Mercurial > hg > xemacs-beta
view src/toolbar-common.c @ 853:2b6fa2618f76
[xemacs-hg @ 2002-05-28 08:44:22 by ben]
merge my stderr-proc ws
make-docfile.c: Fix places where we forget to check for EOF.
code-init.el: Don't use CRLF conversion by default on process output. CMD.EXE and
friends work both ways but Cygwin programs don't like the CRs.
code-process.el, multicast.el, process.el: Removed.
Improvements to call-process-internal:
-- allows a buffer to be specified for input and stderr output
-- use it on all systems
-- implement C-g as documented
-- clean up and comment
call-process-region uses new call-process facilities; no temp file.
remove duplicate funs in process.el.
comment exactly how coding systems work and fix various problems.
open-multicast-group now does similar coding-system frobbing to
open-network-stream.
dumped-lisp.el, faces.el, msw-faces.el: Fix some hidden errors due to code not being defined at the right time.
xemacs.mak: Add -DSTRICT.
================================================================
ALLOW SEPARATION OF STDOUT AND STDERR IN PROCESSES
================================================================
Standard output and standard error can be processed separately in
a process. Each can have its own buffer, its own mark in that buffer,
and its filter function. You can specify a separate buffer for stderr
in `start-process' to get things started, or use the new primitives:
set-process-stderr-buffer
process-stderr-buffer
process-stderr-mark
set-process-stderr-filter
process-stderr-filter
Also, process-send-region takes a 4th optional arg, a buffer.
Currently always uses a pipe() under Unix to read the error output.
(#### Would a PTY be better?)
sysdep.h, sysproc.h, unexfreebsd.c, unexsunos4.c, nt.c, emacs.c, callproc.c, symsinit.h, sysdep.c, Makefile.in.in, process-unix.c: Delete callproc.c. Move child_setup() to process-unix.c.
wait_for_termination() now only needed on a few really old systems.
console-msw.h, event-Xt.c, event-msw.c, event-stream.c, event-tty.c, event-unixoid.c, events.h, process-nt.c, process-unix.c, process.c, process.h, procimpl.h: Rewrite the process methods to handle a separate channel for
error input. Create Lstreams for reading in the error channel.
Many process methods need change. In general the changes are
fairly clear as they involve duplicating what's used for reading
the normal stdout and changing for stderr -- although tedious,
as such changes are required throughout the entire process code.
Rewrote the code that reads process output to do two loops, one
for stdout and one for stderr.
gpmevent.c, tooltalk.c: set_process_filter takes an argument for stderr.
================================================================
NEW ERROR-TRAPPING MECHANISM
================================================================
Totally rewrite error trapping code to be unified and support more
features. Basic function is call_trapping_problems(), which lets
you specify, by means of flags, what sorts of problems you want
trapped. these can include
-- quit
-- errors
-- throws past the function
-- creation of "display objects" (e.g. buffers)
-- deletion of already-existing "display objects" (e.g. buffers)
-- modification of already-existing buffers
-- entering the debugger
-- gc
-- errors->warnings (ala suspended errors)
etc. All other error funs rewritten in terms of this one.
Various older mechanisms removed or rewritten.
window.c, insdel.c, console.c, buffer.c, device.c, frame.c: When creating a display object, added call to
note_object_created(), for use with trapping_problems mechanism.
When deleting, call check_allowed_operation() and note_object
deleted().
The trapping-problems code records the objects created since the
call-trapping-problems began. Those objects can be deleted, but
none others (i.e. previously existing ones).
bytecode.c, cmdloop.c: internal_catch takes another arg.
eval.c: Add long comments describing the "five lists" used to maintain
state (backtrace, gcpro, specbind, etc.) in the Lisp engine.
backtrace.h, eval.c: Implement trapping-problems mechanism, eliminate old mechanisms or
redo in terms of new one.
frame.c, gutter.c: Flush out the concept of "critical display section", defined by
the in_display() var. Use an internal_bind() to get it reset,
rather than just doing it at end, because there may be a non-local
exit.
event-msw.c, event-stream.c, console-msw.h, device.c, dialog-msw.c, frame.c, frame.h, intl.c, toolbar.c, menubar-msw.c, redisplay.c, alloc.c, menubar-x.c: Make use of new trapping-errors stuff and rewrite code based on
old mechanisms.
glyphs-widget.c, redisplay.h: Protect calling Lisp in redisplay.
insdel.c: Protect hooks against deleting existing buffers.
frame-msw.c: Use EQ, not EQUAL in hash tables whose keys are just numbers.
Otherwise we run into stickiness in redisplay because
internal_equal() can QUIT.
================================================================
SIGNAL, C-G CHANGES
================================================================
Here we change the way that C-g interacts with event reading. The
idea is that a C-g occurring while we're reading a user event
should be read as C-g, but elsewhere should be a QUIT. The former
code did all sorts of bizarreness -- requiring that no QUIT occurs
anywhere in event-reading code (impossible to enforce given the
stuff called or Lisp code invoked), and having some weird system
involving enqueue/dequeue of a C-g and interaction with Vquit_flag
-- and it didn't work.
Now, we simply enclose all code where we want C-g read as an event
with {begin/end}_dont_check_for_quit(). This completely turns off
the mechanism that checks (and may remove or alter) C-g in the
read-ahead queues, so we just get the C-g normal.
Signal.c documents this very carefully.
cmdloop.c: Correct use of dont_check_for_quit to new scheme, remove old
out-of-date comments.
event-stream.c: Fix C-g handling to actually work.
device-x.c: Disable quit checking when err out.
signal.c: Cleanup. Add large descriptive comment.
process-unix.c, process-nt.c, sysdep.c: Use QUIT instead of REALLY_QUIT.
It's not necessary to use REALLY_QUIT and just confuses the issue.
lisp.h: Comment quit handlers.
================================================================
CONS CHANGES
================================================================
free_cons() now takes a Lisp_Object not the result of XCONS().
car and cdr have been renamed so that they don't get used directly;
go through XCAR(), XCDR() instead.
alloc.c, dired.c, editfns.c, emodules.c, fns.c, glyphs-msw.c, glyphs-x.c, glyphs.c, keymap.c, minibuf.c, search.c, eval.c, lread.c, lisp.h: Correct free_cons calling convention: now takes Lisp_Object,
not Lisp_Cons
chartab.c: Eliminate direct use of ->car, ->cdr, should be black box.
callint.c: Rewrote using EXTERNAL_LIST_LOOP to avoid use of Lisp_Cons.
================================================================
USE INTERNAL-BIND-*
================================================================
eval.c: Cleanups of these funs.
alloc.c, fileio.c, undo.c, specifier.c, text.c, profile.c, lread.c, redisplay.c, menubar-x.c, macros.c: Rewrote to use internal_bind_int() and internal_bind_lisp_object()
in place of whatever varied and cumbersome mechanisms were
formerly there.
================================================================
SPECBIND SANITY
================================================================
backtrace.h: - Improved comments
backtrace.h, bytecode.c, eval.c: Add new mechanism check_specbind_stack_sanity() for sanity
checking code each time the catchlist or specbind stack change.
Removed older prototype of same mechanism.
================================================================
MISC
================================================================
lisp.h, insdel.c, window.c, device.c, console.c, buffer.c: Fleshed out authorship.
device-msw.c: Correct bad Unicode-ization.
print.c: Be more careful when not initialized or in fatal error handling.
search.c: Eliminate running_asynch_code, an FSF holdover.
alloc.c: Added comments about gc-cons-threshold.
dialog-x.c: Use begin_gc_forbidden() around code to build up a widget value
tree, like in menubar-x.c.
gui.c: Use Qunbound not Qnil as the default for
gethash.
lisp-disunion.h, lisp-union.h: Added warnings on use of VOID_TO_LISP().
lisp.h: Use ERROR_CHECK_STRUCTURES to turn on
ERROR_CHECK_TRAPPING_PROBLEMS and ERROR_CHECK_TYPECHECK
lisp.h: Add assert_with_message.
lisp.h: Add macros for gcproing entire arrays. (You could do this before
but it required manual twiddling the gcpro structure.)
lisp.h: Add prototypes for new functions defined elsewhere.
author | ben |
---|---|
date | Tue, 28 May 2002 08:45:36 +0000 |
parents | a5954632b187 |
children | 804517e16990 |
line wrap: on
line source
/* toolbar implementation -- "Generic" (X or GTK) redisplay interface. Copyright (C) 1995 Board of Trustees, University of Illinois. Copyright (C) 1995 Sun Microsystems, Inc. Copyright (C) 1995, 1996, 2002 Ben Wing. Copyright (C) 1996 Chuck Thompson. This file is part of XEmacs. XEmacs 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 2, or (at your option) any later version. XEmacs 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 XEmacs; see the file COPYING. If not, write to the Free Software Foundation, Inc., 59 Temple Place - Suite 330, Boston, MA 02111-1307, USA. */ /* Synched up with: Not in FSF. */ #include <config.h> #include "lisp.h" #include "device.h" #include "faces.h" #include "frame.h" #include "glyphs.h" #include "toolbar.h" #include "window.h" /* This is used when we need to draw the toolbars ourselves -- on X or GTK. On MS Windows, we use the built-in toolbar controls. */ /* Only a very few things need to differ based on the toolkit used. ** ** Some of the routines used assert(FRAME_yyy_P(f)) checks, this is ** now abstracted into __INTERNAL_APPROPRIATENESS_CHECK(). When we ** add new window systems that use this code, we should either add a ** new case here, or just remove the checks completely. ** ** At least for X & GTK redraw_frame_toolbars() might end up getting ** called before we are completely initialized. To avoid this, we use ** the __INTERNAL_MAPPED_P(f) macro, that should return 0 if we should ** not draw the toolbars yet. When we add new window systems that use ** this code, we should add a new case here, if they need it. ** ** When clearing the toolbar, it is nice to flush the drawing queue. ** Use __INTERNAL_FLUSH to do this. It is passed a device. */ #if defined(HAVE_GTK) #include "console-gtk.h" #define __INTERNAL_MAPPED_P(f) GTK_WIDGET_REALIZED (FRAME_GTK_TEXT_WIDGET (f)) #define __INTERNAL_FLUSH(d) gdk_flush() #define __INTERNAL_APPROPRIATENESS_CHECK(f) assert(FRAME_GTK_P (f)) #elif defined(HAVE_X_WINDOWS) #include "console-x.h" #define __INTERNAL_MAPPED_P(f) XtIsRealized (FRAME_X_SHELL_WIDGET (f)) #define __INTERNAL_APPROPRIATENESS_CHECK(f) assert(FRAME_X_P (f)) #define __INTERNAL_FLUSH(d) XFlush (DEVICE_X_DISPLAY (d)) #else #define __INTERNAL_MAPPED_P(f) abort() #define __INTERNAL_APPROPRIATENESS_CHECK(f) abort() #define __INTERNAL_FLUSH(f) abort() #endif #include "toolbar-common.h" extern Lisp_Object Vtoolbar_shadow_thickness; static void __prepare_button_area (struct frame *f, struct toolbar_button *tb) { int sx = tb->x; int sy = tb->y; int swidth = tb->width; int sheight = tb->height; int border_width = tb->border_width; int x_adj, width_adj, y_adj, height_adj; struct device *d = XDEVICE (f->device); Lisp_Object window = FRAME_LAST_NONMINIBUF_WINDOW (f); struct window *w = XWINDOW (window); int shadow_thickness; int def_shadow_thickness = XINT (Fspecifier_instance(Vtoolbar_shadow_thickness, window, Qnil, Qnil)); face_index toolbar_findex; if (tb->vertical) { x_adj = border_width; width_adj = - 2 * border_width; y_adj = height_adj = 0; } else { x_adj = width_adj = 0; y_adj = border_width; height_adj = - 2 * border_width; } toolbar_findex = get_builtin_face_cache_index (w, Vtoolbar_face); /* Blank toolbar buttons that should be 3d will have EQ(tb->up_glyph, Qt) ** Blank toolbar buttons that should be flat will have NILP (tb->up_glyph) ** ** Real toolbar buttons will check tb->enabled && tb->down */ if (EQ (Qt, tb->up_glyph)) { shadow_thickness = def_shadow_thickness; } else if (NILP (tb->up_glyph)) { shadow_thickness = 0; } else { if (tb->enabled) { if (tb->down) shadow_thickness = -def_shadow_thickness; else shadow_thickness = def_shadow_thickness; } else { shadow_thickness = 0; } } /* Blank the entire area. */ redisplay_clear_region (window, toolbar_findex, sx + x_adj, sy + y_adj, swidth + width_adj, sheight + height_adj); /* Draw the outline. */ if (shadow_thickness) { MAYBE_DEVMETH (d, bevel_area, (w, toolbar_findex, sx + x_adj, sy + y_adj, swidth + width_adj, sheight + height_adj, abs(shadow_thickness), EDGE_ALL, (shadow_thickness < 0) ? EDGE_BEVEL_IN : EDGE_BEVEL_OUT)); } /* Handle the borders... */ redisplay_clear_region (window, toolbar_findex, sx, sy, (tb->vertical ? border_width : swidth), (tb->vertical ? sheight : border_width)); redisplay_clear_region (window, toolbar_findex, (tb->vertical ? sx + swidth : sx), (tb->vertical ? sy : sy + sheight), (tb->vertical ? border_width : swidth), (tb->vertical ? sheight : border_width)); } #define common_draw_blank_toolbar_button(f,tb) __prepare_button_area (f,tb) void common_output_toolbar_button (struct frame *f, Lisp_Object button) { int shadow_thickness = 2; int x_adj, y_adj, width_adj, height_adj; struct device *d = XDEVICE (f->device); Lisp_Object instance, frame, window, glyph; struct toolbar_button *tb = XTOOLBAR_BUTTON (button); struct Lisp_Image_Instance *p; struct window *w; int vertical = tb->vertical; int border_width = tb->border_width; face_index toolbar_findex; if (vertical) { x_adj = border_width; width_adj = - 2 * border_width; y_adj = 0; height_adj = 0; } else { x_adj = 0; width_adj = 0; y_adj = border_width; height_adj = - 2 * border_width; } frame = wrap_frame (f); window = FRAME_LAST_NONMINIBUF_WINDOW (f); w = XWINDOW (window); glyph = get_toolbar_button_glyph (w, tb); if (tb->enabled) { if (tb->down) { shadow_thickness = -2; } else { shadow_thickness = 2; } } else { shadow_thickness = 0; } toolbar_findex = get_builtin_face_cache_index (w, Vtoolbar_face); __prepare_button_area (f, tb); /* #### It is currently possible for users to trash us by directly changing the toolbar glyphs. Avoid crashing in that case. */ if (GLYPHP (glyph)) instance = glyph_image_instance (glyph, window, ERROR_ME_DEBUG_WARN, 1); else instance = Qnil; if (IMAGE_INSTANCEP (instance)) { int width = tb->width + width_adj - shadow_thickness * 2; int height = tb->height + height_adj - shadow_thickness * 2; int x_offset = x_adj + shadow_thickness; int y_offset = y_adj + shadow_thickness; p = XIMAGE_INSTANCE (instance); if (IMAGE_INSTANCE_PIXMAP_TYPE_P (p)) { struct display_box db; struct display_glyph_area dga; if (width > (int) IMAGE_INSTANCE_PIXMAP_WIDTH (p)) { x_offset += ((int) (width - IMAGE_INSTANCE_PIXMAP_WIDTH (p)) / 2); width = IMAGE_INSTANCE_PIXMAP_WIDTH (p); } if (height > (int) IMAGE_INSTANCE_PIXMAP_HEIGHT (p)) { y_offset += ((int) (height - IMAGE_INSTANCE_PIXMAP_HEIGHT (p)) / 2); height = IMAGE_INSTANCE_PIXMAP_HEIGHT (p); } /* Draw exactly in the area specified... */ db.xpos = tb->x + x_offset; db.ypos = tb->y + y_offset; db.width = width; db.height = height; /* Display the whole glyph */ dga.xoffset = 0; dga.yoffset = 0; dga.width = width; dga.height = height; redisplay_output_pixmap (w, instance, &db, &dga, toolbar_findex, 0, 0, 0, 0); } else if (IMAGE_INSTANCE_TYPE (p) == IMAGE_TEXT) { /* #### We need to make the face used configurable. */ struct face_cachel *cachel = WINDOW_FACE_CACHEL (w, DEFAULT_INDEX); struct display_line dl; Lisp_Object string = IMAGE_INSTANCE_TEXT_STRING (p); unsigned char charsets[NUM_LEADING_BYTES]; Emchar_dynarr *buf; struct font_metric_info fm; /* This could be true if we were called via the Expose event handler. Mark the button as dirty and return immediately. */ if (f->window_face_cache_reset) { tb->dirty = 1; MARK_TOOLBAR_CHANGED; return; } buf = Dynarr_new (Emchar); convert_intbyte_string_into_emchar_dynarr (XSTRING_DATA (string), XSTRING_LENGTH (string), buf); find_charsets_in_emchar_string (charsets, Dynarr_atp (buf, 0), Dynarr_length (buf)); ensure_face_cachel_complete (cachel, window, charsets); face_cachel_charset_font_metric_info (cachel, charsets, &fm); dl.ascent = fm.ascent; dl.descent = fm.descent; dl.ypos = tb->y + y_offset + fm.ascent; if (fm.ascent + fm.descent <= height) { dl.ypos += (height - fm.ascent - fm.descent) / 2; dl.clip = 0; } else { dl.clip = fm.ascent + fm.descent - height; } MAYBE_DEVMETH (d, output_string, (w, &dl, buf, tb->x + x_offset, 0, 0, width, toolbar_findex, 0, 0, 0, 0)); Dynarr_free (buf); } /* We silently ignore the image if it isn't a pixmap or text. */ } tb->dirty = 0; } static int common_get_button_size (struct frame *f, Lisp_Object window, struct toolbar_button *tb, int vert, int pos) { int shadow_thickness = 2; int size; if (tb->blank) { if (!NILP (tb->down_glyph)) size = XINT (tb->down_glyph); else size = DEFAULT_TOOLBAR_BLANK_SIZE; } else { struct window *w = XWINDOW (window); Lisp_Object glyph = get_toolbar_button_glyph (w, tb); /* Unless, of course, the user has done something stupid like change the glyph out from under us. Use a blank placeholder in that case. */ if (NILP (glyph)) return XINT (f->toolbar_size[pos]); if (vert) size = glyph_height (glyph, window); else size = glyph_width (glyph, window); } if (!size) { /* If the glyph doesn't have a size we'll insert a blank placeholder instead. */ return XINT (f->toolbar_size[pos]); } size += shadow_thickness * 2; return (size); } #define COMMON_OUTPUT_BUTTONS_LOOP(left) \ do { \ while (!NILP (button)) \ { \ struct toolbar_button *tb = XTOOLBAR_BUTTON (button); \ int size, height, width; \ \ if (left && tb->pushright) \ break; \ \ size = common_get_button_size (f, window, tb, vert, pos); \ \ if (vert) \ { \ width = bar_width; \ if (y + size > max_pixpos) \ height = max_pixpos - y; \ else \ height = size; \ } \ else \ { \ if (x + size > max_pixpos) \ width = max_pixpos - x; \ else \ width = size; \ height = bar_height; \ } \ \ if (tb->x != x \ || tb->y != y \ || tb->width != width \ || tb->height != height \ || tb->dirty) \ { \ if (width && height) \ { \ tb->x = x; \ tb->y = y; \ tb->width = width; \ tb->height = height; \ tb->border_width = border_width; \ tb->vertical = vert; \ \ if (tb->blank || NILP (tb->up_glyph)) \ { \ common_draw_blank_toolbar_button (f, tb); \ } \ else \ common_output_toolbar_button (f, button); \ } \ } \ \ if (vert) \ y += height; \ else \ x += width; \ \ if ((vert && y == max_pixpos) || (!vert && x == max_pixpos)) \ button = Qnil; \ else \ button = tb->next; \ } \ } while (0) #define SET_TOOLBAR_WAS_VISIBLE_FLAG(frame, pos, flag) \ do { \ switch (pos) \ { \ case TOP_TOOLBAR: \ (frame)->top_toolbar_was_visible = flag; \ break; \ case BOTTOM_TOOLBAR: \ (frame)->bottom_toolbar_was_visible = flag; \ break; \ case LEFT_TOOLBAR: \ (frame)->left_toolbar_was_visible = flag; \ break; \ case RIGHT_TOOLBAR: \ (frame)->right_toolbar_was_visible = flag; \ break; \ default: \ abort (); \ } \ } while (0) static void common_output_toolbar (struct frame *f, enum toolbar_pos pos) { int x, y, bar_width, bar_height, vert; int max_pixpos, right_size, right_start, blank_size; int border_width = FRAME_REAL_TOOLBAR_BORDER_WIDTH (f, pos); Lisp_Object button, window; face_index toolbar_findex; get_toolbar_coords (f, pos, &x, &y, &bar_width, &bar_height, &vert, 1); window = FRAME_LAST_NONMINIBUF_WINDOW (f); toolbar_findex = get_builtin_face_cache_index (XWINDOW (window), Vtoolbar_face); /* Do the border */ redisplay_clear_region (window, toolbar_findex, x, y, (vert ? bar_width : border_width), (vert ? border_width : bar_height)); redisplay_clear_region (window, toolbar_findex, (vert ? x : x + bar_width - border_width), (vert ? y + bar_height - border_width : y), (vert ? bar_width : border_width), (vert ? border_width : bar_height)); if (vert) { max_pixpos = y + bar_height - border_width; y += border_width; } else { max_pixpos = x + bar_width - border_width; x += border_width; } button = FRAME_TOOLBAR_BUTTONS (f, pos); right_size = 0; /* First loop over all of the buttons to determine how much room we need for left hand and right hand buttons. This loop will also make sure that all instances are instantiated so when we actually output them they will come up immediately. */ while (!NILP (button)) { struct toolbar_button *tb = XTOOLBAR_BUTTON (button); int size = common_get_button_size (f, window, tb, vert, pos); if (tb->pushright) right_size += size; button = tb->next; } button = FRAME_TOOLBAR_BUTTONS (f, pos); /* Loop over the left buttons, updating and outputting them. */ COMMON_OUTPUT_BUTTONS_LOOP (1); /* Now determine where the right buttons start. */ right_start = max_pixpos - right_size; if (right_start < (vert ? y : x)) right_start = (vert ? y : x); /* Output the blank which goes from the end of the left buttons to the start of the right. */ blank_size = right_start - (vert ? y : x); if (blank_size) { int height, width; if (vert) { width = bar_width; height = blank_size; } else { width = blank_size; height = bar_height; } /* * Use a 3D pushright separator only if there isn't a toolbar * border. A flat separator meshes with the border and looks * better. */ if (1) { struct toolbar_button tb; tb.x = x; tb.y = y; tb.width = width; tb.height = height; tb.border_width = border_width; tb.vertical = vert; tb.enabled = 1; tb.up_glyph = border_width ? Qt : Qnil; __prepare_button_area (f, &tb); } if (vert) y += height; else x += width; } /* Loop over the right buttons, updating and outputting them. */ COMMON_OUTPUT_BUTTONS_LOOP (0); if (!vert) { Lisp_Object frame = wrap_frame (f); redisplay_clear_region (frame, DEFAULT_INDEX, FRAME_PIXWIDTH (f) - 1, y, 1, bar_height); } SET_TOOLBAR_WAS_VISIBLE_FLAG (f, pos, 1); __INTERNAL_FLUSH (XDEVICE (f->device)); } static void common_clear_toolbar (struct frame *f, enum toolbar_pos pos, int thickness_change) { Lisp_Object frame; int x, y, width, height, vert; get_toolbar_coords (f, pos, &x, &y, &width, &height, &vert, 1); frame = wrap_frame (f); /* The thickness_change parameter is used by the toolbar resize routines to clear any excess toolbar if the size shrinks. */ if (thickness_change < 0) { if (pos == LEFT_TOOLBAR || pos == RIGHT_TOOLBAR) { x = x + width + thickness_change; width = -thickness_change; } else { y = y + height + thickness_change; height = -thickness_change; } } SET_TOOLBAR_WAS_VISIBLE_FLAG (f, pos, 0); redisplay_clear_region (frame, DEFAULT_INDEX, x, y, width, height); __INTERNAL_FLUSH (XDEVICE (f->device)); } void common_output_frame_toolbars (struct frame *f) { __INTERNAL_APPROPRIATENESS_CHECK(f); if (FRAME_REAL_TOP_TOOLBAR_VISIBLE (f)) common_output_toolbar (f, TOP_TOOLBAR); else if (f->top_toolbar_was_visible) common_clear_toolbar (f, TOP_TOOLBAR, 0); if (FRAME_REAL_BOTTOM_TOOLBAR_VISIBLE (f)) common_output_toolbar (f, BOTTOM_TOOLBAR); else if (f->bottom_toolbar_was_visible) common_clear_toolbar (f, BOTTOM_TOOLBAR, 0); if (FRAME_REAL_LEFT_TOOLBAR_VISIBLE (f)) common_output_toolbar (f, LEFT_TOOLBAR); else if (f->left_toolbar_was_visible) common_clear_toolbar (f, LEFT_TOOLBAR, 0); if (FRAME_REAL_RIGHT_TOOLBAR_VISIBLE (f)) common_output_toolbar (f, RIGHT_TOOLBAR); else if (f->right_toolbar_was_visible) common_clear_toolbar (f, RIGHT_TOOLBAR, 0); } static void common_redraw_exposed_toolbar (struct frame *f, enum toolbar_pos pos, int x, int y, int width, int height) { int bar_x, bar_y, bar_width, bar_height, vert; Lisp_Object button = FRAME_TOOLBAR_BUTTONS (f, pos); get_toolbar_coords (f, pos, &bar_x, &bar_y, &bar_width, &bar_height, &vert, 1); if (((y + height) < bar_y) || (y > (bar_y + bar_height))) return; if (((x + width) < bar_x) || (x > (bar_x + bar_width))) return; while (!NILP (button)) { struct toolbar_button *tb = XTOOLBAR_BUTTON (button); if (vert) { if (((tb->y + tb->height) > y) && (tb->y < (y + height))) tb->dirty = 1; /* If this is true we have gone past the exposed region. */ if (tb->y > (y + height)) break; } else { if (((tb->x + tb->width) > x) && (tb->x < (x + width))) tb->dirty = 1; /* If this is true we have gone past the exposed region. */ if (tb->x > (x + width)) break; } button = tb->next; } /* Even if none of the buttons is in the area, the blank region at the very least must be because the first thing we did is verify that some portion of the toolbar is in the exposed region. */ common_output_toolbar (f, pos); } void common_redraw_exposed_toolbars (struct frame *f, int x, int y, int width, int height) { __INTERNAL_APPROPRIATENESS_CHECK(f); if (FRAME_REAL_TOP_TOOLBAR_VISIBLE (f)) common_redraw_exposed_toolbar (f, TOP_TOOLBAR, x, y, width, height); if (FRAME_REAL_BOTTOM_TOOLBAR_VISIBLE (f)) common_redraw_exposed_toolbar (f, BOTTOM_TOOLBAR, x, y, width, height); if (FRAME_REAL_LEFT_TOOLBAR_VISIBLE (f)) common_redraw_exposed_toolbar (f, LEFT_TOOLBAR, x, y, width, height); if (FRAME_REAL_RIGHT_TOOLBAR_VISIBLE (f)) common_redraw_exposed_toolbar (f, RIGHT_TOOLBAR, x, y, width, height); } void common_redraw_frame_toolbars (struct frame *f) { /* There are certain startup paths that lead to update_EmacsFrame in faces.c being called before a new frame is fully initialized. In particular before we have actually mapped it. That routine can call this one. So, we need to make sure that the frame is actually ready before we try and draw all over it. */ if (__INTERNAL_MAPPED_P(f)) common_redraw_exposed_toolbars (f, 0, 0, FRAME_PIXWIDTH (f), FRAME_PIXHEIGHT (f)); }