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tibia-rme/source/graphics.cpp
Nailson 39e8635450 A single method to load metadata flags. 
This works like in the OTClient.
2015-02-06 10:30:02 -03:00

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//////////////////////////////////////////////////////////////////////
// This file is part of Remere's Map Editor
//////////////////////////////////////////////////////////////////////
// This program 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 of the License, or
// (at your option) any later version.
//
// This program 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 this program. If not, see <http://www.gnu.org/licenses/>.
//////////////////////////////////////////////////////////////////////
// $URL: http://svn.rebarp.se/svn/RME/trunk/source/graphics.hpp $
// $Id: graphics.hpp 310 2010-02-26 18:03:48Z admin $
#include "main.h"
#include "sprites.h"
#include "graphics.h"
#include "filehandle.h"
#include "settings.h"
#include "gui.h"
#include <wx/mstream.h>
#include "pngfiles.h"
// All 133 template colors
static uint32_t TemplateOutfitLookupTable[] = {
0xFFFFFF, 0xFFD4BF, 0xFFE9BF, 0xFFFFBF, 0xE9FFBF, 0xD4FFBF,
0xBFFFBF, 0xBFFFD4, 0xBFFFE9, 0xBFFFFF, 0xBFE9FF, 0xBFD4FF,
0xBFBFFF, 0xD4BFFF, 0xE9BFFF, 0xFFBFFF, 0xFFBFE9, 0xFFBFD4,
0xFFBFBF, 0xDADADA, 0xBF9F8F, 0xBFAF8F, 0xBFBF8F, 0xAFBF8F,
0x9FBF8F, 0x8FBF8F, 0x8FBF9F, 0x8FBFAF, 0x8FBFBF, 0x8FAFBF,
0x8F9FBF, 0x8F8FBF, 0x9F8FBF, 0xAF8FBF, 0xBF8FBF, 0xBF8FAF,
0xBF8F9F, 0xBF8F8F, 0xB6B6B6, 0xBF7F5F, 0xBFAF8F, 0xBFBF5F,
0x9FBF5F, 0x7FBF5F, 0x5FBF5F, 0x5FBF7F, 0x5FBF9F, 0x5FBFBF,
0x5F9FBF, 0x5F7FBF, 0x5F5FBF, 0x7F5FBF, 0x9F5FBF, 0xBF5FBF,
0xBF5F9F, 0xBF5F7F, 0xBF5F5F, 0x919191, 0xBF6A3F, 0xBF943F,
0xBFBF3F, 0x94BF3F, 0x6ABF3F, 0x3FBF3F, 0x3FBF6A, 0x3FBF94,
0x3FBFBF, 0x3F94BF, 0x3F6ABF, 0x3F3FBF, 0x6A3FBF, 0x943FBF,
0xBF3FBF, 0xBF3F94, 0xBF3F6A, 0xBF3F3F, 0x6D6D6D, 0xFF5500,
0xFFAA00, 0xFFFF00, 0xAAFF00, 0x54FF00, 0x00FF00, 0x00FF54,
0x00FFAA, 0x00FFFF, 0x00A9FF, 0x0055FF, 0x0000FF, 0x5500FF,
0xA900FF, 0xFE00FF, 0xFF00AA, 0xFF0055, 0xFF0000, 0x484848,
0xBF3F00, 0xBF7F00, 0xBFBF00, 0x7FBF00, 0x3FBF00, 0x00BF00,
0x00BF3F, 0x00BF7F, 0x00BFBF, 0x007FBF, 0x003FBF, 0x0000BF,
0x3F00BF, 0x7F00BF, 0xBF00BF, 0xBF007F, 0xBF003F, 0xBF0000,
0x242424, 0x7F2A00, 0x7F5500, 0x7F7F00, 0x557F00, 0x2A7F00,
0x007F00, 0x007F2A, 0x007F55, 0x007F7F, 0x00547F, 0x002A7F,
0x00007F, 0x2A007F, 0x54007F, 0x7F007F, 0x7F0055, 0x7F002A,
0x7F0000,
};
GraphicManager::GraphicManager() :
client_version(nullptr),
unloaded(true),
dat_format(DAT_FORMAT_UNKNOWN),
is_extended(false),
loaded_textures(0),
lastclean(0)
{
// ...
}
GraphicManager::~GraphicManager()
{
for(SpriteMap::iterator iter = sprite_space.begin();
iter != sprite_space.end();
++iter)
{
delete iter->second;
}
for(ImageMap::iterator iter = image_space.begin();
iter != image_space.end();
++iter)
{
delete iter->second;
}
}
bool GraphicManager::isUnloaded() const
{
return unloaded;
}
GLuint GraphicManager::getFreeTextureID()
{
static GLuint id_counter = 0x10000000;
return id_counter++; // This should (hopefully) never run out
}
void GraphicManager::clear()
{
SpriteMap new_sprite_space;
for(SpriteMap::iterator iter = sprite_space.begin();
iter != sprite_space.end();
++iter)
{
if(iter->first >= 0) { // Don't clean internal sprites
delete iter->second;
} else {
new_sprite_space.insert(std::make_pair(iter->first, iter->second));
}
}
for(ImageMap::iterator iter = image_space.begin();
iter != image_space.end();
++iter)
{
delete iter->second;
}
sprite_space.swap(new_sprite_space);
image_space.clear();
cleanup_list.clear();
item_count = 0;
creature_count = 0;
loaded_textures = 0;
lastclean = time(nullptr);
spritefile = "";
unloaded = true;
}
void GraphicManager::cleanSoftwareSprites()
{
for(SpriteMap::iterator iter = sprite_space.begin();
iter != sprite_space.end();
++iter)
{
if(iter->first >= 0) { // Don't clean internal sprites
iter->second->unloadDC();
}
}
}
Sprite* GraphicManager::getSprite(int id)
{
SpriteMap::iterator it = sprite_space.find(id);
if(it != sprite_space.end())
{
return it->second;
}
return nullptr;
}
GameSprite* GraphicManager::getCreatureSprite(int id)
{
if(id < 0)
{
return nullptr;
}
SpriteMap::iterator it = sprite_space.find(id+item_count);
if(it != sprite_space.end())
{
return static_cast<GameSprite*>(it->second);
}
return nullptr;
}
uint16_t GraphicManager::getItemSpriteMaxID() const
{
return item_count;
}
uint16_t GraphicManager::getCreatureSpriteMaxID() const
{
return creature_count;
}
#define loadPNGFile(name) _wxGetBitmapFromMemory(name, sizeof(name))
inline wxBitmap* _wxGetBitmapFromMemory(const unsigned char* data, int length)
{
wxMemoryInputStream is(data, length);
wxImage img(is, wxT("image/png"));
if(!img.IsOk()) return nullptr;
return newd wxBitmap(img, -1);
}
bool GraphicManager::loadEditorSprites()
{
// Unused graphics MIGHT be loaded here, but it's a neglectable loss
sprite_space[EDITOR_SPRITE_SELECTION_MARKER] =
newd EditorSprite(
newd wxBitmap(selection_marker_xpm16x16),
newd wxBitmap(selection_marker_xpm32x32)
);
sprite_space[EDITOR_SPRITE_BRUSH_CD_1x1] =
newd EditorSprite(
loadPNGFile(circular_1_small_png),
loadPNGFile(circular_1_png)
);
sprite_space[EDITOR_SPRITE_BRUSH_CD_3x3] =
newd EditorSprite(
loadPNGFile(circular_2_small_png),
loadPNGFile(circular_2_png)
);
sprite_space[EDITOR_SPRITE_BRUSH_CD_5x5] =
newd EditorSprite(
loadPNGFile(circular_3_small_png),
loadPNGFile(circular_3_png)
);
sprite_space[EDITOR_SPRITE_BRUSH_CD_7x7] =
newd EditorSprite(
loadPNGFile(circular_4_small_png),
loadPNGFile(circular_4_png)
);
sprite_space[EDITOR_SPRITE_BRUSH_CD_9x9] =
newd EditorSprite(
loadPNGFile(circular_5_small_png),
loadPNGFile(circular_5_png)
);
sprite_space[EDITOR_SPRITE_BRUSH_CD_15x15] =
newd EditorSprite(
loadPNGFile(circular_6_small_png),
loadPNGFile(circular_6_png)
);
sprite_space[EDITOR_SPRITE_BRUSH_CD_19x19] =
newd EditorSprite(
loadPNGFile(circular_7_small_png),
loadPNGFile(circular_7_png)
);
sprite_space[EDITOR_SPRITE_BRUSH_SD_1x1] =
newd EditorSprite(
loadPNGFile(rectangular_1_small_png),
loadPNGFile(rectangular_1_png)
);
sprite_space[EDITOR_SPRITE_BRUSH_SD_3x3] =
newd EditorSprite(
loadPNGFile(rectangular_2_small_png),
loadPNGFile(rectangular_2_png)
);
sprite_space[EDITOR_SPRITE_BRUSH_SD_5x5] =
newd EditorSprite(
loadPNGFile(rectangular_3_small_png),
loadPNGFile(rectangular_3_png)
);
sprite_space[EDITOR_SPRITE_BRUSH_SD_7x7] =
newd EditorSprite(
loadPNGFile(rectangular_4_small_png),
loadPNGFile(rectangular_4_png)
);
sprite_space[EDITOR_SPRITE_BRUSH_SD_9x9] =
newd EditorSprite(
loadPNGFile(rectangular_5_small_png),
loadPNGFile(rectangular_5_png)
);
sprite_space[EDITOR_SPRITE_BRUSH_SD_15x15] =
newd EditorSprite(
loadPNGFile(rectangular_6_small_png),
loadPNGFile(rectangular_6_png)
);
sprite_space[EDITOR_SPRITE_BRUSH_SD_19x19] =
newd EditorSprite(
loadPNGFile(rectangular_7_small_png),
loadPNGFile(rectangular_7_png)
);
sprite_space[EDITOR_SPRITE_OPTIONAL_BORDER_TOOL] =
newd EditorSprite(
loadPNGFile(optional_border_small_png),
loadPNGFile(optional_border_png)
);
sprite_space[EDITOR_SPRITE_ERASER] =
newd EditorSprite(
loadPNGFile(eraser_small_png),
loadPNGFile(eraser_png)
);
sprite_space[EDITOR_SPRITE_PZ_TOOL] =
newd EditorSprite(
loadPNGFile(protection_zone_small_png),
loadPNGFile(protection_zone_png)
);
sprite_space[EDITOR_SPRITE_PVPZ_TOOL] =
newd EditorSprite(
loadPNGFile(pvp_zone_small_png),
loadPNGFile(pvp_zone_png)
);
sprite_space[EDITOR_SPRITE_NOLOG_TOOL] =
newd EditorSprite(
loadPNGFile(no_logout_small_png),
loadPNGFile(no_logout_png)
);
sprite_space[EDITOR_SPRITE_NOPVP_TOOL] =
newd EditorSprite(
loadPNGFile(no_pvp_small_png),
loadPNGFile(no_pvp_png)
);
sprite_space[EDITOR_SPRITE_DOOR_NORMAL] =
newd EditorSprite(
loadPNGFile(door_normal_small_png),
loadPNGFile(door_normal_png)
);
sprite_space[EDITOR_SPRITE_DOOR_LOCKED] =
newd EditorSprite(
loadPNGFile(door_locked_small_png),
loadPNGFile(door_locked_png)
);
sprite_space[EDITOR_SPRITE_DOOR_MAGIC] =
newd EditorSprite(
loadPNGFile(door_magic_small_png),
loadPNGFile(door_magic_png)
);
sprite_space[EDITOR_SPRITE_DOOR_QUEST] =
newd EditorSprite(
loadPNGFile(door_quest_small_png),
loadPNGFile(door_quest_png)
);
sprite_space[EDITOR_SPRITE_WINDOW_NORMAL] =
newd EditorSprite(
loadPNGFile(window_normal_small_png),
loadPNGFile(window_normal_png)
);
sprite_space[EDITOR_SPRITE_WINDOW_HATCH] =
newd EditorSprite(
loadPNGFile(window_hatch_small_png),
loadPNGFile(window_hatch_png)
);
sprite_space[EDITOR_SPRITE_SELECTION_GEM] =
newd EditorSprite(
loadPNGFile(gem_edit_png),
nullptr
);
sprite_space[EDITOR_SPRITE_DRAWING_GEM] =
newd EditorSprite(
loadPNGFile(gem_move_png),
nullptr
);
return true;
}
bool GraphicManager::loadSpriteMetadata(const FileName& datafile, wxString& error, wxArrayString& warnings)
{
// items.otb has most of the info we need. This only loads the GameSprite metadata
FileReadHandle file(nstr(datafile.GetFullPath()));
if(file.isOk() == false) {
error += wxT("Failed to open ") + datafile.GetFullPath() + wxT(" for reading\nThe error reported was:") + wxstr(file.getErrorMessage());
return false;
}
uint16_t effect_count, distance_count;
uint32_t datSignature;
file.getU32(datSignature);
//get max id
file.getU16(item_count);
file.getU16(creature_count);
file.getU16(effect_count);
file.getU16(distance_count);
uint32_t minclientID = 100; // tibia.dat start with id 100
// We don't load distance/effects, if we would, just add effect_count & distance_count here
uint32_t maxclientID = item_count + creature_count;
dat_format = client_version->getDatFormatForSignature(datSignature);
is_extended = (dat_format >= DAT_FORMAT_96 || settings.getInteger(Config::SPR_EXTENDED));
uint16_t id = minclientID;
// loop through all ItemDatabase until we reach the end of file
while(id <= maxclientID)
{
GameSprite* sType = newd GameSprite();
sprite_space[id] = sType;
sType->id = id;
// Load the sprite flags
if (!loadSpriteMetadataFlags(file, sType, error, warnings))
{
wxString msg;
msg << wxT("Failed to load flags for sprite ") << sType->id;
warnings.push_back(msg);
}
bool has_frame_groups = (dat_format == DAT_FORMAT_1056 && id > item_count);
uint8_t group_count = 1;
// Reads the group count
if (has_frame_groups) {
file.getU8(group_count);
}
for (uint32_t k = 0; k < group_count; ++k)
{
// Skipping the group type
if (has_frame_groups) {
file.skip(1);
}
// Size and GameSprite data
file.getByte(sType->width);
file.getByte(sType->height);
// Skipping the exact size
if ((sType->width > 1) || (sType->height > 1)){
file.skip(1);
}
file.getU8(sType->layers); // Number of blendframes (some sprites consist of several merged sprites)
file.getU8(sType->pattern_x);
file.getU8(sType->pattern_y);
if (dat_format <= DAT_FORMAT_74)
sType->pattern_z = 1;
else
file.getU8(sType->pattern_z);
file.getU8(sType->frames); // Length of animation
// Skipping the frame duration
if (dat_format >= DAT_FORMAT_1050 && sType->frames > 1) {
file.skip(6 + 8 * sType->frames);
}
sType->numsprites =
(int)sType->width * (int)sType->height *
(int)sType->layers *
(int)sType->pattern_x * (int)sType->pattern_y * sType->pattern_z *
(int)sType->frames;
// Read the sprite ids
for (uint32_t i = 0; i < sType->numsprites; ++i)
{
uint32_t sprite_id;
if (is_extended) {
file.getU32(sprite_id);
} else {
uint16_t u16 = 0;
file.getU16(u16);
sprite_id = u16;
}
if (image_space[sprite_id] == nullptr)
{
GameSprite::NormalImage* img = newd GameSprite::NormalImage();
img->id = sprite_id;
image_space[sprite_id] = img;
}
sType->spriteList.push_back(static_cast<GameSprite::NormalImage*>(image_space[sprite_id]));
}
}
++id;
}
return true;
}
bool GraphicManager::loadSpriteMetadataFlags(FileReadHandle& file, GameSprite* sType, wxString& error, wxArrayString& warnings)
{
uint8_t prev_flag = 0;
uint8_t flag = DatFlagLast;
for (int i = 0; i < DatFlagLast; ++i)
{
prev_flag = flag;
file.getU8(flag);
if (flag == DatFlagLast) {
return true;
}
if (dat_format >= DAT_FORMAT_1010) {
/* In 10.10+ all attributes from 16 and up were
* incremented by 1 to make space for 16 as
* "No Movement Animation" flag.
*/
if (flag == 16)
flag = DatFlagNoMoveAnimation;
else if (flag > 16)
flag -= 1;
} else if (dat_format >= DAT_FORMAT_86) {
/* Default attribute values follow
* the format of 8.6-9.86.
* Therefore no changes here.
*/
} else if (dat_format >= DAT_FORMAT_78) {
/* In 7.80-8.54 all attributes from 8 and higher were
* incremented by 1 to make space for 8 as
* "Item Charges" flag.
*/
if (flag == 8) {
flag = DatFlagChargeable;
} else if (flag > 8)
flag -= 1;
} else if (dat_format >= DAT_FORMAT_755) {
/* In 7.55-7.72 attributes 23 is "Floor Change". */
if (flag == 23)
flag = DatFlagFloorChange;
} else if (dat_format >= DAT_FORMAT_74) {
/* In 7.4-7.5 attribute "Ground Border" did not exist
* attributes 1-15 have to be adjusted.
* Several other changes in the format.
*/
if (flag > 0 && flag <= 15)
flag += 1;
else if (flag == 16)
flag = DatFlagLight;
else if (flag == 17)
flag = DatFlagFloorChange;
else if (flag == 18)
flag = DatFlagFullGround;
else if (flag == 19)
flag = DatFlagElevation;
else if (flag == 20)
flag = DatFlagDisplacement;
else if (flag == 22)
flag = DatFlagMinimapColor;
else if (flag == 23)
flag = DatFlagRotateable;
else if (flag == 24)
flag = DatFlagLyingCorpse;
else if (flag == 25)
flag = DatFlagHangable;
else if (flag == 26)
flag = DatFlagHookSouth;
else if (flag == 27)
flag = DatFlagHookEast;
else if (flag == 28)
flag = DatFlagAnimateAlways;
/* "Multi Use" and "Force Use" are swapped */
if (flag == DatFlagMultiUse)
flag = DatFlagForceUse;
else if (flag == DatFlagForceUse)
flag = DatFlagMultiUse;
}
switch (flag)
{
case DatFlagGroundBorder:
case DatFlagOnBottom:
case DatFlagOnTop:
case DatFlagContainer:
case DatFlagStackable:
case DatFlagForceUse:
case DatFlagMultiUse:
case DatFlagFluidContainer:
case DatFlagSplash:
case DatFlagNotWalkable:
case DatFlagNotMoveable:
case DatFlagBlockProjectile:
case DatFlagNotPathable:
case DatFlagPickupable:
case DatFlagHangable:
case DatFlagHookSouth:
case DatFlagHookEast:
case DatFlagRotateable:
case DatFlagDontHide:
case DatFlagTranslucent:
case DatFlagLyingCorpse:
case DatFlagAnimateAlways:
case DatFlagFullGround:
case DatFlagLook:
case DatFlagFloorChange:
case DatFlagNoMoveAnimation:
case DatFlagChargeable:
break;
case DatFlagGround:
case DatFlagWritable:
case DatFlagWritableOnce:
case DatFlagCloth:
case DatFlagLensHelp:
case DatFlagUsable:
file.skip(2);
break;
case DatFlagLight:
file.skip(4);
break;
case DatFlagDisplacement:
{
if (dat_format >= DAT_FORMAT_755) {
uint16_t offset_x;
uint16_t offset_y;
file.getU16(offset_x);
file.getU16(offset_y);
sType->drawoffset_x = offset_x;
sType->drawoffset_y = offset_y;
} else {
sType->drawoffset_x = 8;
sType->drawoffset_y = 8;
}
break;
}
case DatFlagElevation:
{
uint16_t draw_height;
file.getU16(draw_height);
sType->draw_height = draw_height;
break;
}
case DatFlagMinimapColor:
{
uint16_t minimap_color;
file.getU16(minimap_color);
sType->minimap_color = minimap_color;
break;
}
case DatFlagMarket:
{
file.skip(6);
std::string marketName;
file.getString(marketName);
file.skip(4);
break;
}
default:
{
wxString err;
err << wxT("Metadata: Unknown flag: ") << i2ws(flag) << wxT(". Previous flag: ") << i2ws(prev_flag) << wxT(".");
warnings.push_back(err);
break;
}
}
}
return true;
}
bool GraphicManager::loadSpriteData(const FileName& datafile, wxString& error, wxArrayString& warnings)
{
FileReadHandle fh(nstr(datafile.GetFullPath()));
if(fh.isOk() == false) {
error = wxT("Failed to open file for reading");
return false;
}
#define safe_get(func, ...) do {\
if(!fh.get##func(__VA_ARGS__)) {\
error = wxstr(fh.getErrorMessage()); \
return false; \
} \
} while(false)
uint32_t sprSignature;
safe_get(U32, sprSignature);
uint32_t total_pics = 0;
if (is_extended) {
safe_get(U32, total_pics);
} else {
uint16_t u16 = 0;
safe_get(U16, u16);
total_pics = u16;
}
if(settings.getInteger(Config::USE_MEMCACHED_SPRITES) == false) {
spritefile = nstr(datafile.GetFullPath());
unloaded = false;
return true;
}
std::vector<uint32_t> sprite_indexes;
for(uint32_t i = 0; i < total_pics; ++i) {
uint32_t index;
safe_get(U32, index);
sprite_indexes.push_back(index);
}
// Now read individual sprites
int id = 1;
for(std::vector<uint32_t>::iterator sprite_iter = sprite_indexes.begin();
sprite_iter != sprite_indexes.end();
++sprite_iter, ++id)
{
uint32_t index = *sprite_iter + 3;
fh.seek(index);
uint16_t size;
safe_get(U16, size);
ImageMap::iterator it = image_space.find(id);
if(it != image_space.end()) {
GameSprite::NormalImage* spr = dynamic_cast<GameSprite::NormalImage*>(it->second);
if(spr && size > 0) {
if(spr->size > 0) {
wxString ss;
ss << wxT("items.spr: Duplicate GameSprite id ") << id;
warnings.push_back(ss);
fh.seekRelative(size);
} else {
spr->id = id;
spr->size = size;
spr->dump = newd uint8_t[size];
if(!fh.getRAW(spr->dump, size)) {
error = wxstr(fh.getErrorMessage()); \
return false;
}
}
}
} else {
fh.seekRelative(size);
}
}
#undef safe_get
unloaded = false;
return true;
}
bool GraphicManager::loadSpriteDump(uint8_t*& target, uint16_t& size, int sprite_id)
{
if(settings.getInteger(Config::USE_MEMCACHED_SPRITES))
return false;
if(sprite_id == 0)
{
// Empty GameSprite
size = 0;
target = nullptr;
return true;
}
FileReadHandle fh(spritefile);
if(fh.isOk() == false)
return false;
unloaded = false;
if (!fh.seek((is_extended ? 4 : 2) + sprite_id * sizeof(uint32_t)))
return false;
uint32_t to_seek = 0;
if(fh.getU32(to_seek))
{
fh.seek(to_seek+3);
uint16_t sprite_size;
if(fh.getU16(sprite_size))
{
target = newd uint8_t[sprite_size];
if(fh.getRAW(target, sprite_size))
{
size = sprite_size;
return true;
}
delete[] target;
target = nullptr;
}
}
return false;
}
void GraphicManager::addSpriteToCleanup(GameSprite* spr)
{
cleanup_list.push_back(spr);
// Clean if needed
if (cleanup_list.size() > std::max<uint32_t>(100, settings.getInteger(Config::SOFTWARE_CLEAN_THRESHOLD))) {
for (int i = 0; i < settings.getInteger(Config::SOFTWARE_CLEAN_SIZE) && static_cast<uint32_t>(i) < cleanup_list.size(); ++i) {
cleanup_list.front()->unloadDC();
cleanup_list.pop_front();
}
}
}
void GraphicManager::garbageCollection()
{
if(settings.getInteger(Config::TEXTURE_MANAGEMENT))
{
int t = time(nullptr);
if(loaded_textures > settings.getInteger(Config::TEXTURE_CLEAN_THRESHOLD) &&
t - lastclean > settings.getInteger(Config::TEXTURE_CLEAN_PULSE))
{
ImageMap::iterator iit = image_space.begin();
while(iit != image_space.end())
{
iit->second->clean(t);
++iit;
}
SpriteMap::iterator sit = sprite_space.begin();
while(sit != sprite_space.end())
{
GameSprite* gs = dynamic_cast<GameSprite*>(sit->second);
if(gs) gs->clean(t);
++sit;
}
lastclean = t;
}
}
}
EditorSprite::EditorSprite(wxBitmap* b16x16, wxBitmap* b32x32)
{
bm[SPRITE_SIZE_16x16] = b16x16;
bm[SPRITE_SIZE_32x32] = b32x32;
}
EditorSprite::~EditorSprite()
{
unloadDC();
}
void EditorSprite::DrawTo(wxDC* dc, SpriteSize sz, int start_x, int start_y, int width, int height)
{
wxBitmap* sp = bm[sz];
if(sp)
dc->DrawBitmap(*sp, start_x, start_y, true);
}
void EditorSprite::unloadDC()
{
delete bm[SPRITE_SIZE_16x16];
delete bm[SPRITE_SIZE_32x32];
bm[SPRITE_SIZE_16x16] = nullptr;
bm[SPRITE_SIZE_32x32] = nullptr;
}
GameSprite::GameSprite() :
id(0),
height(0),
width(0),
layers(0),
pattern_x(0),
pattern_y(0),
pattern_z(0),
frames(0),
numsprites(0),
draw_height(0),
drawoffset_x(0),
drawoffset_y(0),
minimap_color(0)
{
dc[SPRITE_SIZE_16x16] = nullptr;
dc[SPRITE_SIZE_32x32] = nullptr;
}
GameSprite::~GameSprite() {
unloadDC();
for(std::list<TemplateImage*>::iterator iter = instanced_templates.begin();
iter != instanced_templates.end();
++iter)
{
delete *iter;
}
}
void GameSprite::clean(int time) {
for(std::list<TemplateImage*>::iterator iter = instanced_templates.begin();
iter != instanced_templates.end();
++iter)
{
(*iter)->clean(time);
}
}
void GameSprite::unloadDC() {
delete dc[SPRITE_SIZE_16x16];
delete dc[SPRITE_SIZE_32x32];
dc[SPRITE_SIZE_16x16] = nullptr;
dc[SPRITE_SIZE_32x32] = nullptr;
}
int GameSprite::getDrawHeight() const {
return draw_height;
}
std::pair<int, int> GameSprite::getDrawOffset() const {
return std::make_pair(drawoffset_x, drawoffset_y);
}
uint8_t GameSprite::getMiniMapColor() const {
return minimap_color;
}
GLuint GameSprite::getHardwareID(int _x, int _y, int _layer, int _count, int _pattern_x, int _pattern_y, int _pattern_z, int _frame) {
uint32_t v;
if(_count >= 0 && height <= 1 && width <= 1) {
v = _count;
} else {
v = ((((((_frame)*pattern_y+_pattern_y)*pattern_x+_pattern_x)*layers+_layer)*height+_y)*width+_x);
}
if(v >= numsprites) {
if(numsprites == 1) {
v = 0;
} else {
v %= numsprites;
}
}
return spriteList[v]->getHardwareID();
}
GameSprite::TemplateImage* GameSprite::getTemplateImage(int sprite_index, const Outfit& outfit) {
if(instanced_templates.empty()) {
TemplateImage* img = newd TemplateImage(this, sprite_index, outfit);
instanced_templates.push_back(img);
return img;
}
// While this is linear lookup, it is very rare for the list to contain more than 4-8 entries, so it's faster than a hashmap anyways.
for(std::list<TemplateImage*>::iterator iter = instanced_templates.begin();
iter != instanced_templates.end();
++iter)
{
TemplateImage* img = *iter;
if(img->sprite_index == sprite_index) {
uint32_t lookHash = img->lookHead << 24 | img->lookBody << 16 | img->lookLegs << 8 | img->lookFeet;
if(outfit.getColorHash() == lookHash) {
return img;
}
}
}
TemplateImage* img = newd TemplateImage(this, sprite_index, outfit);
instanced_templates.push_back(img);
return img;
}
GLuint GameSprite::getHardwareID(int _x, int _y, int _dir, const Outfit& _outfit, int _frame) {
uint32_t v;
v = ((((_dir) * layers) * height+_y) * width+_x);
if(v >= numsprites) {
if(numsprites == 1) {
v = 0;
} else {
v %= numsprites;
}
}
if(layers > 1) { // Template
TemplateImage* img = getTemplateImage(v, _outfit);
return img->getHardwareID();
}
return spriteList[v]->getHardwareID();
}
wxMemoryDC* GameSprite::getDC(SpriteSize sz) {
if(!dc[sz]) {
const int bgshade = settings.getInteger(Config::ICON_BACKGROUND);
uint8_t* rgb = nullptr;
uint32_t ht, wt;
if(width == 2 && height == 2) {
wt = 2, ht = 2;
rgb = newd uint8_t[2*2*32*32*3];
memset(rgb, bgshade, 2*2*32*32*3);
for(int cf = 0; cf != layers; ++cf) {
uint8_t* rgb32x32[2][2] = {
{spriteList[(cf*2+1)*2+1]->getRGBData(),spriteList[(cf*2+1)*2]->getRGBData()},
{spriteList[cf*4+1]->getRGBData(),spriteList[cf*4]->getRGBData()}
};
for(int cy = 0; cy < 64; ++cy) {
for(int cx = 0; cx < 64; ++cx) {
int cw = cx/32;
int ch = cy/32;
if(!rgb32x32[ch][cw]) continue;
int rx = cx%32;
int ry = cy%32;
uint8_t r = rgb32x32[ch][cw][32*3*ry + 3*rx + 0];
uint8_t g = rgb32x32[ch][cw][32*3*ry + 3*rx + 1];
uint8_t b = rgb32x32[ch][cw][32*3*ry + 3*rx + 2];
if(r == 0xFF && g == 0x00 && b == 0xFF) {
// Transparent.. let it pass
} else {
rgb[64*3*cy + 3*cx + 0] = r;
rgb[64*3*cy + 3*cx + 1] = g;
rgb[64*3*cy + 3*cx + 2] = b;
}
}
}
delete[] rgb32x32[0][0];
delete[] rgb32x32[0][1];
delete[] rgb32x32[1][0];
delete[] rgb32x32[1][1];
}
// (cf*2+ch)*2+cw
} else if(width == 2 && height == 1) {
wt = 2, ht = 2;
rgb = newd uint8_t[2*2*32*32*3];
memset(rgb, bgshade, 2*2*32*32*3);
for(int cf = 0; cf != layers; ++cf) {
uint8_t* rgb32x32[2] = {
spriteList[cf*2+1]->getRGBData(),
spriteList[cf*2+0]->getRGBData()
};
for(int cy = 16; cy < 48; ++cy) {
for(int cx = 0; cx < 64; ++cx) {
int cw = cx/32;
int rx = cx%32;
int ry = cy-16;
if(!rgb32x32[cw]) continue;
uint8_t r = rgb32x32[cw][32*3*ry + 3*rx + 0];
uint8_t g = rgb32x32[cw][32*3*ry + 3*rx + 1];
uint8_t b = rgb32x32[cw][32*3*ry + 3*rx + 2];
if(r == 0xFF && g == 0x00 && b == 0xFF) {
// Transparent.. let it pass
} else {
rgb[64*3*cy + 3*cx + 0] = r;
rgb[64*3*cy + 3*cx + 1] = g;
rgb[64*3*cy + 3*cx + 2] = b;
}
}
}
delete[] rgb32x32[0];
delete[] rgb32x32[1];
}
} else if(width == 1 && height == 2) {
wt = 2, ht = 2;
rgb = newd uint8_t[2*2*32*32*3];
memset(rgb, bgshade, 2*2*32*32*3);
for(int cf = 0; cf != layers; ++cf) {
uint8_t* rgb32x32[2] = {
spriteList[cf*2+1]->getRGBData(),
spriteList[cf*2+0]->getRGBData()
};
for(int cy = 0; cy < 64; ++cy) {
for(int cx = 16; cx < 48; ++cx) {
int ch = cy/32;
int rx = cx-16;
int ry = cy%32;
if(!rgb32x32[ch]) continue;
uint8_t r = rgb32x32[ch][32*3*ry + 3*rx + 0];
uint8_t g = rgb32x32[ch][32*3*ry + 3*rx + 1];
uint8_t b = rgb32x32[ch][32*3*ry + 3*rx + 2];
if(r == 0xFF && g == 0x00 && b == 0xFF) {
// Transparent.. let it pass
} else {
rgb[64*3*cy + 3*cx + 0] = r;
rgb[64*3*cy + 3*cx + 1] = g;
rgb[64*3*cy + 3*cx + 2] = b;
}
}
}
delete[] rgb32x32[0];
delete[] rgb32x32[1];
}
} else if(width == 1 && height == 1) {
wt = 1, ht = 1;
rgb = newd uint8_t[32*32*3];
memset(rgb, bgshade, 32*32*3);
for(int cf = 0; cf != layers; ++cf) {
uint8_t* rgb32x32 = spriteList[cf]->getRGBData();
if(!rgb32x32) continue;
for(int cy = 0; cy < 32; ++cy) {
for(int cx = 0; cx < 32; ++cx) {
uint8_t r = rgb32x32[32*3*cy + 3*cx + 0];
uint8_t g = rgb32x32[32*3*cy + 3*cx + 1];
uint8_t b = rgb32x32[32*3*cy + 3*cx + 2];
if(r == 0xFF && g == 0x00 && b == 0xFF) {
// Transparent.. let it pass
} else {
rgb[32*3*cy + 3*cx + 0] = r;
rgb[32*3*cy + 3*cx + 1] = g;
rgb[32*3*cy + 3*cx + 2] = b;
}
}
}
delete[] rgb32x32;
}
} else {
return nullptr;
}
// Now comes the resizing / antialiasing
if(sz == SPRITE_SIZE_16x16) {
uint8_t* rgb16x16 = reinterpret_cast<uint8_t*>(malloc(16*16*3));
uint32_t pixels_per_line = 32*wt;
uint32_t pixels_per_pixel = 2*wt;
uint32_t bytes_per_line = 3*pixels_per_line;
uint32_t bytes_per_pixel = 3*pixels_per_pixel;
for(uint32_t y = 0; y < 16; ++y) {
for(uint32_t x = 0; x < 16; ++x) {
uint32_t r = 0, g = 0, b = 0, c = 0;
for(uint32_t u = 0; u < 2; ++u) {
for(uint32_t v = 0; v < 2; ++v) {
r += rgb[bytes_per_line * (pixels_per_pixel*y + u) + (bytes_per_pixel*x + 3*v) + 0];
g += rgb[bytes_per_line * (pixels_per_pixel*y + u) + (bytes_per_pixel*x + 3*v) + 1];
b += rgb[bytes_per_line * (pixels_per_pixel*y + u) + (bytes_per_pixel*x + 3*v) + 2];
//r += rgb[96 * (2*y + u) + (6*x + v*3) + 0];
//g += rgb[96 * (2*y + u) + (6*x + v*3) + 1];
//b += rgb[96 * (2*y + u) + (6*x + v*3) + 2];
++c;
}
}
ASSERT(c);
rgb16x16[48*y+x*3+0] = r/c;
rgb16x16[48*y+x*3+1] = g/c;
rgb16x16[48*y+x*3+2] = b/c;
}
}
wxImage img(16,16, rgb16x16);
wxBitmap bmp(img);
dc[sz] = newd wxMemoryDC(bmp);
delete[] rgb;
gui.gfx.addSpriteToCleanup(this);
} else if(sz == SPRITE_SIZE_32x32) {
uint8_t* rgb32x32 = reinterpret_cast<uint8_t*>(malloc(32*32*3));
uint32_t pixels_per_line = 32*wt;
uint32_t pixels_per_pixel = wt;
uint32_t bytes_per_line = 3*pixels_per_line;
uint32_t bytes_per_pixel = 3*pixels_per_pixel;
for(uint32_t y = 0; y < 32; ++y) {
for(uint32_t x = 0; x < 32; ++x) {
uint32_t r = 0, g = 0, b = 0, c = 0;
for(uint32_t u = 0; u < ht; ++u) {
for(uint32_t v = 0; v < wt; ++v) {
r += rgb[bytes_per_line * (pixels_per_pixel*y + u) + (bytes_per_pixel*x + 3*v) + 0];
g += rgb[bytes_per_line * (pixels_per_pixel*y + u) + (bytes_per_pixel*x + 3*v) + 1];
b += rgb[bytes_per_line * (pixels_per_pixel*y + u) + (bytes_per_pixel*x + 3*v) + 2];
++c;
}
}
ASSERT(c);
rgb32x32[96*y+x*3+0] = r/c;
rgb32x32[96*y+x*3+1] = g/c;
rgb32x32[96*y+x*3+2] = b/c;
}
}
wxImage img(32,32, rgb32x32);
wxBitmap bmp(img);
dc[sz] = newd wxMemoryDC(bmp);
delete[] rgb;
gui.gfx.addSpriteToCleanup(this);
} else {
ASSERT(sz == 0);
}
}
return dc[sz];
}
void GameSprite::DrawTo(wxDC* dc, SpriteSize sz, int start_x, int start_y, int width, int height) {
if(width == -1) width = sz == SPRITE_SIZE_32x32? 32 : 16;
if(height == -1) height= sz == SPRITE_SIZE_32x32? 32 : 16;
wxDC* sdc = getDC(sz);
if(sdc)
{
dc->Blit(start_x, start_y, width, height, sdc, 0, 0, wxCOPY, true);
}
else
{
const wxBrush& b = dc->GetBrush();
dc->SetBrush(*wxRED_BRUSH);
dc->DrawRectangle(start_x, start_y, width, height);
dc->SetBrush(b);
}
}
GameSprite::Image::Image() :
isGLLoaded(false),
lastaccess(0)
{
}
GameSprite::Image::~Image()
{
unloadGLTexture(0);
}
void GameSprite::Image::createGLTexture(GLuint whatid)
{
ASSERT(!isGLLoaded);
uint8_t* rgba = getRGBAData();
if (!rgba) {
return;
}
isGLLoaded = true;
gui.gfx.loaded_textures += 1;
glBindTexture(GL_TEXTURE_2D, whatid);
glTexParameteri(GL_TEXTURE_2D, GL_TEXTURE_MIN_FILTER, GL_LINEAR); // Linear Filtering
glTexParameteri(GL_TEXTURE_2D, GL_TEXTURE_MAG_FILTER, GL_LINEAR); // Linear Filtering
glTexParameteri(GL_TEXTURE_2D, GL_TEXTURE_WRAP_S, 0x812F); // GL_CLAMP_TO_EDGE
glTexParameteri(GL_TEXTURE_2D, GL_TEXTURE_WRAP_T, 0x812F); // GL_CLAMP_TO_EDGE
glTexImage2D(GL_TEXTURE_2D, 0, GL_RGBA, 32, 32, 0, GL_RGBA, GL_UNSIGNED_BYTE, rgba);
delete[] rgba;
#undef SPRITE_SIZE
}
void GameSprite::Image::unloadGLTexture(GLuint whatid) {
isGLLoaded = false;
gui.gfx.loaded_textures -= 1;
glDeleteTextures(1, &whatid);
}
void GameSprite::Image::visit() {
lastaccess = time(nullptr);
}
void GameSprite::Image::clean(int time) {
if(isGLLoaded && time - lastaccess > settings.getInteger(Config::TEXTURE_LONGEVITY)) {
unloadGLTexture(0);
}
}
GameSprite::NormalImage::NormalImage() :
id(0),
size(0),
dump(nullptr)
{
}
GameSprite::NormalImage::~NormalImage() {
delete[] dump;
}
void GameSprite::NormalImage::clean(int time) {
Image::clean(time);
if(time - lastaccess > 5 && !settings.getInteger(Config::USE_MEMCACHED_SPRITES)) { // We keep dumps around for 5 seconds.
delete[] dump;
dump = nullptr;
}
}
uint8_t* GameSprite::NormalImage::getRGBData() {
if(dump == nullptr) {
if(settings.getInteger(Config::USE_MEMCACHED_SPRITES)) {
return nullptr;
} else {
if(!gui.gfx.loadSpriteDump(dump, size, id)) {
return nullptr;
}
}
}
uint8_t* rgb32x32 = newd uint8_t[32*32*3];
/* SPR dump format
* The spr format contains chunks, a chunk can either be transparent or contain pixel data.
* First 2 bytes (unsigned short) are read, which tells us how long the chunk is. One
* chunk can stretch several rows in the outputted image, for example, if the chunk is 400
* pixels long. We will have to wrap it over 14 rows in the image.
* If the chunk is transparent. Set that many pixels to be transparent.
* If the chunk is pixel data, read from the cursor that many pixels. One pixel is 3 bytes in
* in RGB aligned data (eg. char R, char B, char G) so if the unsigned short says 20, we
* read 20*3 = 60 bytes.
* Once we read one chunk, we switch to the other type of chunk (if we've just read a transparent
* chunk, we read a pixel chunk and vice versa). And then start over again.
* All sprites start with a transparent chunk.
*/
int bytes = 0;
int x = 0;
int y = 0;
uint16_t chunk_size;
uint8_t channels = (settings.getInteger(Config::SPR_TRANSPARENCY) == 1) ? 4 : 3;
while(bytes < size && y < 32) {
chunk_size = dump[bytes] | dump[bytes+1] << 8;
bytes += 2;
for(int i = 0; i < chunk_size; ++i) {
// Transparent pixel
rgb32x32[96*y+x*3+0] = 0xFF;
rgb32x32[96*y+x*3+1] = 0x00;
rgb32x32[96*y+x*3+2] = 0xFF;
x++;
if(x >= 32) {
x = 0;
++y;
if(y >= 32)
break;
}
}
if(bytes >= size || y >= 32)
break; // We're done
// Now comes a pixel chunk, read it!
chunk_size = dump[bytes] | dump[bytes+1] << 8;
bytes += 2;
//printf("Reading pixel chunk size %d\n", int(chunk_size));
for(int i = 0; i < chunk_size; ++i) {
uint8_t red = dump[bytes+0];
uint8_t green= dump[bytes+1];
uint8_t blue = dump[bytes+2];
rgb32x32[96*y+x*3+0] = red;
rgb32x32[96*y+x*3+1] = green;
rgb32x32[96*y+x*3+2] = blue;
bytes += channels;
x++;
if(x >= 32) {
x = 0;
++y;
if(y >= 32)
break;
}
}
}
// Fill up any trailing pixels
while(y<32 && x<32) {
rgb32x32[96*y+x*3+0] = 0xFF; // Transparent
rgb32x32[96*y+x*3+1] = 0x00; // Transparent
rgb32x32[96*y+x*3+2] = 0xFF; // Transparent
x++;
if(x >= 32) {
x = 0;
++y;
}
}
return rgb32x32;
}
uint8_t* GameSprite::NormalImage::getRGBAData() {
if(dump == nullptr) {
if(settings.getInteger(Config::USE_MEMCACHED_SPRITES)) {
return nullptr;
} else {
if(!gui.gfx.loadSpriteDump(dump, size, id)) {
return nullptr;
}
}
}
uint8_t* rgba32x32 = newd uint8_t[32*32*4];
memset(rgba32x32, 0, 32*32*4);
/* SPR dump format
* The spr format contains chunks, a chunk can either be transparent or contain pixel data.
* First 2 bytes (unsigned short) are read, which tells us how long the chunk is. One
* chunk can stretch several rows in the outputted image, for example, if the chunk is 400
* pixels long. We will have to wrap it over 14 rows in the image.
* If the chunk is transparent. Set that many pixels to be transparent.
* If the chunk is pixel data, read from the cursor that many pixels. One pixel is 3 bytes in
* in RGB aligned data (eg. char R, char B, char G) so if the unsigned short says 20, we
* read 20*3 = 60 bytes.
* Once we read one chunk, we switch to the other type of chunk (if we've just read a transparent
* chunk, we read a pixel chunk and vice versa). And then start over again.
* All sprites start with a transparent chunk.
*/
int bytes = 0;
int x = 0;
int y = 0;
uint16_t chunk_size;
bool transparency = (settings.getInteger(Config::SPR_TRANSPARENCY) == 1);
uint8_t channels = transparency ? 4 : 3;
while(bytes < size && y < 32) {
chunk_size = dump[bytes] | dump[bytes+1] << 8;
//printf("pos:%d\n", bytes);
//printf("Reading transparent chunk size %d\n", int(chunk_size));
bytes += 2;
for(int i = 0; i < chunk_size; ++i) {
//printf("128*%d+%d*4+3\t= %d\n", y, x, 128*y+x*4+3);
rgba32x32[128*y+x*4+3] = 0x00; // Transparent pixel
x++;
if(x >= 32) {
x = 0;
y++;
if(y >= 32)
break;
}
}
if(bytes >= size || y >= 32)
break; // We're done
// Now comes a pixel chunk, read it!
chunk_size = dump[bytes] | dump[bytes+1] << 8;
bytes += 2;
//printf("Reading pixel chunk size %d\n", int(chunk_size));
for(int i = 0; i < chunk_size; ++i) {
uint8_t red = dump[bytes+0];
uint8_t green = dump[bytes+1];
uint8_t blue = dump[bytes+2];
uint8_t alpha = transparency ? dump[bytes + 3] : 0xFF;
rgba32x32[128*y+x*4+0] = red;
rgba32x32[128*y+x*4+1] = green;
rgba32x32[128*y+x*4+2] = blue;
rgba32x32[128*y+x*4+3] = alpha; //Opaque pixel
bytes += channels;
x++;
if(x >= 32) {
x = 0;
y++;
if(y >= 32)
break;
}
}
}
// Fill up any trailing pixels
while(y<32 && x<32) {
rgba32x32[128*y+x*4+3] = 0x00; // Transparent pixel
x++;
if(x >= 32) {
x = 0;
y++;
}
}
return rgba32x32;
}
GLuint GameSprite::NormalImage::getHardwareID() {
if(isGLLoaded == false) {
createGLTexture(id);
}
visit();
return id;
}
void GameSprite::NormalImage::createGLTexture(GLuint ignored) {
Image::createGLTexture(id);
}
void GameSprite::NormalImage::unloadGLTexture(GLuint ignored) {
Image::unloadGLTexture(id);
}
GameSprite::TemplateImage::TemplateImage(GameSprite* parent, int v, const Outfit& outfit) :
gl_tid(0),
parent(parent),
sprite_index(v),
lookHead(outfit.lookHead),
lookBody(outfit.lookBody),
lookLegs(outfit.lookLegs),
lookFeet(outfit.lookFeet)
{
}
GameSprite::TemplateImage::~TemplateImage() {
}
void GameSprite::TemplateImage::colorizePixel(uint8_t color, uint8_t& red, uint8_t& green, uint8_t& blue) {
// Thanks! Khaos, or was it mips? Hmmm... =)
uint8_t ro = (TemplateOutfitLookupTable[color] & 0xFF0000) >> 16; // rgb outfit
uint8_t go = (TemplateOutfitLookupTable[color] & 0xFF00) >> 8;
uint8_t bo = (TemplateOutfitLookupTable[color] & 0xFF);
red = (uint8_t)(red * (ro / 255.f));
green = (uint8_t)(green * (go / 255.f));
blue = (uint8_t)(blue * (bo / 255.f));
}
uint8_t* GameSprite::TemplateImage::getRGBData() {
uint8_t* rgbdata = parent->spriteList[sprite_index]->getRGBData();
uint8_t* template_rgbdata = parent->spriteList[sprite_index + parent->height * parent->width]->getRGBData();
if(!rgbdata) {
delete[] template_rgbdata;
return nullptr;
}
if(!template_rgbdata) {
delete[] rgbdata;
return nullptr;
}
if(lookHead > (sizeof(TemplateOutfitLookupTable) / sizeof(TemplateOutfitLookupTable[0]))) {
lookHead = 0;
}
if(lookBody > (sizeof(TemplateOutfitLookupTable) / sizeof(TemplateOutfitLookupTable[0]))) {
lookBody = 0;
}
if(lookLegs > (sizeof(TemplateOutfitLookupTable) / sizeof(TemplateOutfitLookupTable[0]))) {
lookLegs = 0;
}
if(lookFeet > (sizeof(TemplateOutfitLookupTable) / sizeof(TemplateOutfitLookupTable[0]))) {
lookFeet = 0;
}
for(int y = 0; y < 32; ++y) {
for(int x = 0; x < 32; ++x) {
uint8_t& red = rgbdata[y*32*3 + x*3 + 0];
uint8_t& green = rgbdata[y*32*3 + x*3 + 1];
uint8_t& blue = rgbdata[y*32*3 + x*3 + 2];
uint8_t& tred = template_rgbdata[y*32*3 + x*3 + 0];
uint8_t& tgreen = template_rgbdata[y*32*3 + x*3 + 1];
uint8_t& tblue = template_rgbdata[y*32*3 + x*3 + 2];
if(tred && tgreen && !tblue) { // yellow => head
colorizePixel(lookHead, red, green, blue);
} else if(tred && !tgreen && !tblue) { // red => body
colorizePixel(lookBody, red, green, blue);
} else if(!tred && tgreen && !tblue) { // green => legs
colorizePixel(lookLegs, red, green, blue);
} else if(!tred && !tgreen && tblue) { // blue => feet
colorizePixel(lookFeet, red, green, blue);
}
}
}
delete[] template_rgbdata;
return rgbdata;
}
uint8_t* GameSprite::TemplateImage::getRGBAData() {
uint8_t* rgbadata = parent->spriteList[sprite_index]->getRGBAData();
uint8_t* template_rgbdata = parent->spriteList[sprite_index + parent->height * parent->width]->getRGBData();
if(!rgbadata) {
delete[] template_rgbdata;
return nullptr;
}
if(!template_rgbdata) {
delete[] rgbadata;
return nullptr;
}
if(lookHead > (sizeof(TemplateOutfitLookupTable) / sizeof(TemplateOutfitLookupTable[0]))) {
lookHead = 0;
}
if(lookBody > (sizeof(TemplateOutfitLookupTable) / sizeof(TemplateOutfitLookupTable[0]))) {
lookBody = 0;
}
if(lookLegs > (sizeof(TemplateOutfitLookupTable) / sizeof(TemplateOutfitLookupTable[0]))) {
lookLegs = 0;
}
if(lookFeet > (sizeof(TemplateOutfitLookupTable) / sizeof(TemplateOutfitLookupTable[0]))) {
lookFeet = 0;
}
for(int y = 0; y < 32; ++y) {
for(int x = 0; x < 32; ++x) {
uint8_t& red = rgbadata[y*32*4 + x*4 + 0];
uint8_t& green = rgbadata[y*32*4 + x*4 + 1];
uint8_t& blue = rgbadata[y*32*4 + x*4 + 2];
uint8_t& tred = template_rgbdata[y*32*3 + x*3 + 0];
uint8_t& tgreen = template_rgbdata[y*32*3 + x*3 + 1];
uint8_t& tblue = template_rgbdata[y*32*3 + x*3 + 2];
if(tred && tgreen && !tblue) { // yellow => head
colorizePixel(lookHead, red, green, blue);
} else if(tred && !tgreen && !tblue) { // red => body
colorizePixel(lookBody, red, green, blue);
} else if(!tred && tgreen && !tblue) { // green => legs
colorizePixel(lookLegs, red, green, blue);
} else if(!tred && !tgreen && tblue) { // blue => feet
colorizePixel(lookFeet, red, green, blue);
}
}
}
delete[] template_rgbdata;
return rgbadata;
}
GLuint GameSprite::TemplateImage::getHardwareID() {
if(isGLLoaded == false) {
if(gl_tid == 0) {
gl_tid = gui.gfx.getFreeTextureID();
}
createGLTexture(gl_tid);
if(!isGLLoaded) {
return 0;
}
}
visit();
return gl_tid;
}
void GameSprite::TemplateImage::createGLTexture(GLuint unused) {
Image::createGLTexture(gl_tid);
}
void GameSprite::TemplateImage::unloadGLTexture(GLuint unused) {
Image::unloadGLTexture(gl_tid);
}
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