Tabs to spaces for sprite.cpp

This commit is contained in:
Ted John 2017-02-09 12:39:26 +00:00
parent 6ea4e4987d
commit 6a0f934a5f
1 changed files with 414 additions and 414 deletions

View File

@ -28,39 +28,39 @@ rct_gx g2;
rct_gx csg; rct_gx csg;
#ifdef NO_RCT2 #ifdef NO_RCT2
rct_g1_element *g1Elements = NULL; rct_g1_element *g1Elements = NULL;
#else #else
rct_g1_element *g1Elements = RCT2_ADDRESS(RCT2_ADDRESS_G1_ELEMENTS, rct_g1_element); rct_g1_element *g1Elements = RCT2_ADDRESS(RCT2_ADDRESS_G1_ELEMENTS, rct_g1_element);
#endif #endif
static const uint32 fadeSprites[] = { static const uint32 fadeSprites[] = {
SPR_NONE, SPR_NONE,
SPR_FADE_1, SPR_FADE_1,
SPR_FADE_2, SPR_FADE_2,
SPR_FADE_3, SPR_FADE_3,
SPR_FADE_4, SPR_FADE_4,
SPR_FADE_5, SPR_FADE_5,
SPR_FADE_6, SPR_FADE_6,
SPR_FADE_7, SPR_FADE_7,
}; };
static void read_and_convert_gxdat(SDL_RWops *file, size_t count, rct_g1_element *elements) static void read_and_convert_gxdat(SDL_RWops *file, size_t count, rct_g1_element *elements)
{ {
rct_g1_element_32bit *g1Elements32 = calloc(count, sizeof(rct_g1_element_32bit)); rct_g1_element_32bit *g1Elements32 = calloc(count, sizeof(rct_g1_element_32bit));
SDL_RWread(file, g1Elements32, count * sizeof(rct_g1_element_32bit), 1); SDL_RWread(file, g1Elements32, count * sizeof(rct_g1_element_32bit), 1);
for (size_t i = 0; i < count; i++) { for (size_t i = 0; i < count; i++) {
/* Double cast to silence compiler warning about casting to /* Double cast to silence compiler warning about casting to
* pointer from integer of mismatched length. * pointer from integer of mismatched length.
*/ */
elements[i].offset = (uint8*)(uintptr_t)g1Elements32[i].offset; elements[i].offset = (uint8*)(uintptr_t)g1Elements32[i].offset;
elements[i].width = g1Elements32[i].width; elements[i].width = g1Elements32[i].width;
elements[i].height = g1Elements32[i].height; elements[i].height = g1Elements32[i].height;
elements[i].x_offset = g1Elements32[i].x_offset; elements[i].x_offset = g1Elements32[i].x_offset;
elements[i].y_offset = g1Elements32[i].y_offset; elements[i].y_offset = g1Elements32[i].y_offset;
elements[i].flags = g1Elements32[i].flags; elements[i].flags = g1Elements32[i].flags;
elements[i].zoomed_offset = g1Elements32[i].zoomed_offset; elements[i].zoomed_offset = g1Elements32[i].zoomed_offset;
} }
free(g1Elements32); free(g1Elements32);
} }
/** /**
@ -69,166 +69,166 @@ static void read_and_convert_gxdat(SDL_RWops *file, size_t count, rct_g1_element
*/ */
bool gfx_load_g1() bool gfx_load_g1()
{ {
log_verbose("loading g1 graphics"); log_verbose("loading g1 graphics");
SDL_RWops *file = SDL_RWFromFile(get_file_path(PATH_ID_G1), "rb"); SDL_RWops *file = SDL_RWFromFile(get_file_path(PATH_ID_G1), "rb");
if (file != NULL) { if (file != NULL) {
rct_g1_header header; rct_g1_header header;
if (SDL_RWread(file, &header, 8, 1) == 1) { if (SDL_RWread(file, &header, 8, 1) == 1) {
/* number of elements is stored in g1.dat, but because the entry /* number of elements is stored in g1.dat, but because the entry
* headers are static, this can't be variable until made into a * headers are static, this can't be variable until made into a
* dynamic array. * dynamic array.
*/ */
header.num_entries = 29294; header.num_entries = 29294;
// Read element headers // Read element headers
#ifdef NO_RCT2 #ifdef NO_RCT2
g1Elements = calloc(324206, sizeof(rct_g1_element)); g1Elements = calloc(324206, sizeof(rct_g1_element));
#endif #endif
read_and_convert_gxdat(file, header.num_entries, g1Elements); read_and_convert_gxdat(file, header.num_entries, g1Elements);
// Read element data // Read element data
_g1Buffer = malloc(header.total_size); _g1Buffer = malloc(header.total_size);
SDL_RWread(file, _g1Buffer, header.total_size, 1); SDL_RWread(file, _g1Buffer, header.total_size, 1);
SDL_RWclose(file); SDL_RWclose(file);
// Fix entry data offsets // Fix entry data offsets
for (uint32 i = 0; i < header.num_entries; i++) for (uint32 i = 0; i < header.num_entries; i++)
g1Elements[i].offset += (uintptr_t)_g1Buffer; g1Elements[i].offset += (uintptr_t)_g1Buffer;
return true; return true;
} }
SDL_RWclose(file); SDL_RWclose(file);
} }
log_fatal("Unable to load g1 graphics"); log_fatal("Unable to load g1 graphics");
if (!gOpenRCT2Headless) { if (!gOpenRCT2Headless) {
platform_show_messagebox("Unable to load g1.dat. Your RollerCoaster Tycoon 2 path may be incorrectly set."); platform_show_messagebox("Unable to load g1.dat. Your RollerCoaster Tycoon 2 path may be incorrectly set.");
} }
return false; return false;
} }
void gfx_unload_g1() void gfx_unload_g1()
{ {
SafeFree(_g1Buffer); SafeFree(_g1Buffer);
#ifdef NO_RCT2 #ifdef NO_RCT2
SafeFree(g1Elements); SafeFree(g1Elements);
#endif #endif
} }
void gfx_unload_g2() void gfx_unload_g2()
{ {
SafeFree(g2.elements); SafeFree(g2.elements);
} }
void gfx_unload_csg() void gfx_unload_csg()
{ {
SafeFree(csg.elements); SafeFree(csg.elements);
} }
bool gfx_load_g2() bool gfx_load_g2()
{ {
log_verbose("loading g2 graphics"); log_verbose("loading g2 graphics");
char path[MAX_PATH]; char path[MAX_PATH];
platform_get_openrct_data_path(path, sizeof(path)); platform_get_openrct_data_path(path, sizeof(path));
safe_strcat_path(path, "g2.dat", MAX_PATH); safe_strcat_path(path, "g2.dat", MAX_PATH);
SDL_RWops *file = SDL_RWFromFile(path, "rb"); SDL_RWops *file = SDL_RWFromFile(path, "rb");
if (file != NULL) { if (file != NULL) {
if (SDL_RWread(file, &g2.header, 8, 1) == 1) { if (SDL_RWread(file, &g2.header, 8, 1) == 1) {
// Read element headers // Read element headers
g2.elements = malloc(g2.header.num_entries * sizeof(rct_g1_element)); g2.elements = malloc(g2.header.num_entries * sizeof(rct_g1_element));
read_and_convert_gxdat(file, g2.header.num_entries, g2.elements); read_and_convert_gxdat(file, g2.header.num_entries, g2.elements);
// Read element data // Read element data
g2.data = malloc(g2.header.total_size); g2.data = malloc(g2.header.total_size);
SDL_RWread(file, g2.data, g2.header.total_size, 1); SDL_RWread(file, g2.data, g2.header.total_size, 1);
SDL_RWclose(file); SDL_RWclose(file);
// Fix entry data offsets // Fix entry data offsets
for (uint32 i = 0; i < g2.header.num_entries; i++) for (uint32 i = 0; i < g2.header.num_entries; i++)
g2.elements[i].offset += (uintptr_t)g2.data; g2.elements[i].offset += (uintptr_t)g2.data;
return true; return true;
} }
SDL_RWclose(file); SDL_RWclose(file);
} }
log_fatal("Unable to load g2 graphics"); log_fatal("Unable to load g2 graphics");
if (!gOpenRCT2Headless) { if (!gOpenRCT2Headless) {
platform_show_messagebox("Unable to load g2.dat"); platform_show_messagebox("Unable to load g2.dat");
} }
return false; return false;
} }
bool gfx_load_csg() bool gfx_load_csg()
{ {
if (str_is_null_or_empty(gConfigGeneral.rct1_path)) { if (str_is_null_or_empty(gConfigGeneral.rct1_path)) {
return false; return false;
} }
bool success = false; bool success = false;
log_verbose("loading csg graphics"); log_verbose("loading csg graphics");
char pathHeader[MAX_PATH]; char pathHeader[MAX_PATH];
safe_strcpy(pathHeader, gConfigGeneral.rct1_path, sizeof(pathHeader)); safe_strcpy(pathHeader, gConfigGeneral.rct1_path, sizeof(pathHeader));
safe_strcat_path(pathHeader, "Data", sizeof(pathHeader)); safe_strcat_path(pathHeader, "Data", sizeof(pathHeader));
safe_strcat_path(pathHeader, "csg1i.dat", sizeof(pathHeader)); safe_strcat_path(pathHeader, "csg1i.dat", sizeof(pathHeader));
char pathData[MAX_PATH]; char pathData[MAX_PATH];
safe_strcpy(pathData, gConfigGeneral.rct1_path, sizeof(pathData)); safe_strcpy(pathData, gConfigGeneral.rct1_path, sizeof(pathData));
safe_strcat_path(pathData, "Data", sizeof(pathData)); safe_strcat_path(pathData, "Data", sizeof(pathData));
safe_strcat_path(pathData, "csg1.1", sizeof(pathData)); safe_strcat_path(pathData, "csg1.1", sizeof(pathData));
SDL_RWops * fileHeader = SDL_RWFromFile(pathHeader, "rb"); SDL_RWops * fileHeader = SDL_RWFromFile(pathHeader, "rb");
SDL_RWops * fileData = SDL_RWFromFile(pathData, "rb"); SDL_RWops * fileData = SDL_RWFromFile(pathData, "rb");
if (fileHeader != NULL && fileData != NULL) { if (fileHeader != NULL && fileData != NULL) {
SDL_RWseek(fileHeader, 0, RW_SEEK_END); SDL_RWseek(fileHeader, 0, RW_SEEK_END);
SDL_RWseek(fileData, 0, RW_SEEK_END); SDL_RWseek(fileData, 0, RW_SEEK_END);
size_t fileHeaderSize = SDL_RWtell(fileHeader); size_t fileHeaderSize = SDL_RWtell(fileHeader);
size_t fileDataSize = SDL_RWtell(fileData); size_t fileDataSize = SDL_RWtell(fileData);
SDL_RWseek(fileHeader, 0, RW_SEEK_SET); SDL_RWseek(fileHeader, 0, RW_SEEK_SET);
SDL_RWseek(fileData, 0, RW_SEEK_SET); SDL_RWseek(fileData, 0, RW_SEEK_SET);
csg.header.num_entries = (uint32)(fileHeaderSize / sizeof(rct_g1_element_32bit)); csg.header.num_entries = (uint32)(fileHeaderSize / sizeof(rct_g1_element_32bit));
csg.header.total_size = (uint32)fileDataSize; csg.header.total_size = (uint32)fileDataSize;
// Read element headers // Read element headers
csg.elements = malloc(csg.header.num_entries * sizeof(rct_g1_element)); csg.elements = malloc(csg.header.num_entries * sizeof(rct_g1_element));
read_and_convert_gxdat(fileHeader, csg.header.num_entries, csg.elements); read_and_convert_gxdat(fileHeader, csg.header.num_entries, csg.elements);
// Read element data // Read element data
csg.data = malloc(csg.header.total_size); csg.data = malloc(csg.header.total_size);
SDL_RWread(fileData, csg.data, csg.header.total_size, 1); SDL_RWread(fileData, csg.data, csg.header.total_size, 1);
// Fix entry data offsets // Fix entry data offsets
for (uint32 i = 0; i < csg.header.num_entries; i++) { for (uint32 i = 0; i < csg.header.num_entries; i++) {
csg.elements[i].offset += (uintptr_t)csg.data; csg.elements[i].offset += (uintptr_t)csg.data;
// RCT1 used zoomed offsets that counted from the beginning of the file, rather than from the current sprite. // RCT1 used zoomed offsets that counted from the beginning of the file, rather than from the current sprite.
csg.elements[i].zoomed_offset = i - (SPR_CSG_BEGIN + csg.elements[i].zoomed_offset); csg.elements[i].zoomed_offset = i - (SPR_CSG_BEGIN + csg.elements[i].zoomed_offset);
} }
success = true; success = true;
} }
if (fileHeader != NULL) { if (fileHeader != NULL) {
SDL_RWclose(fileHeader); SDL_RWclose(fileHeader);
} }
if (fileData != NULL) { if (fileData != NULL) {
SDL_RWclose(fileData); SDL_RWclose(fileData);
} }
if (success) { if (success) {
return true; return true;
} else { } else {
log_error("Unable to load csg graphics"); log_error("Unable to load csg graphics");
return false; return false;
} }
} }
/** /**
@ -237,14 +237,14 @@ bool gfx_load_csg()
*/ */
void sub_68371D() void sub_68371D()
{ {
for (sint32 i = 0; i < countof(fadeSprites); i++) { for (sint32 i = 0; i < countof(fadeSprites); i++) {
const uint32 spriteId = fadeSprites[i]; const uint32 spriteId = fadeSprites[i];
if (spriteId == SPR_NONE) { if (spriteId == SPR_NONE) {
unk_9E3CE4[i] = NULL; unk_9E3CE4[i] = NULL;
} else { } else {
unk_9E3CE4[i] = g1Elements[fadeSprites[i]].offset; unk_9E3CE4[i] = g1Elements[fadeSprites[i]].offset;
} }
} }
} }
/** /**
@ -253,127 +253,127 @@ void sub_68371D()
* rct2: 0x0067A690 * rct2: 0x0067A690
*/ */
static void FASTCALL gfx_bmp_sprite_to_buffer(uint8* palette_pointer, uint8* unknown_pointer, uint8* source_pointer, uint8* dest_pointer, rct_g1_element* source_image, rct_drawpixelinfo *dest_dpi, sint32 height, sint32 width, sint32 image_type){ static void FASTCALL gfx_bmp_sprite_to_buffer(uint8* palette_pointer, uint8* unknown_pointer, uint8* source_pointer, uint8* dest_pointer, rct_g1_element* source_image, rct_drawpixelinfo *dest_dpi, sint32 height, sint32 width, sint32 image_type){
uint16 zoom_level = dest_dpi->zoom_level; uint16 zoom_level = dest_dpi->zoom_level;
uint8 zoom_amount = 1 << zoom_level; uint8 zoom_amount = 1 << zoom_level;
uint32 dest_line_width = (dest_dpi->width / zoom_amount) + dest_dpi->pitch; uint32 dest_line_width = (dest_dpi->width / zoom_amount) + dest_dpi->pitch;
uint32 source_line_width = source_image->width * zoom_amount; uint32 source_line_width = source_image->width * zoom_amount;
// Image uses the palette pointer to remap the colours of the image // Image uses the palette pointer to remap the colours of the image
if (image_type & IMAGE_TYPE_REMAP){ if (image_type & IMAGE_TYPE_REMAP){
assert(palette_pointer != NULL); assert(palette_pointer != NULL);
//image with remaps //image with remaps
for (; height > 0; height -= zoom_amount){ for (; height > 0; height -= zoom_amount){
uint8* next_source_pointer = source_pointer + source_line_width; uint8* next_source_pointer = source_pointer + source_line_width;
uint8* next_dest_pointer = dest_pointer + dest_line_width; uint8* next_dest_pointer = dest_pointer + dest_line_width;
for (sint32 no_pixels = width; no_pixels > 0; no_pixels -= zoom_amount, source_pointer += zoom_amount, dest_pointer++){ for (sint32 no_pixels = width; no_pixels > 0; no_pixels -= zoom_amount, source_pointer += zoom_amount, dest_pointer++){
uint8 pixel = *source_pointer; uint8 pixel = *source_pointer;
pixel = palette_pointer[pixel]; pixel = palette_pointer[pixel];
if (pixel){ if (pixel){
*dest_pointer = pixel; *dest_pointer = pixel;
} }
} }
source_pointer = next_source_pointer; source_pointer = next_source_pointer;
dest_pointer = next_dest_pointer; dest_pointer = next_dest_pointer;
} }
return; return;
} }
//Image is Transparent. It only uses source pointer for //Image is Transparent. It only uses source pointer for
//telling if it needs to be drawn not for colour. Colour provided //telling if it needs to be drawn not for colour. Colour provided
//by the palette pointer. //by the palette pointer.
if (image_type & IMAGE_TYPE_TRANSPARENT){//Not tested if (image_type & IMAGE_TYPE_TRANSPARENT){//Not tested
assert(palette_pointer != NULL); assert(palette_pointer != NULL);
for (; height > 0; height -= zoom_amount){ for (; height > 0; height -= zoom_amount){
uint8* next_source_pointer = source_pointer + source_line_width; uint8* next_source_pointer = source_pointer + source_line_width;
uint8* next_dest_pointer = dest_pointer + dest_line_width; uint8* next_dest_pointer = dest_pointer + dest_line_width;
for (sint32 no_pixels = width; no_pixels > 0; no_pixels -= zoom_amount, source_pointer += zoom_amount, dest_pointer++){ for (sint32 no_pixels = width; no_pixels > 0; no_pixels -= zoom_amount, source_pointer += zoom_amount, dest_pointer++){
uint8 pixel = *source_pointer; uint8 pixel = *source_pointer;
if (pixel){ if (pixel){
pixel = *dest_pointer; pixel = *dest_pointer;
pixel = palette_pointer[pixel]; pixel = palette_pointer[pixel];
*dest_pointer = pixel; *dest_pointer = pixel;
} }
} }
source_pointer = next_source_pointer; source_pointer = next_source_pointer;
dest_pointer = next_dest_pointer; dest_pointer = next_dest_pointer;
} }
return; return;
} }
//Basic bitmap no fancy stuff //Basic bitmap no fancy stuff
if (!(source_image->flags & G1_FLAG_BMP)){//Not tested if (!(source_image->flags & G1_FLAG_BMP)){//Not tested
for (; height > 0; height -= zoom_amount){ for (; height > 0; height -= zoom_amount){
uint8* next_source_pointer = source_pointer + source_line_width; uint8* next_source_pointer = source_pointer + source_line_width;
uint8* next_dest_pointer = dest_pointer + dest_line_width; uint8* next_dest_pointer = dest_pointer + dest_line_width;
for (sint32 no_pixels = width; no_pixels > 0; no_pixels -= zoom_amount, dest_pointer++, source_pointer += zoom_amount){ for (sint32 no_pixels = width; no_pixels > 0; no_pixels -= zoom_amount, dest_pointer++, source_pointer += zoom_amount){
*dest_pointer = *source_pointer; *dest_pointer = *source_pointer;
} }
dest_pointer = next_dest_pointer; dest_pointer = next_dest_pointer;
source_pointer = next_source_pointer; source_pointer = next_source_pointer;
} }
return; return;
} }
//Basic bitmap with no draw pixels //Basic bitmap with no draw pixels
for (; height > 0; height -= zoom_amount){ for (; height > 0; height -= zoom_amount){
uint8* next_source_pointer = source_pointer + source_line_width; uint8* next_source_pointer = source_pointer + source_line_width;
uint8* next_dest_pointer = dest_pointer + dest_line_width; uint8* next_dest_pointer = dest_pointer + dest_line_width;
for (sint32 no_pixels = width; no_pixels > 0; no_pixels -= zoom_amount, dest_pointer++, source_pointer += zoom_amount){ for (sint32 no_pixels = width; no_pixels > 0; no_pixels -= zoom_amount, dest_pointer++, source_pointer += zoom_amount){
uint8 pixel = *source_pointer; uint8 pixel = *source_pointer;
if (pixel){ if (pixel){
*dest_pointer = pixel; *dest_pointer = pixel;
} }
} }
dest_pointer = next_dest_pointer; dest_pointer = next_dest_pointer;
source_pointer = next_source_pointer; source_pointer = next_source_pointer;
} }
return; return;
} }
uint8* FASTCALL gfx_draw_sprite_get_palette(sint32 image_id, uint32 tertiary_colour) { uint8* FASTCALL gfx_draw_sprite_get_palette(sint32 image_id, uint32 tertiary_colour) {
sint32 image_type = (image_id & 0xE0000000); sint32 image_type = (image_id & 0xE0000000);
if (image_type == 0) if (image_type == 0)
return NULL; return NULL;
if (!(image_type & IMAGE_TYPE_REMAP_2_PLUS)) { if (!(image_type & IMAGE_TYPE_REMAP_2_PLUS)) {
uint8 palette_ref = (image_id >> 19) & 0xFF; uint8 palette_ref = (image_id >> 19) & 0xFF;
if (!(image_type & IMAGE_TYPE_TRANSPARENT)) { if (!(image_type & IMAGE_TYPE_TRANSPARENT)) {
palette_ref &= 0x7F; palette_ref &= 0x7F;
} }
uint16 palette_offset = palette_to_g1_offset[palette_ref]; uint16 palette_offset = palette_to_g1_offset[palette_ref];
return g1Elements[palette_offset].offset; return g1Elements[palette_offset].offset;
} }
else { else {
uint8* palette_pointer = gPeepPalette; uint8* palette_pointer = gPeepPalette;
uint32 primary_offset = palette_to_g1_offset[(image_id >> 19) & 0x1F]; uint32 primary_offset = palette_to_g1_offset[(image_id >> 19) & 0x1F];
uint32 secondary_offset = palette_to_g1_offset[(image_id >> 24) & 0x1F]; uint32 secondary_offset = palette_to_g1_offset[(image_id >> 24) & 0x1F];
if (!(image_type & IMAGE_TYPE_REMAP)) { if (!(image_type & IMAGE_TYPE_REMAP)) {
palette_pointer = gOtherPalette; palette_pointer = gOtherPalette;
#if defined(DEBUG_LEVEL_2) && DEBUG_LEVEL_2 #if defined(DEBUG_LEVEL_2) && DEBUG_LEVEL_2
assert(tertiary_colour < PALETTE_TO_G1_OFFSET_COUNT); assert(tertiary_colour < PALETTE_TO_G1_OFFSET_COUNT);
#endif // DEBUG_LEVEL_2 #endif // DEBUG_LEVEL_2
uint32 tertiary_offset = palette_to_g1_offset[tertiary_colour]; uint32 tertiary_offset = palette_to_g1_offset[tertiary_colour];
rct_g1_element* tertiary_palette = &g1Elements[tertiary_offset]; rct_g1_element* tertiary_palette = &g1Elements[tertiary_offset];
memcpy(palette_pointer + 0x2E, &tertiary_palette->offset[0xF3], 12); memcpy(palette_pointer + 0x2E, &tertiary_palette->offset[0xF3], 12);
} }
rct_g1_element* primary_palette = &g1Elements[primary_offset]; rct_g1_element* primary_palette = &g1Elements[primary_offset];
rct_g1_element* secondary_palette = &g1Elements[secondary_offset]; rct_g1_element* secondary_palette = &g1Elements[secondary_offset];
memcpy(palette_pointer + 0xF3, &primary_palette->offset[0xF3], 12); memcpy(palette_pointer + 0xF3, &primary_palette->offset[0xF3], 12);
memcpy(palette_pointer + 0xCA, &secondary_palette->offset[0xF3], 12); memcpy(palette_pointer + 0xCA, &secondary_palette->offset[0xF3], 12);
return palette_pointer; return palette_pointer;
} }
} }
/** /**
@ -394,13 +394,13 @@ uint8* FASTCALL gfx_draw_sprite_get_palette(sint32 image_id, uint32 tertiary_col
*/ */
void FASTCALL gfx_draw_sprite_software(rct_drawpixelinfo *dpi, sint32 image_id, sint32 x, sint32 y, uint32 tertiary_colour) void FASTCALL gfx_draw_sprite_software(rct_drawpixelinfo *dpi, sint32 image_id, sint32 x, sint32 y, uint32 tertiary_colour)
{ {
uint8* palette_pointer = gfx_draw_sprite_get_palette(image_id, tertiary_colour); uint8* palette_pointer = gfx_draw_sprite_get_palette(image_id, tertiary_colour);
if (image_id & IMAGE_TYPE_REMAP_2_PLUS) { if (image_id & IMAGE_TYPE_REMAP_2_PLUS) {
image_id |= IMAGE_TYPE_REMAP; image_id |= IMAGE_TYPE_REMAP;
} }
gfx_draw_sprite_palette_set_software(dpi, image_id, x, y, palette_pointer, NULL); gfx_draw_sprite_palette_set_software(dpi, image_id, x, y, palette_pointer, NULL);
} }
/* /*
@ -414,142 +414,142 @@ void FASTCALL gfx_draw_sprite_software(rct_drawpixelinfo *dpi, sint32 image_id,
*/ */
void FASTCALL gfx_draw_sprite_palette_set_software(rct_drawpixelinfo *dpi, sint32 image_id, sint32 x, sint32 y, uint8* palette_pointer, uint8* unknown_pointer) void FASTCALL gfx_draw_sprite_palette_set_software(rct_drawpixelinfo *dpi, sint32 image_id, sint32 x, sint32 y, uint8* palette_pointer, uint8* unknown_pointer)
{ {
sint32 image_element = image_id & 0x7FFFF; sint32 image_element = image_id & 0x7FFFF;
sint32 image_type = image_id & 0xE0000000; sint32 image_type = image_id & 0xE0000000;
rct_g1_element *g1_source = gfx_get_g1_element(image_element); rct_g1_element *g1_source = gfx_get_g1_element(image_element);
if (dpi->zoom_level != 0 && (g1_source->flags & G1_FLAG_HAS_ZOOM_SPRITE)) { if (dpi->zoom_level != 0 && (g1_source->flags & G1_FLAG_HAS_ZOOM_SPRITE)) {
rct_drawpixelinfo zoomed_dpi = { rct_drawpixelinfo zoomed_dpi = {
.bits = dpi->bits, .bits = dpi->bits,
.x = dpi->x >> 1, .x = dpi->x >> 1,
.y = dpi->y >> 1, .y = dpi->y >> 1,
.height = dpi->height>>1, .height = dpi->height>>1,
.width = dpi->width>>1, .width = dpi->width>>1,
.pitch = dpi->pitch, .pitch = dpi->pitch,
.zoom_level = dpi->zoom_level - 1 .zoom_level = dpi->zoom_level - 1
}; };
gfx_draw_sprite_palette_set_software(&zoomed_dpi, image_type | (image_element - g1_source->zoomed_offset), x >> 1, y >> 1, palette_pointer, unknown_pointer); gfx_draw_sprite_palette_set_software(&zoomed_dpi, image_type | (image_element - g1_source->zoomed_offset), x >> 1, y >> 1, palette_pointer, unknown_pointer);
return; return;
} }
if (dpi->zoom_level != 0 && (g1_source->flags & G1_FLAG_NO_ZOOM_DRAW)) { if (dpi->zoom_level != 0 && (g1_source->flags & G1_FLAG_NO_ZOOM_DRAW)) {
return; return;
} }
//Its used super often so we will define it to a separate variable. //Its used super often so we will define it to a separate variable.
sint32 zoom_level = dpi->zoom_level; sint32 zoom_level = dpi->zoom_level;
sint32 zoom_mask = 0xFFFFFFFF << zoom_level; sint32 zoom_mask = 0xFFFFFFFF << zoom_level;
if (zoom_level && g1_source->flags & G1_FLAG_RLE_COMPRESSION){ if (zoom_level && g1_source->flags & G1_FLAG_RLE_COMPRESSION){
x -= ~zoom_mask; x -= ~zoom_mask;
y -= ~zoom_mask; y -= ~zoom_mask;
} }
//This will be the height of the drawn image //This will be the height of the drawn image
sint32 height = g1_source->height; sint32 height = g1_source->height;
//This is the start y coordinate on the destination //This is the start y coordinate on the destination
sint16 dest_start_y = y + g1_source->y_offset; sint16 dest_start_y = y + g1_source->y_offset;
// For whatever reason the RLE version does not use // For whatever reason the RLE version does not use
// the zoom mask on the y coordinate but does on x. // the zoom mask on the y coordinate but does on x.
if (g1_source->flags & G1_FLAG_RLE_COMPRESSION){ if (g1_source->flags & G1_FLAG_RLE_COMPRESSION){
dest_start_y -= dpi->y; dest_start_y -= dpi->y;
} }
else{ else{
dest_start_y = (dest_start_y&zoom_mask) - dpi->y; dest_start_y = (dest_start_y&zoom_mask) - dpi->y;
} }
//This is the start y coordinate on the source //This is the start y coordinate on the source
sint32 source_start_y = 0; sint32 source_start_y = 0;
if (dest_start_y < 0){ if (dest_start_y < 0){
//If the destination y is negative reduce the height of the //If the destination y is negative reduce the height of the
//image as we will cut off the bottom //image as we will cut off the bottom
height += dest_start_y; height += dest_start_y;
//If the image is no longer visible nothing to draw //If the image is no longer visible nothing to draw
if (height <= 0){ if (height <= 0){
return; return;
} }
//The source image will start a further up the image //The source image will start a further up the image
source_start_y -= dest_start_y; source_start_y -= dest_start_y;
//The destination start is now reset to 0 //The destination start is now reset to 0
dest_start_y = 0; dest_start_y = 0;
} }
else{ else{
if (g1_source->flags & G1_FLAG_RLE_COMPRESSION && zoom_level){ if (g1_source->flags & G1_FLAG_RLE_COMPRESSION && zoom_level){
source_start_y -= dest_start_y & ~zoom_mask; source_start_y -= dest_start_y & ~zoom_mask;
height += dest_start_y & ~zoom_mask; height += dest_start_y & ~zoom_mask;
} }
} }
sint32 dest_end_y = dest_start_y + height; sint32 dest_end_y = dest_start_y + height;
if (dest_end_y > dpi->height){ if (dest_end_y > dpi->height){
//If the destination y is outside of the drawing //If the destination y is outside of the drawing
//image reduce the height of the image //image reduce the height of the image
height -= dest_end_y - dpi->height; height -= dest_end_y - dpi->height;
} }
//If the image no longer has anything to draw //If the image no longer has anything to draw
if (height <= 0)return; if (height <= 0)return;
dest_start_y >>= zoom_level; dest_start_y >>= zoom_level;
//This will be the width of the drawn image //This will be the width of the drawn image
sint32 width = g1_source->width; sint32 width = g1_source->width;
//This is the source start x coordinate //This is the source start x coordinate
sint32 source_start_x = 0; sint32 source_start_x = 0;
//This is the destination start x coordinate //This is the destination start x coordinate
sint16 dest_start_x = ((x + g1_source->x_offset + ~zoom_mask)&zoom_mask) - dpi->x; sint16 dest_start_x = ((x + g1_source->x_offset + ~zoom_mask)&zoom_mask) - dpi->x;
if (dest_start_x < 0){ if (dest_start_x < 0){
//If the destination is negative reduce the width //If the destination is negative reduce the width
//image will cut off the side //image will cut off the side
width += dest_start_x; width += dest_start_x;
//If there is no image to draw //If there is no image to draw
if (width <= 0){ if (width <= 0){
return; return;
} }
//The source start will also need to cut off the side //The source start will also need to cut off the side
source_start_x -= dest_start_x; source_start_x -= dest_start_x;
//Reset the destination to 0 //Reset the destination to 0
dest_start_x = 0; dest_start_x = 0;
} }
else{ else{
if (g1_source->flags & G1_FLAG_RLE_COMPRESSION && zoom_level){ if (g1_source->flags & G1_FLAG_RLE_COMPRESSION && zoom_level){
source_start_x -= dest_start_x & ~zoom_mask; source_start_x -= dest_start_x & ~zoom_mask;
} }
} }
sint32 dest_end_x = dest_start_x + width; sint32 dest_end_x = dest_start_x + width;
if (dest_end_x > dpi->width){ if (dest_end_x > dpi->width){
//If the destination x is outside of the drawing area //If the destination x is outside of the drawing area
//reduce the image width. //reduce the image width.
width -= dest_end_x - dpi->width; width -= dest_end_x - dpi->width;
//If there is no image to draw. //If there is no image to draw.
if (width <= 0)return; if (width <= 0)return;
} }
dest_start_x >>= zoom_level; dest_start_x >>= zoom_level;
uint8* dest_pointer = (uint8*)dpi->bits; uint8* dest_pointer = (uint8*)dpi->bits;
//Move the pointer to the start point of the destination //Move the pointer to the start point of the destination
dest_pointer += ((dpi->width >> zoom_level) + dpi->pitch) * dest_start_y + dest_start_x; dest_pointer += ((dpi->width >> zoom_level) + dpi->pitch) * dest_start_y + dest_start_x;
if (g1_source->flags & G1_FLAG_RLE_COMPRESSION){ if (g1_source->flags & G1_FLAG_RLE_COMPRESSION){
//We have to use a different method to move the source pointer for //We have to use a different method to move the source pointer for
//rle encoded sprites so that will be handled within this function //rle encoded sprites so that will be handled within this function
gfx_rle_sprite_to_buffer(g1_source->offset, dest_pointer, palette_pointer, dpi, image_type, source_start_y, height, source_start_x, width); gfx_rle_sprite_to_buffer(g1_source->offset, dest_pointer, palette_pointer, dpi, image_type, source_start_y, height, source_start_x, width);
return; return;
} }
uint8* source_pointer = g1_source->offset; uint8* source_pointer = g1_source->offset;
//Move the pointer to the start point of the source //Move the pointer to the start point of the source
source_pointer += g1_source->width*source_start_y + source_start_x; source_pointer += g1_source->width*source_start_y + source_start_x;
if (!(g1_source->flags & G1_FLAG_1)) { if (!(g1_source->flags & G1_FLAG_1)) {
gfx_bmp_sprite_to_buffer(palette_pointer, unknown_pointer, source_pointer, dest_pointer, g1_source, dpi, height, width, image_type); gfx_bmp_sprite_to_buffer(palette_pointer, unknown_pointer, source_pointer, dest_pointer, g1_source, dpi, height, width, image_type);
} }
return; return;
} }
/** /**
@ -560,68 +560,68 @@ void FASTCALL gfx_draw_sprite_palette_set_software(rct_drawpixelinfo *dpi, sint3
*/ */
void FASTCALL gfx_draw_sprite_raw_masked_software(rct_drawpixelinfo *dpi, sint32 x, sint32 y, sint32 maskImage, sint32 colourImage) void FASTCALL gfx_draw_sprite_raw_masked_software(rct_drawpixelinfo *dpi, sint32 x, sint32 y, sint32 maskImage, sint32 colourImage)
{ {
sint32 left, top, right, bottom, width, height; sint32 left, top, right, bottom, width, height;
rct_g1_element *imgMask = &g1Elements[maskImage & 0x7FFFF]; rct_g1_element *imgMask = &g1Elements[maskImage & 0x7FFFF];
rct_g1_element *imgColour = &g1Elements[colourImage & 0x7FFFF]; rct_g1_element *imgColour = &g1Elements[colourImage & 0x7FFFF];
assert(imgMask->flags & G1_FLAG_BMP); assert(imgMask->flags & G1_FLAG_BMP);
assert(imgColour->flags & G1_FLAG_BMP); assert(imgColour->flags & G1_FLAG_BMP);
if (dpi->zoom_level != 0) { if (dpi->zoom_level != 0) {
// TODO implement other zoom levels (probably not used though) // TODO implement other zoom levels (probably not used though)
assert(false); assert(false);
return; return;
} }
width = min(imgMask->width, imgColour->width); width = min(imgMask->width, imgColour->width);
height = min(imgMask->height, imgColour->height); height = min(imgMask->height, imgColour->height);
x += imgMask->x_offset; x += imgMask->x_offset;
y += imgMask->y_offset; y += imgMask->y_offset;
left = max(dpi->x, x); left = max(dpi->x, x);
top = max(dpi->y, y); top = max(dpi->y, y);
right = min(dpi->x + dpi->width, x + width); right = min(dpi->x + dpi->width, x + width);
bottom = min(dpi->y + dpi->height, y + height); bottom = min(dpi->y + dpi->height, y + height);
width = right - left; width = right - left;
height = bottom - top; height = bottom - top;
if (width < 0 || height < 0) if (width < 0 || height < 0)
return; return;
sint32 skipX = left - x; sint32 skipX = left - x;
sint32 skipY = top - y; sint32 skipY = top - y;
uint8 *maskSrc = imgMask->offset + (skipY * imgMask->width) + skipX; uint8 *maskSrc = imgMask->offset + (skipY * imgMask->width) + skipX;
uint8 *colourSrc = imgColour->offset + (skipY * imgColour->width) + skipX; uint8 *colourSrc = imgColour->offset + (skipY * imgColour->width) + skipX;
uint8 *dst = dpi->bits + (left - dpi->x) + ((top - dpi->y) * (dpi->width + dpi->pitch)); uint8 *dst = dpi->bits + (left - dpi->x) + ((top - dpi->y) * (dpi->width + dpi->pitch));
sint32 maskWrap = imgMask->width - width; sint32 maskWrap = imgMask->width - width;
sint32 colourWrap = imgColour->width - width; sint32 colourWrap = imgColour->width - width;
sint32 dstWrap = ((dpi->width + dpi->pitch) - width); sint32 dstWrap = ((dpi->width + dpi->pitch) - width);
for (sint32 yy = top; yy < bottom; yy++) { for (sint32 yy = top; yy < bottom; yy++) {
for (sint32 xx = left; xx < right; xx++) { for (sint32 xx = left; xx < right; xx++) {
uint8 colour = (*colourSrc) & (*maskSrc); uint8 colour = (*colourSrc) & (*maskSrc);
if (colour != 0) { if (colour != 0) {
*dst = colour; *dst = colour;
} }
maskSrc++; maskSrc++;
colourSrc++; colourSrc++;
dst++; dst++;
} }
maskSrc += maskWrap; maskSrc += maskWrap;
colourSrc += colourWrap; colourSrc += colourWrap;
dst += dstWrap; dst += dstWrap;
} }
} }
rct_g1_element *gfx_get_g1_element(sint32 image_id) { rct_g1_element *gfx_get_g1_element(sint32 image_id) {
if (image_id < SPR_G2_BEGIN) { if (image_id < SPR_G2_BEGIN) {
return &g1Elements[image_id]; return &g1Elements[image_id];
} }
if (image_id < SPR_CSG_BEGIN) { if (image_id < SPR_CSG_BEGIN) {
return &g2.elements[image_id - SPR_G2_BEGIN]; return &g2.elements[image_id - SPR_G2_BEGIN];
} }
return &csg.elements[image_id - SPR_CSG_BEGIN]; return &csg.elements[image_id - SPR_CSG_BEGIN];
} }