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Reindent all C sources to the canonical stroustrup style

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Mechanical whitespace-only change across src/, include/, tests/, and
util/, applied with scripts/reindent.sh. No behavioral change.

Most files already conformed. The genuine outliers indented at 2 columns
(json_helpers.c, util.c from akgl_rectangle_points onward, assets.c,
staticstring.c, akgl_actor_add_child, util.h, staticstring.h) or used
spaces where the canonical form is a tab (draw.c). cc-mode also re-aligns
line-continuation backslashes in multi-line macros to its default
c-backslash-column, which is required for the tree to be a fixed point of
the indenter.

Verified whitespace-only: `git diff -w` over this change is empty apart
from three trailing blank lines removed at EOF in src/heap.c,
src/registry.c, and tests/tilemap.c. The build produces no new errors and
ctest is unchanged at 13/14, with `character` still the one intentional
failure.

The tree is now a fixed point of `scripts/reindent.sh --check`.

include/akgl/SDL_GameControllerDB.h is generated and excluded.

Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
This commit is contained in:
Andrew Kesterson
2026-07-30 18:17:37 -04:00
parent 8d21d5c7dd
commit 28bde4176d
32 changed files with 694 additions and 697 deletions
Download Patch File Download Diff File Expand all files Collapse all files

178
src/util.c
View File

@@ -38,14 +38,14 @@ akerr_ErrorContext *akgl_path_relative_root(char *root, char *path, akgl_String
int rootlen;
int pathlen;
int count;
FAIL_ZERO_RETURN(e, root, AKERR_NULLPOINTER, "NULL argument");
FAIL_ZERO_RETURN(e, path, AKERR_NULLPOINTER, "NULL argument");
FAIL_ZERO_RETURN(e, dst, AKERR_NULLPOINTER, "NULL argument");
PASS(e, akgl_heap_next_string(&strbuf));
PASS(e, akgl_heap_next_string(&pathbuf));
ATTEMPT {
// Is it relative to the root?
rootlen = strlen(root);
@@ -54,10 +54,10 @@ akerr_ErrorContext *akgl_path_relative_root(char *root, char *path, akgl_String
FAIL_RETURN(e, AKERR_OUTOFBOUNDS, "Total path length (%d) is greater than maximum akgl_String length (%d)", (rootlen + pathlen), AKGL_MAX_STRING_LENGTH);
}
DISABLE_GCC_WARNING_FORMAT_TRUNCATION
CATCH(e, aksl_sprintf(&count, (char *)&pathbuf->data, "%s/%s", root, path));
CATCH(e, aksl_sprintf(&count, (char *)&pathbuf->data, "%s/%s", root, path));
RESTORE_GCC_WARNINGS
CATCH(e, aksl_realpath((char *)&pathbuf->data, (char *)&strbuf->data));
CATCH(e, akgl_string_copy(strbuf, dst, 0));
CATCH(e, aksl_realpath((char *)&pathbuf->data, (char *)&strbuf->data));
CATCH(e, akgl_string_copy(strbuf, dst, 0));
} CLEANUP {
IGNORE(akgl_heap_release_string(strbuf));
IGNORE(akgl_heap_release_string(pathbuf));
@@ -71,18 +71,18 @@ akerr_ErrorContext *akgl_path_relative(char *root, char *path, akgl_String *dst)
PREPARE_ERROR(e);
akgl_String *strbuf;
char *result;
FAIL_ZERO_RETURN(e, root, AKERR_NULLPOINTER, "NULL argument");
FAIL_ZERO_RETURN(e, path, AKERR_NULLPOINTER, "NULL argument");
FAIL_ZERO_RETURN(e, dst, AKERR_NULLPOINTER, "NULL argument");
PASS(e, akgl_heap_next_string(&strbuf));
ATTEMPT {
// Is path relative to our current working directory?
CATCH(e, aksl_realpath(path, (char *)&strbuf->data));
// Yes it is. strbuf->data contains the absolute path.
CATCH(e, akgl_string_copy(strbuf, dst, 0));
CATCH(e, akgl_string_copy(strbuf, dst, 0));
} CLEANUP {
IGNORE(akgl_heap_release_string(strbuf));
} PROCESS(e) {
@@ -111,102 +111,102 @@ akerr_ErrorContext *akgl_path_relative_from(char *path, char *from, akgl_String
PASS(e, akgl_heap_next_string(&dirnamestr));
PASS(e, aksl_realpath(from, (char *)&dirnamestr->data));
dirname((char *)&dirnamestr->data);
SUCCEED_RETURN(e);
}
akerr_ErrorContext *akgl_rectangle_points(RectanglePoints *dest, SDL_FRect *rect)
{
PREPARE_ERROR(errctx);
FAIL_ZERO_RETURN(errctx, dest, AKERR_NULLPOINTER, "NULL RectanglePoints reference");
FAIL_ZERO_RETURN(errctx, rect, AKERR_NULLPOINTER, "NULL Rectangle reference");
dest->topleft.x = rect->x;
dest->topleft.y = rect->y;
dest->bottomleft.x = rect->x;
dest->bottomleft.y = rect->y + rect->h;
dest->topright.x = rect->x + rect->w;
dest->topright.y = rect->y;
dest->bottomright.x = rect->x + rect->w;
dest->bottomright.y = rect->y + rect->h;
SUCCEED_RETURN(errctx);
PREPARE_ERROR(errctx);
FAIL_ZERO_RETURN(errctx, dest, AKERR_NULLPOINTER, "NULL RectanglePoints reference");
FAIL_ZERO_RETURN(errctx, rect, AKERR_NULLPOINTER, "NULL Rectangle reference");
dest->topleft.x = rect->x;
dest->topleft.y = rect->y;
dest->bottomleft.x = rect->x;
dest->bottomleft.y = rect->y + rect->h;
dest->topright.x = rect->x + rect->w;
dest->topright.y = rect->y;
dest->bottomright.x = rect->x + rect->w;
dest->bottomright.y = rect->y + rect->h;
SUCCEED_RETURN(errctx);
}
akerr_ErrorContext *akgl_collide_point_rectangle(point *p, RectanglePoints *rp, bool *collide)
{
PREPARE_ERROR(errctx);
FAIL_ZERO_RETURN(errctx, p, AKERR_NULLPOINTER, "NULL Point reference");
FAIL_ZERO_RETURN(errctx, rp, AKERR_NULLPOINTER, "NULL RectanglePoints reference");
FAIL_ZERO_RETURN(errctx, collide, AKERR_NULLPOINTER, "NULL boolean reference");
if ( (p->x >= rp->topleft.x) && (p->y >= rp->topleft.y) &&
(p->x <= rp->bottomright.x) && (p->y <= rp->bottomright.y) ) {
*collide = true;
} else {
*collide = false;
}
SUCCEED_RETURN(errctx);
PREPARE_ERROR(errctx);
FAIL_ZERO_RETURN(errctx, p, AKERR_NULLPOINTER, "NULL Point reference");
FAIL_ZERO_RETURN(errctx, rp, AKERR_NULLPOINTER, "NULL RectanglePoints reference");
FAIL_ZERO_RETURN(errctx, collide, AKERR_NULLPOINTER, "NULL boolean reference");
if ( (p->x >= rp->topleft.x) && (p->y >= rp->topleft.y) &&
(p->x <= rp->bottomright.x) && (p->y <= rp->bottomright.y) ) {
*collide = true;
} else {
*collide = false;
}
SUCCEED_RETURN(errctx);
}
akerr_ErrorContext *akgl_collide_rectangles(SDL_FRect *r1, SDL_FRect *r2, bool *collide)
{
RectanglePoints r1p;
RectanglePoints r2p;
PREPARE_ERROR(errctx);
FAIL_ZERO_RETURN(errctx, r1, AKERR_NULLPOINTER, "NULL rectangle reference");
FAIL_ZERO_RETURN(errctx, r2, AKERR_NULLPOINTER, "NULL rectangle reference");
FAIL_ZERO_RETURN(errctx, collide, AKERR_NULLPOINTER, "NULL collision flag reference");
ATTEMPT {
CATCH(errctx, akgl_rectangle_points(&r1p, r1));
CATCH(errctx, akgl_rectangle_points(&r2p, r2));
// is the upper left corner of r1 contacting r2?
CATCH(errctx, akgl_collide_point_rectangle(&r1p.topleft, &r2p, collide));
if ( *collide == true ) { SUCCEED_RETURN(errctx); }
// is the upper left corner of r2 contacting r1?
CATCH(errctx, akgl_collide_point_rectangle(&r2p.topleft, &r1p, collide));
if ( *collide == true ) { SUCCEED_RETURN(errctx); }
// is the top right corner of r1 contacting r2?
CATCH(errctx, akgl_collide_point_rectangle(&r1p.topright, &r2p, collide));
if ( *collide == true ) { SUCCEED_RETURN(errctx); }
// is the top right corner of r2 contacting r1?
CATCH(errctx, akgl_collide_point_rectangle(&r2p.topright, &r1p, collide));
if ( *collide == true ) { SUCCEED_RETURN(errctx); }
// is the bottom left corner of r1 contacting r2?
CATCH(errctx, akgl_collide_point_rectangle(&r1p.bottomleft, &r2p, collide));
if ( *collide == true ) { SUCCEED_RETURN(errctx); }
// is the bottom left corner of r2 contacting r1?
CATCH(errctx, akgl_collide_point_rectangle(&r2p.bottomleft, &r1p, collide));
if ( *collide == true ) { SUCCEED_RETURN(errctx); }
// is the bottom right corner of r1 contacting r2?
CATCH(errctx, akgl_collide_point_rectangle(&r1p.bottomright, &r2p, collide));
if ( *collide == true ) { SUCCEED_RETURN(errctx); }
// is the bottom right corner of r2 contacting r1?
CATCH(errctx, akgl_collide_point_rectangle(&r2p.bottomright, &r1p, collide));
if ( *collide == true ) { SUCCEED_RETURN(errctx); }
RectanglePoints r1p;
RectanglePoints r2p;
PREPARE_ERROR(errctx);
FAIL_ZERO_RETURN(errctx, r1, AKERR_NULLPOINTER, "NULL rectangle reference");
FAIL_ZERO_RETURN(errctx, r2, AKERR_NULLPOINTER, "NULL rectangle reference");
FAIL_ZERO_RETURN(errctx, collide, AKERR_NULLPOINTER, "NULL collision flag reference");
} CLEANUP {
} PROCESS(errctx) {
} FINISH(errctx, true);
*collide = false;
SUCCEED_RETURN(errctx);
ATTEMPT {
CATCH(errctx, akgl_rectangle_points(&r1p, r1));
CATCH(errctx, akgl_rectangle_points(&r2p, r2));
// is the upper left corner of r1 contacting r2?
CATCH(errctx, akgl_collide_point_rectangle(&r1p.topleft, &r2p, collide));
if ( *collide == true ) { SUCCEED_RETURN(errctx); }
// is the upper left corner of r2 contacting r1?
CATCH(errctx, akgl_collide_point_rectangle(&r2p.topleft, &r1p, collide));
if ( *collide == true ) { SUCCEED_RETURN(errctx); }
// is the top right corner of r1 contacting r2?
CATCH(errctx, akgl_collide_point_rectangle(&r1p.topright, &r2p, collide));
if ( *collide == true ) { SUCCEED_RETURN(errctx); }
// is the top right corner of r2 contacting r1?
CATCH(errctx, akgl_collide_point_rectangle(&r2p.topright, &r1p, collide));
if ( *collide == true ) { SUCCEED_RETURN(errctx); }
// is the bottom left corner of r1 contacting r2?
CATCH(errctx, akgl_collide_point_rectangle(&r1p.bottomleft, &r2p, collide));
if ( *collide == true ) { SUCCEED_RETURN(errctx); }
// is the bottom left corner of r2 contacting r1?
CATCH(errctx, akgl_collide_point_rectangle(&r2p.bottomleft, &r1p, collide));
if ( *collide == true ) { SUCCEED_RETURN(errctx); }
// is the bottom right corner of r1 contacting r2?
CATCH(errctx, akgl_collide_point_rectangle(&r1p.bottomright, &r2p, collide));
if ( *collide == true ) { SUCCEED_RETURN(errctx); }
// is the bottom right corner of r2 contacting r1?
CATCH(errctx, akgl_collide_point_rectangle(&r2p.bottomright, &r1p, collide));
if ( *collide == true ) { SUCCEED_RETURN(errctx); }
} CLEANUP {
} PROCESS(errctx) {
} FINISH(errctx, true);
*collide = false;
SUCCEED_RETURN(errctx);
}
akerr_ErrorContext *akgl_compare_sdl_surfaces(SDL_Surface *s1, SDL_Surface *s2)
{
PREPARE_ERROR(errctx);
FAIL_ZERO_RETURN(errctx, s1, AKERR_NULLPOINTER, "NULL Surface pointer");
FAIL_ZERO_RETURN(errctx, s2, AKERR_NULLPOINTER, "NULL Surface pointer");
FAIL_NONZERO_RETURN(errctx, memcmp(s1->pixels, s2->pixels, (s1->pitch * s1->h)), AKERR_VALUE, "Comparison surfaces are not equal");
SUCCEED_RETURN(errctx);
PREPARE_ERROR(errctx);
FAIL_ZERO_RETURN(errctx, s1, AKERR_NULLPOINTER, "NULL Surface pointer");
FAIL_ZERO_RETURN(errctx, s2, AKERR_NULLPOINTER, "NULL Surface pointer");
FAIL_NONZERO_RETURN(errctx, memcmp(s1->pixels, s2->pixels, (s1->pitch * s1->h)), AKERR_VALUE, "Comparison surfaces are not equal");
SUCCEED_RETURN(errctx);
}
akerr_ErrorContext *akgl_render_and_compare(SDL_Texture *t1, SDL_Texture *t2, int x, int y, int w, int h, char *writeout)
@@ -228,7 +228,7 @@ akerr_ErrorContext *akgl_render_and_compare(SDL_Texture *t1, SDL_Texture *t2, in
CATCH(errctx, renderer->draw_texture(renderer, t1, &src, &dest, 0, NULL, SDL_FLIP_NONE));
s1 = SDL_RenderReadPixels(renderer->sdl_renderer, &read);
FAIL_ZERO_BREAK(errctx, s1, AKGL_ERR_SDL, "Failed to read pixels from renderer");
if ( writeout != NULL ) {
snprintf((char *)&tmpstring->data, AKGL_MAX_STRING_LENGTH, "%s%s", SDL_GetBasePath(), writeout);
FAIL_ZERO_BREAK(
@@ -239,13 +239,13 @@ akerr_ErrorContext *akgl_render_and_compare(SDL_Texture *t1, SDL_Texture *t2, in
(char *)&tmpstring->data,
SDL_GetError());
}
SDL_RenderClear(renderer->sdl_renderer);
CATCH(errctx, renderer->draw_texture(renderer, t1, &src, &dest, 0, NULL, SDL_FLIP_NONE));
s2 = SDL_RenderReadPixels(renderer->sdl_renderer, &read);
FAIL_ZERO_BREAK(errctx, s2, AKGL_ERR_SDL, "Failed to read pixels from renderer");
CATCH(errctx, akgl_compare_sdl_surfaces(s1, s2));
} CLEANUP {
if ( s1 != NULL )