# Copyright (C) 1992-1998, 2000-2016 Free Software Foundation, Inc. # # This file is part of GNU Emacs. # # GNU Emacs is free software; you can redistribute it and/or modify # it under the terms of the GNU General Public License as published by # the Free Software Foundation; either version 3, or (at your option) # any later version. # # GNU Emacs is distributed in the hope that it will be useful, # but WITHOUT ANY WARRANTY; without even the implied warranty of # MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the # GNU General Public License for more details. # # You should have received a copy of the GNU General Public License # along with GNU Emacs. If not, see . # Force loading of symbols, enough to give us VALBITS etc. set $dummy = main + 8 # With some compilers, we need this to give us struct Lisp_Symbol etc.: set $dummy = Fmake_symbol + 8 # Find lwlib source files too. dir ../lwlib #dir /gd/gnu/lesstif-0.89.9/lib/Xm # Don't enter GDB when user types C-g to quit. # This has one unfortunate effect: you can't type C-c # at the GDB to stop Emacs, when using X. # However, C-z works just as well in that case. handle 2 noprint pass # Make it work like SIGINT normally does. handle SIGTSTP nopass # Pass on user signals handle SIGUSR1 noprint pass handle SIGUSR2 noprint pass # Don't pass SIGALRM to Emacs. This makes problems when # debugging. handle SIGALRM ignore # Use $bugfix so that the value isn't a constant. # Using a constant runs into GDB bugs sometimes. define xgetptr if (CHECK_LISP_OBJECT_TYPE) set $bugfix = $arg0.i else set $bugfix = $arg0 end set $ptr = $bugfix & VALMASK end define xgetint if (CHECK_LISP_OBJECT_TYPE) set $bugfix = $arg0.i else set $bugfix = $arg0 end set $int = $bugfix << (USE_LSB_TAG ? 0 : INTTYPEBITS) >> INTTYPEBITS end define xgettype if (CHECK_LISP_OBJECT_TYPE) set $bugfix = $arg0.i else set $bugfix = $arg0 end set $type = (enum Lisp_Type) (USE_LSB_TAG ? $bugfix & (1 << GCTYPEBITS) - 1 : (EMACS_UINT) $bugfix >> VALBITS) end define xgetsym xgetptr $arg0 set $ptr = ((struct Lisp_Symbol *) ((char *)lispsym + $ptr)) end # Access the name of a symbol define xsymname xgetsym $arg0 set $symname = $ptr->name end # Set up something to print out s-expressions. # We save and restore print_output_debug_flag to prevent the w32 port # from calling OutputDebugString, which causes GDB to display each # character twice (yuk!). define pr pp $ end document pr Print the emacs s-expression which is $. Works only when an inferior emacs is executing. end # Print out s-expressions define pp set $tmp = $arg0 set $output_debug = print_output_debug_flag set print_output_debug_flag = 0 call safe_debug_print ($tmp) set print_output_debug_flag = $output_debug end document pp Print the argument as an emacs s-expression Works only when an inferior emacs is executing. end # Print value of lisp variable define pv set $tmp = "$arg0" set $output_debug = print_output_debug_flag set print_output_debug_flag = 0 call safe_debug_print (find_symbol_value (intern ($tmp))) set print_output_debug_flag = $output_debug end document pv Print the value of the lisp variable given as argument. Works only when an inferior emacs is executing. end # Print out current buffer point and boundaries define ppt set $b = current_buffer set $t = $b->text printf "BUF PT: %d", $b->pt if ($b->pt != $b->pt_byte) printf "[%d]", $b->pt_byte end printf " of 1..%d", $t->z if ($t->z != $t->z_byte) printf "[%d]", $t->z_byte end if ($b->begv != 1 || $b->zv != $t->z) printf " NARROW=%d..%d", $b->begv, $b->zv if ($b->begv != $b->begv_byte || $b->zv != $b->zv_byte) printf " [%d..%d]", $b->begv_byte, $b->zv_byte end end printf " GAP: %d", $t->gpt if ($t->gpt != $t->gpt_byte) printf "[%d]", $t->gpt_byte end printf " SZ=%d\n", $t->gap_size end document ppt Print current buffer's point and boundaries. Prints values of point, beg, end, narrow, and gap for current buffer. end define pitmethod set $itmethod = $arg0 # output $itmethod if ($itmethod == 0) printf "GET_FROM_BUFFER" end if ($itmethod == 1) printf "GET_FROM_DISPLAY_VECTOR" end if ($itmethod == 2) printf "GET_FROM_STRING" end if ($itmethod == 3) printf "GET_FROM_C_STRING" end if ($itmethod == 4) printf "GET_FROM_IMAGE" end if ($itmethod == 5) printf "GET_FROM_STRETCH" end if ($itmethod < 0 || $itmethod > 5) output $itmethod end end document pitmethod Pretty print it->method given as first arg end # Print out iterator given as first arg define pitx set $it = $arg0 printf "cur=%d", $it->current.pos.charpos if ($it->current.pos.charpos != $it->current.pos.bytepos) printf "[%d]", $it->current.pos.bytepos end printf " pos=%d", $it->position.charpos if ($it->position.charpos != $it->position.bytepos) printf "[%d]", $it->position.bytepos end printf " start=%d", $it->start.pos.charpos if ($it->start.pos.charpos != $it->start.pos.bytepos) printf "[%d]", $it->start.pos.bytepos end printf " end=%d", $it->end_charpos printf " stop=%d", $it->stop_charpos printf " face=%d", $it->face_id if ($it->multibyte_p) printf " MB" end if ($it->header_line_p) printf " HL" end if ($it->n_overlay_strings > 0) printf " nov=%d", $it->n_overlay_strings end if ($it->sp != 0) printf " sp=%d", $it->sp end # IT_CHARACTER if ($it->what == 0) if ($it->len == 1 && $it->c >= ' ' && it->c < 255) printf " ch='%c'", $it->c else printf " ch=[%d,%d]", $it->c, $it->len end else printf " " # output $it->what if ($it->what == 0) printf "IT_CHARACTER" end if ($it->what == 1) printf "IT_COMPOSITION" end if ($it->what == 2) printf "IT_IMAGE" end if ($it->what == 3) printf "IT_STRETCH" end if ($it->what == 4) printf "IT_EOB" end if ($it->what == 5) printf "IT_TRUNCATION" end if ($it->what == 6) printf "IT_CONTINUATION" end if ($it->what < 0 || $it->what > 6) output $it->what end end if ($it->method != 0) # !GET_FROM_BUFFER printf " next=" pitmethod $it->method if ($it->method == 2) # GET_FROM_STRING printf "[%d]", $it->current.string_pos.charpos end if ($it->method == 4) # GET_FROM_IMAGE printf "[%d]", $it->image_id end end printf "\n" if ($it->bidi_p) printf "BIDI: base_stop=%d prev_stop=%d level=%d\n", $it->base_level_stop, $it->prev_stop, $it->bidi_it.resolved_level end if ($it->region_beg_charpos >= 0) printf "reg=%d-%d ", $it->region_beg_charpos, $it->region_end_charpos end printf "vpos=%d hpos=%d", $it->vpos, $it->hpos, printf " y=%d lvy=%d", $it->current_y, $it->last_visible_y printf " x=%d vx=%d-%d", $it->current_x, $it->first_visible_x, $it->last_visible_x printf " w=%d", $it->pixel_width printf " a+d=%d+%d=%d", $it->ascent, $it->descent, $it->ascent+$it->descent printf " max=%d+%d=%d", $it->max_ascent, $it->max_descent, $it->max_ascent+$it->max_descent printf "\n" set $i = 0 while ($i < $it->sp && $i < 4) set $e = $it->stack[$i] printf "stack[%d]: ", $i pitmethod $e.method printf "[%d]", $e.position.charpos printf "\n" set $i = $i + 1 end end document pitx Pretty print a display iterator. Take one arg, an iterator object or pointer. end define pit pitx it end document pit Pretty print the display iterator it. end define prowx set $row = $arg0 printf "y=%d x=%d pwid=%d", $row->y, $row->x, $row->pixel_width printf " a+d=%d+%d=%d", $row->ascent, $row->height-$row->ascent, $row->height printf " phys=%d+%d=%d", $row->phys_ascent, $row->phys_height-$row->phys_ascent, $row->phys_height printf " vis=%d\n", $row->visible_height printf "used=(LMargin=%d,Text=%d,RMargin=%d) Hash=%d\n", $row->used[0], $row->used[1], $row->used[2], $row->hash printf "start=%d end=%d", $row->start.pos.charpos, $row->end.pos.charpos if ($row->enabled_p) printf " ENA" end if ($row->displays_text_p) printf " DISP" end if ($row->mode_line_p) printf " MODEL" end if ($row->continued_p) printf " CONT" end if ($row-> truncated_on_left_p) printf " TRUNC:L" end if ($row-> truncated_on_right_p) printf " TRUNC:R" end if ($row->starts_in_middle_of_char_p) printf " STARTMID" end if ($row->ends_in_middle_of_char_p) printf " ENDMID" end if ($row->ends_in_newline_from_string_p) printf " ENDNLFS" end if ($row->ends_at_zv_p) printf " ENDZV" end if ($row->overlapped_p) printf " OLAPD" end if ($row->overlapping_p) printf " OLAPNG" end printf "\n" end document prowx Pretty print information about glyph_row. Takes one argument, a row object or pointer. end define prow prowx row end document prow Pretty print information about glyph_row in row. end define pcursorx set $cp = $arg0 printf "y=%d x=%d vpos=%d hpos=%d", $cp->y, $cp->x, $cp->vpos, $cp->hpos end document pcursorx Pretty print a window cursor. end define pcursor printf "output: " pcursorx output_cursor printf "\n" end document pcursor Pretty print the output_cursor. end define pwinx set $w = $arg0 if ($w->mini_p != Qnil) printf "Mini " end printf "Window %d ", $int xgetptr $w->buffer set $tem = (struct buffer *) $ptr xgetptr $tem->name_ printf "%s", ((struct Lisp_String *) $ptr)->data printf "\n" xgetptr $w->start set $tem = (struct Lisp_Marker *) $ptr printf "start=%d end:", $tem->charpos if ($w->window_end_valid != Qnil) xgetint $w->window_end_pos printf "pos=%d", $int xgetint $w->window_end_vpos printf " vpos=%d", $int else printf "invalid" end printf " vscroll=%d", $w->vscroll if ($w->force_start != Qnil) printf " FORCE_START" end if ($w->must_be_updated_p) printf " MUST_UPD" end printf "\n" printf "cursor: " pcursorx $w->cursor printf " phys: " pcursorx $w->phys_cursor if ($w->phys_cursor_on_p) printf " ON" else printf " OFF" end printf " blk=" if ($w->last_cursor_off_p != $w->cursor_off_p) if ($w->last_cursor_off_p) printf "ON->" else printf "OFF->" end end if ($w->cursor_off_p) printf "ON" else printf "OFF" end printf "\n" end document pwinx Pretty print a window structure. Takes one argument, a pointer to a window structure. end define pwin pwinx w end document pwin Pretty print window structure w. end define pbiditype if ($arg0 == 0) printf "UNDEF" end if ($arg0 == 1) printf "L" end if ($arg0 == 2) printf "R" end if ($arg0 == 3) printf "EN" end if ($arg0 == 4) printf "AN" end if ($arg0 == 5) printf "BN" end if ($arg0 == 6) printf "B" end if ($arg0 < 0 || $arg0 > 6) printf "%d??", $arg0 end end document pbiditype Print textual description of bidi type given as first argument. end define pgx set $g = $arg0 # CHAR_GLYPH if ($g.type == 0) if ($g.u.ch >= ' ' && $g.u.ch < 127) printf "CHAR[%c]", $g.u.ch else printf "CHAR[0x%x]", $g.u.ch end end # COMPOSITE_GLYPH if ($g.type == 1) printf "COMP[%d (%d..%d)]", $g.u.cmp.id, $g.slice.cmp.from, $g.slice.cmp.to end # GLYPHLESS_GLYPH if ($g.type == 2) printf "G-LESS[" if ($g.u.glyphless.method == 0) printf "THIN;0x%x]", $g.u.glyphless.ch end if ($g.u.glyphless.method == 1) printf "EMPTY;0x%x]", $g.u.glyphless.ch end if ($g.u.glyphless.method == 2) printf "ACRO;0x%x]", $g.u.glyphless.ch end if ($g.u.glyphless.method == 3) printf "HEX;0x%x]", $g.u.glyphless.ch end end # IMAGE_GLYPH if ($g.type == 3) printf "IMAGE[%d]", $g.u.img_id end # STRETCH_GLYPH if ($g.type == 4) printf "STRETCH[%d+%d]", $g.u.stretch.height, $g.u.stretch.ascent end xgettype ($g.object) if ($type == Lisp_String) xgetptr $g.object printf " str=0x%x[%d]", ((struct Lisp_String *)$ptr)->data, $g.charpos else printf " pos=%d", $g.charpos end # For characters, print their resolved level and bidi type if ($g.type == 0 || $g.type == 2) printf " blev=%d,btyp=", $g.resolved_level pbiditype $g.bidi_type end printf " w=%d a+d=%d+%d", $g.pixel_width, $g.ascent, $g.descent # If not DEFAULT_FACE_ID if ($g.face_id != 0) printf " face=%d", $g.face_id end if ($g.voffset) printf " vof=%d", $g.voffset end if ($g.multibyte_p) printf " MB" end if ($g.padding_p) printf " PAD" end if ($g.glyph_not_available_p) printf " N/A" end if ($g.overlaps_vertically_p) printf " OVL" end if ($g.avoid_cursor_p) printf " AVOID" end if ($g.left_box_line_p) printf " [" end if ($g.right_box_line_p) printf " ]" end if ($g.slice.img.x || $g.slice.img.y || $g.slice.img.width || $g.slice.img.height) printf " slice=%d,%d,%d,%d" ,$g.slice.img.x, $g.slice.img.y, $g.slice.img.width, $g.slice.img.height end printf "\n" end document pgx Pretty print a glyph structure. Takes one argument, a pointer to a glyph structure. end define pg set $pgidx = 0 pgx glyph end document pg Pretty print glyph structure glyph. end define pgi set $pgidx = $arg0 pgx (&glyph[$pgidx]) end document pgi Pretty print glyph structure glyph[I]. Takes one argument, a integer I. end define pgn set $pgidx = $pgidx + 1 pgx (&glyph[$pgidx]) end document pgn Pretty print next glyph structure. end define pgrowx set $row = $arg0 set $area = 0 set $xofs = $row->x while ($area < 3) set $used = $row->used[$area] if ($used > 0) set $gl0 = $row->glyphs[$area] set $pgidx = 0 printf "%s: %d glyphs\n", ($area == 0 ? "LEFT" : $area == 2 ? "RIGHT" : "TEXT"), $used while ($pgidx < $used) printf "%3d %4d: ", $pgidx, $xofs pgx $gl0[$pgidx] set $xofs = $xofs + $gl0[$pgidx]->pixel_width set $pgidx = $pgidx + 1 end end set $area = $area + 1 end end document pgrowx Pretty print all glyphs in a row structure. Takes one argument, a pointer to a row structure. end define pgrow pgrowx row end document pgrow Pretty print all glyphs in row structure row. end define pgrowit pgrowx it->glyph_row end document pgrowit Pretty print all glyphs in it->glyph_row. end define prowlims printf "edges=(%d,%d),enb=%d,r2l=%d,cont=%d,trunc=(%d,%d),at_zv=%d\n", $arg0->minpos.charpos, $arg0->maxpos.charpos, $arg0->enabled_p, $arg0->reversed_p, $arg0->continued_p, $arg0->truncated_on_left_p, $arg0->truncated_on_right_p, $arg0->ends_at_zv_p end document prowlims Print important attributes of a glyph_row structure. Takes one argument, a pointer to a glyph_row structure. end define pmtxrows set $mtx = $arg0 set $gl = $mtx->rows set $glend = $mtx->rows + $mtx->nrows - 1 set $i = 0 while ($gl < $glend) printf "%d: ", $i prowlims $gl set $gl = $gl + 1 set $i = $i + 1 end end document pmtxrows Print data about glyph rows in a glyph matrix. Takes one argument, a pointer to a glyph_matrix structure. end define xtype xgettype $ output $type echo \n if $type == Lisp_Misc xmisctype else if $type == Lisp_Vectorlike xvectype end end end document xtype Print the type of $, assuming it is an Emacs Lisp value. If the first type printed is Lisp_Vector or Lisp_Misc, a second line gives the more precise type. end define pvectype set $size = ((struct Lisp_Vector *) $arg0)->header.size if ($size & PSEUDOVECTOR_FLAG) output (enum pvec_type) (($size & PVEC_TYPE_MASK) >> PSEUDOVECTOR_AREA_BITS) else output PVEC_NORMAL_VECTOR end echo \n end document pvectype Print the subtype of vectorlike object. Takes one argument, a pointer to an object. end define xvectype xgetptr $ pvectype $ptr end document xvectype Print the subtype of vectorlike object. This command assumes that $ is a Lisp_Object. end define pvecsize set $size = ((struct Lisp_Vector *) $arg0)->header.size if ($size & PSEUDOVECTOR_FLAG) output ($size & PSEUDOVECTOR_SIZE_MASK) echo \n output (($size & PSEUDOVECTOR_REST_MASK) >> PSEUDOVECTOR_SIZE_BITS) else output ($size & ~ARRAY_MARK_FLAG) end echo \n end document pvecsize Print the size of vectorlike object. Takes one argument, a pointer to an object. end define xvecsize xgetptr $ pvecsize $ptr end document xvecsize Print the size of $ This command assumes that $ is a Lisp_Object. end define xmisctype xgetptr $ output (enum Lisp_Misc_Type) (((struct Lisp_Free *) $ptr)->type) echo \n end document xmisctype Assume that $ is some misc type and print its specific type. end define xint xgetint $ print $int end document xint Print $ as an Emacs Lisp integer. This gets the sign right. end define xptr xgetptr $ print (void *) $ptr end document xptr Print the pointer portion of an Emacs Lisp value in $. end define xmarker xgetptr $ print (struct Lisp_Marker *) $ptr end document xmarker Print $ as a marker pointer. This command assumes that $ is an Emacs Lisp marker value. end define xoverlay xgetptr $ print (struct Lisp_Overlay *) $ptr end document xoverlay Print $ as a overlay pointer. This command assumes that $ is an Emacs Lisp overlay value. end define xmiscfree xgetptr $ print (struct Lisp_Free *) $ptr end document xmiscfree Print $ as a misc free-cell pointer. This command assumes that $ is an Emacs Lisp Misc value. end define xsymbol set $sym = $ xgetsym $sym print (struct Lisp_Symbol *) $ptr xprintsym $sym echo \n end document xsymbol Print the name and address of the symbol $. This command assumes that $ is an Emacs Lisp symbol value. end define xstring xgetptr $ print (struct Lisp_String *) $ptr xprintstr $ echo \n end document xstring Print the contents and address of the string $. This command assumes that $ is an Emacs Lisp string value. end define xvector xgetptr $ print (struct Lisp_Vector *) $ptr output ($->header.size > 50) ? 0 : ($->contents[0])@($->header.size & ~ARRAY_MARK_FLAG) echo \n end document xvector Print the contents and address of the vector $. This command assumes that $ is an Emacs Lisp vector value. end define xprocess xgetptr $ print (struct Lisp_Process *) $ptr output *$ echo \n end document xprocess Print the address of the struct Lisp_process to which $ points. This command assumes that $ is a Lisp_Object. end define xframe xgetptr $ print (struct frame *) $ptr xgetptr $->name set $ptr = (struct Lisp_String *) $ptr xprintstr $ptr echo \n end document xframe Print $ as a frame pointer. This command assumes $ is an Emacs Lisp frame value. end define xcompiled xgetptr $ print (struct Lisp_Vector *) $ptr output ($->contents[0])@($->header.size & 0xff) end document xcompiled Print $ as a compiled function pointer. This command assumes that $ is an Emacs Lisp compiled value. end define xwindow xgetptr $ print (struct window *) $ptr set $window = (struct window *) $ptr printf "%dx%d+%d+%d\n", $window->total_cols, $window->total_lines, $window->left_col, $window->top_line end document xwindow Print $ as a window pointer, assuming it is an Emacs Lisp window value. Print the window's position as "WIDTHxHEIGHT+LEFT+TOP". end define xwinconfig xgetptr $ print (struct save_window_data *) $ptr end document xwinconfig Print $ as a window configuration pointer. This command assumes that $ is an Emacs Lisp window configuration value. end define xsubr xgetptr $ print (struct Lisp_Subr *) $ptr output *$ echo \n end document xsubr Print the address of the subr which the Lisp_Object $ points to. end define xchartable xgetptr $ print (struct Lisp_Char_Table *) $ptr printf "Purpose: " xprintsym $->purpose printf " %d extra slots", ($->header.size & 0x1ff) - 68 echo \n end document xchartable Print the address of the char-table $, and its purpose. This command assumes that $ is an Emacs Lisp char-table value. end define xsubchartable xgetptr $ print (struct Lisp_Sub_Char_Table *) $ptr set $subchartab = (struct Lisp_Sub_Char_Table *) $ptr printf "Depth: %d, Min char: %d (0x%x)\n", $subchartab->depth, $subchartab->min_char, $subchartab->min_char end document xsubchartable Print the address of the sub-char-table $, its depth and min-char. This command assumes that $ is an Emacs Lisp sub-char-table value. end define xboolvector xgetptr $ print (struct Lisp_Bool_Vector *) $ptr output ($->size > 256) ? 0 : ($->data[0])@(($->size + BOOL_VECTOR_BITS_PER_CHAR - 1)/ BOOL_VECTOR_BITS_PER_CHAR) echo \n end document xboolvector Print the contents and address of the bool-vector $. This command assumes that $ is an Emacs Lisp bool-vector value. end define xbuffer xgetptr $ print (struct buffer *) $ptr xgetptr $->name_ output ((struct Lisp_String *) $ptr)->data echo \n end document xbuffer Set $ as a buffer pointer and the name of the buffer. This command assumes $ is an Emacs Lisp buffer value. end define xhashtable xgetptr $ print (struct Lisp_Hash_Table *) $ptr end document xhashtable Set $ as a hash table pointer. This command assumes that $ is an Emacs Lisp hash table value. end define xcons xgetptr $ print (struct Lisp_Cons *) $ptr output/x *$ echo \n end document xcons Print the contents of $ as an Emacs Lisp cons. end define nextcons p $.u.cdr xcons end document nextcons Print the contents of the next cell in a list. This command assumes that the last thing you printed was a cons cell contents (type struct Lisp_Cons) or a pointer to one. end define xcar xgetptr $ xgettype $ print/x ($type == Lisp_Cons ? ((struct Lisp_Cons *) $ptr)->car : 0) end document xcar Assume that $ is an Emacs Lisp pair and print its car. end define xcdr xgetptr $ xgettype $ print/x ($type == Lisp_Cons ? ((struct Lisp_Cons *) $ptr)->u.cdr : 0) end document xcdr Assume that $ is an Emacs Lisp pair and print its cdr. end define xlist xgetptr $ set $cons = (struct Lisp_Cons *) $ptr xgetptr Qnil set $nil = $ptr set $i = 0 while $cons != $nil && $i < 10 p/x $cons->car xpr xgetptr $cons->u.cdr set $cons = (struct Lisp_Cons *) $ptr set $i = $i + 1 printf "---\n" end if $cons == $nil printf "nil\n" else printf "...\n" p $ptr end end document xlist Print $ assuming it is a list. end define xfloat xgetptr $ print ((struct Lisp_Float *) $ptr)->u.data end document xfloat Print $ assuming it is a lisp floating-point number. end define xscrollbar xgetptr $ print (struct scrollbar *) $ptr output *$ echo \n end document xscrollbar Print $ as a scrollbar pointer. end define xpr xtype if $type == Lisp_Int0 || $type == Lisp_Int1 xint end if $type == Lisp_Symbol xsymbol end if $type == Lisp_String xstring end if $type == Lisp_Cons xcons end if $type == Lisp_Float xfloat end if $type == Lisp_Misc set $misc = (enum Lisp_Misc_Type) (((struct Lisp_Free *) $ptr)->type) if $misc == Lisp_Misc_Free xmiscfree end if $misc == Lisp_Misc_Marker xmarker end if $misc == Lisp_Misc_Overlay xoverlay end # if $misc == Lisp_Misc_Save_Value # xsavevalue # end end if $type == Lisp_Vectorlike set $size = ((struct Lisp_Vector *) $ptr)->header.size if ($size & PSEUDOVECTOR_FLAG) set $vec = (enum pvec_type) (($size & PVEC_TYPE_MASK) >> PSEUDOVECTOR_AREA_BITS) if $vec == PVEC_NORMAL_VECTOR xvector end if $vec == PVEC_PROCESS xprocess end if $vec == PVEC_FRAME xframe end if $vec == PVEC_COMPILED xcompiled end if $vec == PVEC_WINDOW xwindow end if $vec == PVEC_WINDOW_CONFIGURATION xwinconfig end if $vec == PVEC_SUBR xsubr end if $vec == PVEC_CHAR_TABLE xchartable end if $vec == PVEC_BOOL_VECTOR xboolvector end if $vec == PVEC_BUFFER xbuffer end if $vec == PVEC_HASH_TABLE xhashtable end else xvector end end end document xpr Print $ as a lisp object of any type. end define xprintstr set $data = (char *) $arg0->data set $strsize = ($arg0->size_byte < 0) ? ($arg0->size & ~ARRAY_MARK_FLAG) : $arg0->size_byte # GDB doesn't like zero repetition counts if $strsize == 0 output "" else output ($arg0->size > 1000) ? 0 : ($data[0])@($strsize) end end define xprintsym xsymname $arg0 xgetptr $symname set $sym_name = (struct Lisp_String *) $ptr xprintstr $sym_name end document xprintsym Print argument as a symbol. end define xcoding set $tmp = (struct Lisp_Hash_Table *) (Vcoding_system_hash_table & VALMASK) set $tmp = (struct Lisp_Vector *) ($tmp->key_and_value & VALMASK) set $name = $tmp->contents[$arg0 * 2] print $name pr print $tmp->contents[$arg0 * 2 + 1] pr end document xcoding Print the name and attributes of coding system that has ID (argument). end define xcharset set $tmp = (struct Lisp_Hash_Table *) (Vcharset_hash_table & VALMASK) set $tmp = (struct Lisp_Vector *) ($tmp->key_and_value & VALMASK) p $tmp->contents[charset_table[$arg0].hash_index * 2] pr end document xcharset Print the name of charset that has ID (argument). end define xfontset xgetptr $ set $tbl = (struct Lisp_Char_Table *) $ptr print $tbl xgetint $tbl->extras[0] printf " ID:%d", $int xgettype $tbl->extras[1] xgetptr $tbl->extras[1] if $type == Lisp_String set $ptr = (struct Lisp_String *) $ptr printf " Name:" xprintstr $ptr else xgetptr $tbl->extras[2] set $ptr = (struct Lisp_Char_Table *) $ptr xgetptr $ptr->extras[1] set $ptr = (struct Lisp_String *) $ptr printf " Realized from:" xprintstr $ptr end echo \n end define xfont xgetptr $ set $size = (((struct Lisp_Vector *) $ptr)->header.size & 0x1FF) if $size == FONT_SPEC_MAX print (struct font_spec *) $ptr else if $size == FONT_ENTITY_MAX print (struct font_entity *) $ptr else print (struct font *) $ptr end end end document xfont Print $ assuming it is a list font (font-spec, font-entity, or font-object). end define xbacktrace set $bt = backtrace_top () while backtrace_p ($bt) set $fun = backtrace_function ($bt) xgettype $fun if $type == Lisp_Symbol xprintsym $fun printf " (0x%x)\n", backtrace_args ($bt) else xgetptr $fun printf "0x%x ", $ptr if $type == Lisp_Vectorlike xgetptr $fun set $size = ((struct Lisp_Vector *) $ptr)->header.size if ($size & PSEUDOVECTOR_FLAG) output (enum pvec_type) (($size & PVEC_TYPE_MASK) >> PSEUDOVECTOR_AREA_BITS) else output $size & ~ARRAY_MARK_FLAG end else printf "Lisp type %d", $type end echo \n end set $bt = backtrace_next ($bt) end end document xbacktrace Print a backtrace of Lisp function calls from backtrace_list. Set a breakpoint at Fsignal and call this to see from where an error was signaled. end define xprintbytestr set $data = (char *) $arg0->data set $bstrsize = ($arg0->size_byte < 0) ? ($arg0->size & ~ARRAY_MARK_FLAG) : $arg0->size_byte printf "Bytecode: " if $bstrsize > 0 output/u ($arg0->size > 1000) ? 0 : ($data[0])@($bvsize) else printf "" end end document xprintbytestr Print a string of byte code. end define xwhichsymbols set $output_debug = print_output_debug_flag set print_output_debug_flag = 0 call safe_debug_print (which_symbols ($arg0, $arg1)) set print_output_debug_flag = $output_debug end document xwhichsymbols Print symbols which references a given lisp object either as its symbol value or symbol function. Call with two arguments: the lisp object and the maximum number of symbols referencing it to produce. end define xbytecode set $bt = byte_stack_list while $bt xgetptr $bt->byte_string set $ptr = (struct Lisp_String *) $ptr xprintbytestr $ptr printf "\n0x%x => ", $bt->byte_string xwhichsymbols $bt->byte_string 5 set $bt = $bt->next end end document xbytecode Print a backtrace of the byte code stack. end # Show Lisp backtrace after normal backtrace. define hookpost-backtrace set $bt = backtrace_top () if backtrace_p ($bt) echo \n echo Lisp Backtrace:\n xbacktrace end end # Flush display (X only) define ff set x_flush (0) end document ff Flush pending X window display updates to screen. Works only when an inferior emacs is executing. end set print pretty on set print sevenbit-strings show environment DISPLAY show environment TERM # When debugging, it is handy to be able to "return" from # terminate_due_to_signal when an assertion failure is non-fatal. break terminate_due_to_signal # x_error_quitter is defined only on X. But window-system is set up # only at run time, during Emacs startup, so we need to defer setting # the breakpoint. init_sys_modes is the first function called on # every platform after init_display, where window-system is set. tbreak init_sys_modes commands silent xsymname globals.f_Vinitial_window_system xgetptr $symname set $tem = (struct Lisp_String *) $ptr set $tem = (char *) $tem->data # If we are running in synchronous mode, we want a chance to look # around before Emacs exits. Perhaps we should put the break # somewhere else instead... if $tem[0] == 'x' && $tem[1] == '\0' break x_error_quitter end continue end