if (cmd.argument().empty()) { // do superscript if LyX handles // deadkeys cur.recordUndoSelection(); script(cur, true, grabAndEraseSelection(cur)); } break; case LFUN_ACCENT_UMLAUT: case LFUN_ACCENT_ACUTE: case LFUN_ACCENT_GRAVE: case LFUN_ACCENT_BREVE: case LFUN_ACCENT_DOT: case LFUN_ACCENT_MACRON: case LFUN_ACCENT_CARON: case LFUN_ACCENT_TILDE: case LFUN_ACCENT_CEDILLA: case LFUN_ACCENT_CIRCLE: case LFUN_ACCENT_UNDERDOT: case LFUN_ACCENT_TIE: case LFUN_ACCENT_OGONEK: case LFUN_ACCENT_HUNGARIAN_UMLAUT: break; // Math fonts case LFUN_TEXTSTYLE_APPLY: case LFUN_TEXTSTYLE_UPDATE: handleFont2(cur, cmd.argument()); break; case LFUN_FONT_BOLD: if (currentMode() == TEXT_MODE) handleFont(cur, cmd.argument(), "textbf"); else handleFont(cur, cmd.argument(), "mathbf"); break; case LFUN_FONT_BOLDSYMBOL: if (currentMode() == TEXT_MODE) handleFont(cur, cmd.argument(), "textbf"); else handleFont(cur, cmd.argument(), "boldsymbol"); break; case LFUN_FONT_SANS: if (currentMode() == TEXT_MODE) handleFont(cur, cmd.argument(), "textsf"); else handleFont(cur, cmd.argument(), "mathsf"); break; case LFUN_FONT_EMPH: if (currentMode() == TEXT_MODE) handleFont(cur, cmd.argument(), "emph"); else handleFont(cur, cmd.argument(), "mathcal"); break; case LFUN_FONT_ROMAN: if (currentMode() == TEXT_MODE) handleFont(cur, cmd.argument(), "textrm"); else handleFont(cur, cmd.argument(), "mathrm"); break; case LFUN_FONT_TYPEWRITER: if (currentMode() == TEXT_MODE) handleFont(cur, cmd.argument(), "texttt"); else handleFont(cur, cmd.argument(), "mathtt"); break; case LFUN_FONT_FRAK: handleFont(cur, cmd.argument(), "mathfrak"); break; case LFUN_FONT_ITAL: if (currentMode() == TEXT_MODE) handleFont(cur, cmd.argument(), "textit"); else handleFont(cur, cmd.argument(), "mathit"); break; case LFUN_FONT_NOUN: if (currentMode() == TEXT_MODE) // FIXME: should be "noun" handleFont(cur, cmd.argument(), "textsc"); else handleFont(cur, cmd.argument(), "mathbb"); break; case LFUN_FONT_DEFAULT: handleFont(cur, cmd.argument(), "textnormal"); break; case LFUN_MATH_MODE: { #if 1 // ignore math-mode on when already in math mode if (currentMode() == Inset::MATH_MODE && cmd.argument() == "on") break; cur.recordUndoSelection(); cur.macroModeClose(); docstring const save_selection = grabAndEraseSelection(cur); selClearOrDel(cur); //cur.plainInsert(MathAtom(new InsetMathMBox(cur.bv()))); cur.plainInsert(MathAtom(new InsetMathBox(from_ascii("mbox")))); cur.posBackward(); cur.pushBackward(*cur.nextInset()); cur.niceInsert(save_selection); #else if (currentMode() == Inset::TEXT_MODE) { cur.recordUndoSelection(); cur.niceInsert(MathAtom(new InsetMathHull("simple"))); cur.message(_("create new math text environment ($...$)")); } else { handleFont(cur, cmd.argument(), "textrm"); cur.message(_("entered math text mode (textrm)")); } #endif break; } case LFUN_MATH_SIZE: { FuncRequest fr = FuncRequest(LFUN_MATH_INSERT, cmd.argument()); doDispatch(cur, fr); break; } case LFUN_MATH_MATRIX: { cur.recordUndo(); unsigned int m = 1; unsigned int n = 1; docstring v_align; docstring h_align; idocstringstream is(cmd.argument()); is >> m >> n >> v_align >> h_align; if (m < 1) m = 1; if (n < 1) n = 1; v_align += 'c'; cur.niceInsert( MathAtom(new InsetMathArray(from_ascii("array"), m, n, (char)v_align[0], h_align))); break; } case LFUN_MATH_DELIM: { docstring ls; docstring rs = split(cmd.argument(), ls, ' '); // Reasonable default values if (ls.empty()) ls = '('; if (rs.empty()) rs = ')'; cur.recordUndo(); cur.handleNest(MathAtom(new InsetMathDelim(ls, rs))); break; } case LFUN_MATH_BIGDELIM: { docstring const lname = from_utf8(cmd.getArg(0)); docstring const ldelim = from_utf8(cmd.getArg(1)); docstring const rname = from_utf8(cmd.getArg(2)); docstring const rdelim = from_utf8(cmd.getArg(3)); latexkeys const * l = in_word_set(lname); bool const have_l = l && l->inset == "big" && InsetMathBig::isBigInsetDelim(ldelim); l = in_word_set(rname); bool const have_r = l && l->inset == "big" && InsetMathBig::isBigInsetDelim(rdelim); // We mimic LFUN_MATH_DELIM in case we have an empty left // or right delimiter. if (have_l || have_r) { cur.recordUndo(); docstring const selection = grabAndEraseSelection(cur); selClearOrDel(cur); if (have_l) cur.insert(MathAtom(new InsetMathBig(lname, ldelim))); cur.niceInsert(selection); if (have_r) cur.insert(MathAtom(new InsetMathBig(rname, rdelim))); } // Don't call cur.undispatched() if we did nothing, this would // lead to infinite recursion via Text::dispatch(). break; } case LFUN_SPACE_INSERT: cur.recordUndoSelection(); cur.insert(MathAtom(new InsetMathSpace(from_ascii(",")))); break; case LFUN_MATH_SPACE: cur.recordUndoSelection(); if (cmd.argument().empty()) cur.insert(MathAtom(new InsetMathSpace(from_ascii(",")))); else cur.insert(MathAtom(new InsetMathSpace(cmd.argument()))); break; case LFUN_ERT_INSERT: // interpret this as if a backslash was typed cur.recordUndo(); interpretChar(cur, '\\'); break; case LFUN_MATH_SUBSCRIPT: // interpret this as if a _ was typed cur.recordUndoSelection(); interpretChar(cur, '_'); break; case LFUN_MATH_SUPERSCRIPT: // interpret this as if a ^ was typed cur.recordUndoSelection(); interpretChar(cur, '^'); break; case LFUN_MATH_MACRO_FOLD: case LFUN_MATH_MACRO_UNFOLD: { Cursor it = cur; bool fold = cmd.action == LFUN_MATH_MACRO_FOLD; bool found = findMacroToFoldUnfold(it, fold); if (found) { MathMacro * macro = it.nextInset()->asInsetMath()->asMacro(); cur.recordUndoInset(); if (fold) macro->fold(cur); else macro->unfold(cur); } break; } case LFUN_QUOTE_INSERT: // interpret this as if a straight " was typed cur.recordUndoSelection(); interpretChar(cur, '\"'); break; // FIXME: We probably should swap parts of "math-insert" and "self-insert" // handling such that "self-insert" works on "arbitrary stuff" too, and // math-insert only handles special math things like "matrix". case LFUN_MATH_INSERT: { cur.recordUndoSelection(); if (cmd.argument() == "^" || cmd.argument() == "_") interpretChar(cur, cmd.argument()[0]); else { MathData ar; asArray(cmd.argument(), ar); if (ar.size() == 1 && ar[0]->asNestInset() && ar[0]->asNestInset()->nargs() > 1) handleNest(cur, ar[0]); else cur.niceInsert(cmd.argument()); } break; } case LFUN_DIALOG_SHOW_NEW_INSET: { docstring const & name = cmd.argument(); string data; if (name == "ref") { InsetMathRef tmp(name); data = tmp.createDialogStr(to_utf8(name)); } cur.bv().showDialog(to_utf8(name), data); break; } case LFUN_INSET_INSERT: { MathData ar; if (createInsetMath_fromDialogStr(cmd.argument(), ar)) { cur.recordUndoSelection(); cur.insert(ar); } else cur.undispatched(); break; } case LFUN_INSET_DISSOLVE: if (!asHullInset()) { cur.recordUndoInset(); cur.pullArg(); } break; default: InsetMath::doDispatch(cur, cmd); break; } } bool InsetMathNest::findMacroToFoldUnfold(Cursor & it, bool fold) const { // look for macro to open/close, but stay in mathed for (; !it.empty(); it.pop_back()) { // go backward through the current cell Inset * inset = it.nextInset(); while (inset && inset->asInsetMath()) { MathMacro * macro = inset->asInsetMath()->asMacro(); if (macro) { // found the an macro to open/close? if (macro->folded() != fold) return true; // Wrong folding state. // If this was the first we see in this slice, look further left, // otherwise go up. if (inset != it.nextInset()) break; } // go up if this was the left most position if (it.pos() == 0) break; // go left it.pos()--; inset = it.nextInset(); } } return false; } bool InsetMathNest::getStatus(Cursor & cur, FuncRequest const & cmd, FuncStatus & flag) const { // the font related toggles //string tc = "mathnormal"; bool ret = true; string const arg = to_utf8(cmd.argument()); switch (cmd.action) { case LFUN_TABULAR_FEATURE: flag.setEnabled(false); break; #if 0 case LFUN_TABULAR_FEATURE: // FIXME: check temporarily disabled // valign code char align = mathcursor::valign(); if (align == '\0') { enable = false; break; } if (cmd.argument().empty()) { flag.clear(); break; } if (!contains("tcb", cmd.argument()[0])) { enable = false; break; } flag.setOnOff(cmd.argument()[0] == align); break; #endif /// We have to handle them since 1.4 blocks all unhandled actions case LFUN_FONT_ITAL: case LFUN_FONT_BOLD: case LFUN_FONT_BOLDSYMBOL: case LFUN_FONT_SANS: case LFUN_FONT_EMPH: case LFUN_FONT_TYPEWRITER: case LFUN_FONT_NOUN: case LFUN_FONT_ROMAN: case LFUN_FONT_DEFAULT: flag.setEnabled(true); break; case LFUN_MATH_MUTATE: //flag.setOnOff(mathcursor::formula()->hullType() == to_utf8(cmd.argument())); flag.setOnOff(false); break; // we just need to be in math mode to enable that case LFUN_MATH_SIZE: case LFUN_MATH_SPACE: case LFUN_MATH_LIMITS: case LFUN_MATH_EXTERN: flag.setEnabled(true); break; case LFUN_FONT_FRAK: flag.setEnabled(currentMode() != TEXT_MODE); break; case LFUN_MATH_INSERT: { bool const textarg = arg == "\\textbf" || arg == "\\textsf" || arg == "\\textrm" || arg == "\\textmd" || arg == "\\textit" || arg == "\\textsc" || arg == "\\textsl" || arg == "\\textup" || arg == "\\texttt" || arg == "\\textbb" || arg == "\\textnormal"; flag.setEnabled(currentMode() != TEXT_MODE || textarg); break; } case LFUN_MATH_MATRIX: flag.setEnabled(currentMode() == MATH_MODE); break; case LFUN_INSET_INSERT: { // Don't test createMathInset_fromDialogStr(), since // getStatus is not called with a valid reference and the // dialog would not be applyable. string const name = cmd.getArg(0); flag.setEnabled(name == "ref"); break; } case LFUN_MATH_DELIM: case LFUN_MATH_BIGDELIM: // Don't do this with multi-cell selections flag.setEnabled(cur.selBegin().idx() == cur.selEnd().idx()); break; case LFUN_MATH_MACRO_FOLD: case LFUN_MATH_MACRO_UNFOLD: { Cursor it = cur; bool found = findMacroToFoldUnfold(it, cmd.action == LFUN_MATH_MACRO_FOLD); flag.setEnabled(found); break; } case LFUN_SPECIALCHAR_INSERT: // FIXME: These would probably make sense in math-text mode flag.setEnabled(false); break; case LFUN_INSET_DISSOLVE: flag.setEnabled(!asHullInset()); break; default: ret = false; break; } return ret; } void InsetMathNest::edit(Cursor & cur, bool front, EntryDirection entry_from) { cur.push(*this); bool enter_front = (entry_from == Inset::ENTRY_DIRECTION_RIGHT || (entry_from == Inset::ENTRY_DIRECTION_IGNORE && front)); cur.idx() = enter_front ? 0 : cur.lastidx(); cur.pos() = enter_front ? 0 : cur.lastpos(); cur.resetAnchor(); //lyxerr << "InsetMathNest::edit, cur:\n" << cur << endl; } Inset * InsetMathNest::editXY(Cursor & cur, int x, int y) { int idx_min = 0; int dist_min = 1000000; for (idx_type i = 0, n = nargs(); i != n; ++i) { int const d = cell(i).dist(cur.bv(), x, y); if (d < dist_min) { dist_min = d; idx_min = i; } } MathData & ar = cell(idx_min); cur.push(*this); cur.idx() = idx_min; cur.pos() = ar.x2pos(&cur.bv(), x - ar.xo(cur.bv())); //lyxerr << "found cell : " << idx_min << " pos: " << cur.pos() << endl; if (dist_min == 0) { // hit inside cell for (pos_type i = 0, n = ar.size(); i < n; ++i) if (ar[i]->covers(cur.bv(), x, y)) return ar[i].nucleus()->editXY(cur, x, y); } return this; } void InsetMathNest::lfunMousePress(Cursor & cur, FuncRequest & cmd) { //lyxerr << "## lfunMousePress: buttons: " << cmd.button() << endl; BufferView & bv = cur.bv(); bool do_selection = cmd.button() == mouse_button::button1 && cmd.argument() == "region-select"; bv.mouseSetCursor(cur, do_selection); if (cmd.button() == mouse_button::button1) { //lyxerr << "## lfunMousePress: setting cursor to: " << cur << endl; // Update the cursor update flags as needed: // // Update::Decoration: tells to update the decoration // (visual box corners that define // the inset)/ // Update::FitCursor: adjust the screen to the cursor // position if needed // cur.result().update(): don't overwrite previously set flags. cur.updateFlags(Update::Decoration | Update::FitCursor | cur.result().update()); } else if (cmd.button() == mouse_button::button2) { if (cap::selection()) { // See comment in Text::dispatch why we do this cap::copySelectionToStack(); cmd = FuncRequest(LFUN_PASTE, "0"); doDispatch(bv.cursor(), cmd); } else { MathData ar; asArray(theSelection().get(), ar); bv.cursor().insert(ar); } } } void InsetMathNest::lfunMouseMotion(Cursor & cur, FuncRequest & cmd) { // only select with button 1 if (cmd.button() == mouse_button::button1) { Cursor & bvcur = cur.bv().cursor(); if (bvcur.anchor_.hasPart(cur)) { //lyxerr << "## lfunMouseMotion: cursor: " << cur << endl; bvcur.setCursor(cur); bvcur.setSelection(true); //lyxerr << "MOTION " << bvcur << endl; } else cur.undispatched(); } } void InsetMathNest::lfunMouseRelease(Cursor & cur, FuncRequest & cmd) { //lyxerr << "## lfunMouseRelease: buttons: " << cmd.button() << endl; if (cmd.button() == mouse_button::button1) { if (!cur.selection()) cur.noUpdate(); else { Cursor & bvcur = cur.bv().cursor(); bvcur.setSelection(true); } return; } cur.undispatched(); } bool InsetMathNest::interpretChar(Cursor & cur, char_type c) { //lyxerr << "interpret 2: '" << c << "'" << endl; docstring save_selection; if (c == '^' || c == '_') save_selection = grabAndEraseSelection(cur); cur.clearTargetX(); // handle macroMode if (cur.inMacroMode()) { docstring name = cur.macroName(); /// are we currently typing '#1' or '#2' or...? if (name == "\\#") { cur.backspace(); int n = c - '0'; if (n >= 1 && n <= 9) cur.insert(new MathMacroArgument(n)); return true; } // do not finish macro for known * commands MathWordList const & mwl = mathedWordList(); bool star_macro = c == '*' && (mwl.find(name.substr(1) + "*") != mwl.end() || cur.buffer().getMacro(name.substr(1) + "*", cur, true)); if (isAlphaASCII(c) || star_macro) { cur.activeMacro()->setName(name + docstring(1, c)); return true; } // handle 'special char' macros if (name == "\\") { // remove the '\\' if (c == '\\') { cur.backspace(); if (currentMode() == InsetMath::TEXT_MODE) cur.niceInsert(createInsetMath("textbackslash")); else cur.niceInsert(createInsetMath("backslash")); } else if (c == '^' && currentMode() == InsetMath::MATH_MODE) { cur.backspace(); cur.niceInsert(createInsetMath("mathcircumflex")); } else if (c == '{') { cur.backspace(); cur.niceInsert(MathAtom(new InsetMathBrace)); } else if (c == '%') { cur.backspace(); cur.niceInsert(MathAtom(new InsetMathComment)); } else if (c == '#') { LASSERT(cur.activeMacro(), /**/); cur.activeMacro()->setName(name + docstring(1, c)); } else { cur.backspace(); cur.niceInsert(createInsetMath(docstring(1, c))); } return true; } // One character big delimiters. The others are handled in // interpretString(). latexkeys const * l = in_word_set(name.substr(1)); if (name[0] == '\\' && l && l->inset == "big") { docstring delim; switch (c) { case '{': delim = from_ascii("\\{"); break; case '}': delim = from_ascii("\\}"); break; default: delim = docstring(1, c); break; } if (InsetMathBig::isBigInsetDelim(delim)) { // name + delim ared a valid InsetMathBig. // We can't use cur.macroModeClose() because // it does not handle delim. InsetMathUnknown * p = cur.activeMacro(); p->finalize(); --cur.pos(); cur.cell().erase(cur.pos()); cur.plainInsert(MathAtom( new InsetMathBig(name.substr(1), delim))); return true; } } // leave macro mode and try again if necessary cur.macroModeClose(); if (c == '{') cur.niceInsert(MathAtom(new InsetMathBrace)); else if (c != ' ') interpretChar(cur, c); return true; } // This is annoying as one has to press far too often. // Disable it. #if 0 // leave autocorrect mode if necessary if (autocorrect() && c == ' ') { autocorrect() = false; return true; } #endif // just clear selection on pressing the space bar if (cur.selection() && c == ' ') { cur.setSelection(false); return true; } if (c == '\\') { //lyxerr << "starting with macro" << endl; bool reduced = cap::reduceSelectionToOneCell(cur); if (reduced || !cur.selection()) { docstring const safe = cap::grabAndEraseSelection(cur); cur.insert(MathAtom(new InsetMathUnknown(from_ascii("\\"), safe, false))); } return true; } selClearOrDel(cur); if (c == '\n') { if (currentMode() == InsetMath::TEXT_MODE) cur.insert(c); return true; } if (c == ' ') { if (currentMode() == InsetMath::TEXT_MODE) { // insert spaces in text mode, // but suppress direct insertion of two spaces in a row // the still allows typing 'a' and deleting the 'a', but // it is better than nothing... if (!cur.pos() != 0 || cur.prevAtom()->getChar() != ' ') { cur.insert(c); // FIXME: we have to enable full redraw here because of the // visual box corners that define the inset. If we know for // sure that we stay within the same cell we can optimize for // that using: //cur.updateFlags(Update::SinglePar | Update::FitCursor); } return true; } if (cur.pos() != 0 && cur.prevAtom()->asSpaceInset()) { cur.prevAtom().nucleus()->asSpaceInset()->incSpace(); // FIXME: we have to enable full redraw here because of the // visual box corners that define the inset. If we know for // sure that we stay within the same cell we can optimize for // that using: //cur.updateFlags(Update::SinglePar | Update::FitCursor); return true; } if (cur.popForward()) { // FIXME: we have to enable full redraw here because of the // visual box corners that define the inset. If we know for // sure that we stay within the same cell we can optimize for // that using: //cur.updateFlags(Update::FitCursor); return true; } // if we are at the very end, leave the formula return cur.pos() != cur.lastpos(); } // These should be treated differently when not in text mode: if (currentMode() != InsetMath::TEXT_MODE) { if (c == '_') { script(cur, false, save_selection); return true; } if (c == '^') { script(cur, true, save_selection); return true; } if (c == '~') { cur.niceInsert(createInsetMath("sim")); return true; } } else { if (c == '^') { cur.niceInsert(createInsetMath("textasciicircum")); return true; } if (c == '~') { cur.niceInsert(createInsetMath("textasciitilde")); return true; } } if (c == '{' || c == '}' || c == '&' || c == '$' || c == '#' || c == '%' || c == '_') { cur.niceInsert(createInsetMath(docstring(1, c))); return true; } // try auto-correction //if (autocorrect() && hasPrevAtom() && math_autocorrect(prevAtom(), c)) // return true; // no special circumstances, so insert the character without any fuss cur.insert(c); cur.autocorrect() = true; return true; } bool InsetMathNest::interpretString(Cursor & cur, docstring const & str) { // Create a InsetMathBig from cur.cell()[cur.pos() - 1] and t if // possible if (!cur.empty() && cur.pos() > 0 && cur.cell()[cur.pos() - 1]->asUnknownInset()) { if (InsetMathBig::isBigInsetDelim(str)) { docstring prev = asString(cur.cell()[cur.pos() - 1]); if (prev[0] == '\\') { prev = prev.substr(1); latexkeys const * l = in_word_set(prev); if (l && l->inset == "big") { cur.cell()[cur.pos() - 1] = MathAtom(new InsetMathBig(prev, str)); return true; } } } } return false; } bool InsetMathNest::script(Cursor & cur, bool up) { return script(cur, up, docstring()); } bool InsetMathNest::script(Cursor & cur, bool up, docstring const & save_selection) { // Hack to get \^ and \_ working //lyxerr << "handling script: up: " << up << endl; if (cur.inMacroMode() && cur.macroName() == "\\") { if (up) cur.niceInsert(createInsetMath("mathcircumflex")); else interpretChar(cur, '_'); return true; } cur.macroModeClose(); if (asScriptInset() && cur.idx() == 0) { // we are in a nucleus of a script inset, move to _our_ script InsetMathScript * inset = asScriptInset(); //lyxerr << " going to cell " << inset->idxOfScript(up) << endl; inset->ensure(up); cur.idx() = inset->idxOfScript(up); cur.pos() = 0; } else if (cur.pos() != 0 && cur.prevAtom()->asScriptInset()) { --cur.pos(); InsetMathScript * inset = cur.nextAtom().nucleus()->asScriptInset(); cur.push(*inset); inset->ensure(up); cur.idx() = inset->idxOfScript(up); cur.pos() = cur.lastpos(); } else { // convert the thing to our left to a scriptinset or create a new // one if in the very first position of the array if (cur.pos() == 0) { //lyxerr << "new scriptinset" << endl; cur.insert(new InsetMathScript(up)); } else { //lyxerr << "converting prev atom " << endl; cur.prevAtom() = MathAtom(new InsetMathScript(cur.prevAtom(), up)); } --cur.pos(); InsetMathScript * inset = cur.nextAtom().nucleus()->asScriptInset(); // See comment in MathParser.cpp for special handling of {}-bases cur.push(*inset); cur.idx() = 1; cur.pos() = 0; } //lyxerr << "inserting selection 1:\n" << save_selection << endl; cur.niceInsert(save_selection); cur.resetAnchor(); //lyxerr << "inserting selection 2:\n" << save_selection << endl; return true; } bool InsetMathNest::completionSupported(Cursor const & cur) const { return cur.inMacroMode(); } bool InsetMathNest::inlineCompletionSupported(Cursor const & cur) const { return cur.inMacroMode(); } bool InsetMathNest::automaticInlineCompletion() const { return lyxrc.completion_inline_math; } bool InsetMathNest::automaticPopupCompletion() const { return lyxrc.completion_popup_math; } CompletionList const * InsetMathNest::createCompletionList(Cursor const & cur) const { if (!cur.inMacroMode()) return 0; return new MathCompletionList(cur); } docstring InsetMathNest::completionPrefix(Cursor const & cur) const { if (!cur.inMacroMode()) return docstring(); return cur.activeMacro()->name(); } bool InsetMathNest::insertCompletion(Cursor & cur, docstring const & s, bool finished) { if (!cur.inMacroMode()) return false; // append completion to active macro InsetMathUnknown * inset = cur.activeMacro(); inset->setName(inset->name() + s); // finish macro if (finished) { #if 0 // FIXME: this creates duplicates in the completion popup // which looks ugly. Moreover the changes the list lengths // which seems to confuse the popup as well. MathCompletionList::addToFavorites(inset->name()); #endif lyx::dispatch(FuncRequest(LFUN_SELF_INSERT, " ")); } return true; } void InsetMathNest::completionPosAndDim(Cursor const & cur, int & x, int & y, Dimension & dim) const { Inset const * inset = cur.activeMacro(); if (!inset) return; // get inset dimensions dim = cur.bv().coordCache().insets().dim(inset); // FIXME: these 3 are no accurate, but should depend on the font. // Now the popup jumps down if you enter a char with descent > 0. dim.des += 3; dim.asc += 3; // and position Point xy = cur.bv().coordCache().insets().xy(inset); x = xy.x_; y = xy.y_; } bool InsetMathNest::cursorMathForward(Cursor & cur) { if (cur.pos() != cur.lastpos() && cur.openable(cur.nextAtom())) { cur.pushBackward(*cur.nextAtom().nucleus()); cur.inset().idxFirst(cur); return true; } if (cur.posForward() || idxForward(cur)) return true; // try to pop forwards --- but don't pop out of math! leave that to // the FINISH lfuns int s = cur.depth() - 2; if (s >= 0 && cur[s].inset().asInsetMath()) return cur.popForward(); return false; } bool InsetMathNest::cursorMathBackward(Cursor & cur) { if (cur.pos() != 0 && cur.openable(cur.prevAtom())) { cur.posBackward(); cur.push(*cur.nextAtom().nucleus()); cur.inset().idxLast(cur); return true; } if (cur.posBackward() || idxBackward(cur)) return true; // try to pop backwards --- but don't pop out of math! leave that to // the FINISH lfuns int s = cur.depth() - 2; if (s >= 0 && cur[s].inset().asInsetMath()) return cur.popBackward(); return false; } //////////////////////////////////////////////////////////////////// MathCompletionList::MathCompletionList(Cursor const & cur) { // fill it with macros from the buffer MacroNameSet macros; cur.buffer().listMacroNames(macros); MacroNameSet::const_iterator it; for (it = macros.begin(); it != macros.end(); ++it) { if (cur.buffer().getMacro(*it, cur, false)) locals.push_back("\\" + *it); } sort(locals.begin(), locals.end()); if (globals.size() > 0) return; // fill in global macros macros.clear(); MacroTable::globalMacros().getMacroNames(macros); //lyxerr << "Globals completion macros: "; for (it = macros.begin(); it != macros.end(); ++it) { //lyxerr << "\\" + *it << " "; globals.push_back("\\" + *it); } //lyxerr << std::endl; // fill in global commands globals.push_back(from_ascii("\\boxed")); globals.push_back(from_ascii("\\fbox")); globals.push_back(from_ascii("\\framebox")); globals.push_back(from_ascii("\\makebox")); globals.push_back(from_ascii("\\kern")); globals.push_back(from_ascii("\\xrightarrow")); globals.push_back(from_ascii("\\xleftarrow")); globals.push_back(from_ascii("\\split")); globals.push_back(from_ascii("\\gathered")); globals.push_back(from_ascii("\\aligned")); globals.push_back(from_ascii("\\alignedat")); globals.push_back(from_ascii("\\cases")); globals.push_back(from_ascii("\\substack")); globals.push_back(from_ascii("\\xymatrix")); globals.push_back(from_ascii("\\subarray")); globals.push_back(from_ascii("\\array")); globals.push_back(from_ascii("\\sqrt")); globals.push_back(from_ascii("\\root")); globals.push_back(from_ascii("\\tabular")); globals.push_back(from_ascii("\\stackrel")); globals.push_back(from_ascii("\\binom")); globals.push_back(from_ascii("\\choose")); globals.push_back(from_ascii("\\brace")); globals.push_back(from_ascii("\\brack")); globals.push_back(from_ascii("\\frac")); globals.push_back(from_ascii("\\over")); globals.push_back(from_ascii("\\nicefrac")); globals.push_back(from_ascii("\\unitfrac")); globals.push_back(from_ascii("\\unitfracthree")); globals.push_back(from_ascii("\\unitone")); globals.push_back(from_ascii("\\unittwo")); globals.push_back(from_ascii("\\infer")); globals.push_back(from_ascii("\\atop")); globals.push_back(from_ascii("\\lefteqn")); globals.push_back(from_ascii("\\boldsymbol")); globals.push_back(from_ascii("\\bm")); globals.push_back(from_ascii("\\color")); globals.push_back(from_ascii("\\normalcolor")); globals.push_back(from_ascii("\\textcolor")); globals.push_back(from_ascii("\\dfrac")); globals.push_back(from_ascii("\\tfrac")); globals.push_back(from_ascii("\\dbinom")); globals.push_back(from_ascii("\\tbinom")); globals.push_back(from_ascii("\\hphantom")); globals.push_back(from_ascii("\\phantom")); globals.push_back(from_ascii("\\vphantom")); MathWordList const & words = mathedWordList(); MathWordList::const_iterator it2; //lyxerr << "Globals completion commands: "; for (it2 = words.begin(); it2 != words.end(); ++it2) { globals.push_back("\\" + (*it2).first); //lyxerr << "\\" + (*it2).first << " "; } //lyxerr << std::endl; sort(globals.begin(), globals.end()); } MathCompletionList::~MathCompletionList() { } size_type MathCompletionList::size() const { return locals.size() + globals.size(); } docstring const & MathCompletionList::data(size_t idx) const { size_t lsize = locals.size(); if (idx >= lsize) return globals[idx - lsize]; else return locals[idx]; } std::string MathCompletionList::icon(size_t idx) const { // get the latex command docstring cmd; size_t lsize = locals.size(); if (idx >= lsize) cmd = globals[idx - lsize]; else cmd = locals[idx]; // get the icon resource name by stripping the backslash return "images/math/" + to_utf8(cmd.substr(1)) + ".png"; } std::vector MathCompletionList::globals; } // namespace lyx