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xash3d-fwgs
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xash3d-fwgs/ref/vk/r_textures.c

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#include "r_textures.h"
#include "vk_textures.h"
#include "vk_common.h"
#include "vk_const.h"
#include "vk_mapents.h" // wadlist
#include "vk_logs.h"
#include "r_speeds.h"
#include "profiler.h"
#include "unordered_roadmap.h"
#include "stringview.h"
#include "xash3d_mathlib.h"
#include "crtlib.h"
#include "crclib.h" // COM_HashKey
#include "com_strings.h"
#include "eiface.h" // ARRAYSIZE
#include <memory.h>
#include <math.h>
#define MODULE_NAME "textures"
#define LOG_MODULE tex
vk_textures_global_t tglob = {0};
static struct {
poolhandle_t mempool;
vk_texture_t all[MAX_TEXTURES];
urmom_desc_t all_desc;
char current_skybox_name[MAX_STRING];
} g_textures;
static void createDefaultTextures( void );
static void destroyDefaultTextures( void );
static void destroyTexture( uint texnum );
#define R_TextureUploadFromBufferNew(name, pic, flags) R_TextureUploadFromBuffer(name, pic, flags, /*update_only=*/false)
qboolean R_TexturesInit( void ) {
g_textures.mempool = Mem_AllocPool( "vktextures" );
g_textures.all_desc = (urmom_desc_t){
.array = g_textures.all,
.count = COUNTOF(g_textures.all),
.item_size = sizeof(g_textures.all[0]),
.type = kUrmomStringInsensitive,
};
urmomInit(&g_textures.all_desc);
// Mark index 0 as occupied to have a special "no texture" value
g_textures.all[0].hdr_.hash = 0x7fffffff;
g_textures.all[0].hdr_.state = 1;
Q_strncpy( g_textures.all[0].hdr_.key, "*unused*", sizeof(g_textures.all[0].hdr_.key));
createDefaultTextures();
if (!R_VkTexturesInit())
return false;
return true;
}
void R_TexturesShutdown( void )
{
destroyDefaultTextures();
// By this point ideally all texture should have been destroyed.
// However, there are two possible ways some texture could have been left over:
// 1. Our coding mistakes, not releasing textures when done
// 2. Engine and other external things not cleaning up (e.g. mainui is known to leave textures)
for( int i = 1; i < COUNTOF(g_textures.all); i++ ) {
const vk_texture_t *const tex = g_textures.all + i;
if (!URMOM_IS_OCCUPIED(tex->hdr_))
continue;
// Try to free external textures
R_TextureFree( i );
// If it is still not deleted, complain loudly
if (URMOM_IS_OCCUPIED(tex->hdr_)) {
// TODO consider ASSERT, as this is a coding mistake
ERR("stale texture[%d] '%s' refcount=%d", i, TEX_NAME(tex), tex->refcount);
destroyTexture( i );
}
}
int is_deleted_count = 0;
int clusters[16] = {0};
int current_cluster_begin = -1;
for( int i = 1; i < COUNTOF(g_textures.all); i++ ) {
const vk_texture_t *const tex = g_textures.all + i;
if (URMOM_IS_EMPTY(tex->hdr_)) {
if (current_cluster_begin >= 0) {
const int cluster_length = i - current_cluster_begin;
clusters[cluster_length >= COUNTOF(clusters) ? 0 : cluster_length]++;
}
current_cluster_begin = -1;
} else {
if (current_cluster_begin < 0)
current_cluster_begin = i;
}
if (URMOM_IS_DELETED(tex->hdr_))
++is_deleted_count;
ASSERT(!URMOM_IS_OCCUPIED(tex->hdr_));
}
// TODO handle wraparound clusters
if (current_cluster_begin >= 0) {
const int cluster_length = COUNTOF(g_textures.all) - current_cluster_begin;
clusters[cluster_length >= COUNTOF(clusters) ? 0 : cluster_length]++;
}
DEBUG("Deleted slots in texture hash table: %d", is_deleted_count);
for (int i = 1; i < COUNTOF(clusters); ++i)
DEBUG("Texture hash table cluster[%d] = %d", i, clusters[i]);
DEBUG("Clusters longer than %d: %d", (int)COUNTOF(clusters)-1, clusters[0]);
R_VkTexturesShutdown();
}
/* OBSOLETE
static vk_texture_t *Common_AllocTexture( const char *name, texFlags_t flags )
{
vk_texture_t *tex;
uint i;
// find a free texture_t slot
for( i = 0, tex = vk_textures; i < vk_numTextures; i++, tex++ )
if( !tex->name[0] ) break;
if( i == vk_numTextures )
{
if( vk_numTextures == MAX_TEXTURES )
gEngine.Host_Error( "VK_AllocTexture: MAX_TEXTURES limit exceeds\n" );
vk_numTextures++;
}
tex = &vk_textures[i];
// copy initial params
Q_strncpy( tex->name, name, sizeof( tex->name ));
tex->texnum = i; // texnum is used for fast acess into vk_textures array too
tex->flags = flags;
// add to hash table
tex->hashValue = COM_HashKey( name, TEXTURES_HASH_SIZE );
tex->nextHash = vk_texturesHashTable[tex->hashValue];
vk_texturesHashTable[tex->hashValue] = tex;
// FIXME this is not strictly correct. Refcount management should be done differently wrt public ref_interface_t
tex->refcount = 1;
return tex;
}
static vk_texture_t *Common_TextureForName( const char *name )
{
vk_texture_t *tex;
uint hash;
// find the texture in array
hash = COM_HashKey( name, TEXTURES_HASH_SIZE );
for( tex = vk_texturesHashTable[hash]; tex != NULL; tex = tex->nextHash )
{
if( !Q_stricmp( tex->name, name ))
return tex;
}
return NULL;
}
*/
static qboolean checkTextureName( const char *name )
{
int len;
if( !COM_CheckString( name ))
return false;
len = Q_strlen( name );
// because multi-layered textures can exceed name string
if( len >= sizeof( g_textures.all[0].hdr_.key ))
{
ERR("LoadTexture: too long name %s (%d)", name, len );
return false;
}
return true;
}
static rgbdata_t *Common_FakeImage( int width, int height, int depth, int flags )
{
// TODO: Fix texture and it's buffer leaking.
rgbdata_t *r_image = Mem_Malloc( g_textures.mempool, sizeof( rgbdata_t ) );
// also use this for bad textures, but without alpha
r_image->width = Q_max( 1, width );
r_image->height = Q_max( 1, height );
r_image->depth = Q_max( 1, depth );
r_image->flags = flags;
r_image->type = PF_RGBA_32;
r_image->size = r_image->width * r_image->height * r_image->depth * 4;
if( FBitSet( r_image->flags, IMAGE_CUBEMAP )) r_image->size *= 6;
r_image->buffer = Mem_Malloc( g_textures.mempool, r_image->size);
r_image->palette = NULL;
r_image->numMips = 1;
r_image->encode = 0;
memset( r_image->buffer, 0xFF, r_image->size );
return r_image;
}
static void createDefaultTextures( void )
{
int dx2, dy, d;
int x, y;
rgbdata_t *pic;
// emo-texture from quake1
pic = Common_FakeImage( 16, 16, 1, IMAGE_HAS_COLOR );
for( y = 0; y < 16; y++ )
{
for( x = 0; x < 16; x++ )
{
if(( y < 8 ) ^ ( x < 8 ))
((uint *)pic->buffer)[y*16+x] = 0xFFFF00FF;
else ((uint *)pic->buffer)[y*16+x] = 0xFF000000;
}
}
tglob.defaultTexture = R_TextureUploadFromBufferNew( REF_DEFAULT_TEXTURE, pic, TF_COLORMAP );
// particle texture from quake1
pic = Common_FakeImage( 16, 16, 1, IMAGE_HAS_COLOR|IMAGE_HAS_ALPHA );
for( x = 0; x < 16; x++ )
{
dx2 = x - 8;
dx2 = dx2 * dx2;
for( y = 0; y < 16; y++ )
{
dy = y - 8;
d = 255 - 35 * sqrt( dx2 + dy * dy );
pic->buffer[( y * 16 + x ) * 4 + 3] = bound( 0, d, 255 );
}
}
tglob.particleTexture = R_TextureUploadFromBufferNew( REF_PARTICLE_TEXTURE, pic, TF_CLAMP );
// white texture
pic = Common_FakeImage( 4, 4, 1, IMAGE_HAS_COLOR );
for( x = 0; x < 16; x++ )
((uint *)pic->buffer)[x] = 0xFFFFFFFF;
tglob.whiteTexture = R_TextureUploadFromBufferNew( REF_WHITE_TEXTURE, pic, TF_COLORMAP );
// gray texture
pic = Common_FakeImage( 4, 4, 1, IMAGE_HAS_COLOR );
for( x = 0; x < 16; x++ )
((uint *)pic->buffer)[x] = 0xFF7F7F7F;
tglob.grayTexture = R_TextureUploadFromBufferNew( REF_GRAY_TEXTURE, pic, TF_COLORMAP );
// black texture
pic = Common_FakeImage( 4, 4, 1, IMAGE_HAS_COLOR );
for( x = 0; x < 16; x++ )
((uint *)pic->buffer)[x] = 0xFF000000;
tglob.blackTexture = R_TextureUploadFromBufferNew( REF_BLACK_TEXTURE, pic, TF_COLORMAP );
// cinematic dummy
pic = Common_FakeImage( 640, 100, 1, IMAGE_HAS_COLOR );
tglob.cinTexture = R_TextureUploadFromBufferNew( "*cintexture", pic, TF_NOMIPMAP|TF_CLAMP );
{
rgbdata_t *sides[6];
pic = Common_FakeImage( 4, 4, 1, IMAGE_HAS_COLOR );
for( x = 0; x < 16; x++ )
((uint *)pic->buffer)[x] = 0;
sides[0] = pic;
sides[1] = pic;
sides[2] = pic;
sides[3] = pic;
sides[4] = pic;
sides[5] = pic;
const qboolean is_placeholder = true;
R_VkTexturesSkyboxUpload( "skybox_placeholder", sides, kColorspaceGamma, is_placeholder );
}
}
static void destroyDefaultTextures( void ) {
if (tglob.cinTexture > 0)
R_TextureFree( tglob.cinTexture );
if (tglob.blackTexture > 0)
R_TextureFree( tglob.blackTexture );
if (tglob.grayTexture > 0)
R_TextureFree( tglob.grayTexture );
if (tglob.whiteTexture > 0)
R_TextureFree( tglob.whiteTexture );
if (tglob.particleTexture > 0)
R_TextureFree( tglob.particleTexture );
if (tglob.defaultTexture > 0)
R_TextureFree( tglob.defaultTexture );
}
static void ProcessImage( vk_texture_t *tex, rgbdata_t *pic )
{
float emboss_scale = 0.0f;
uint img_flags = 0;
// force upload texture as RGB or RGBA (detail textures requires this)
if( tex->flags & TF_FORCE_COLOR ) pic->flags |= IMAGE_HAS_COLOR;
if( pic->flags & IMAGE_HAS_ALPHA ) tex->flags |= TF_HAS_ALPHA;
//FIXME provod: ??? tex->encode = pic->encode; // share encode method
if( ImageCompressed( pic->type ))
{
if( !pic->numMips )
tex->flags |= TF_NOMIPMAP; // disable mipmapping by user request
// clear all the unsupported flags
tex->flags &= ~TF_KEEP_SOURCE;
}
else
{
// copy flag about luma pixels
if( pic->flags & IMAGE_HAS_LUMA )
tex->flags |= TF_HAS_LUMA;
if( pic->flags & IMAGE_QUAKEPAL )
tex->flags |= TF_QUAKEPAL;
// create luma texture from quake texture
if( tex->flags & TF_MAKELUMA )
{
img_flags |= IMAGE_MAKE_LUMA;
tex->flags &= ~TF_MAKELUMA;
}
/* FIXME provod: ???
if( !FBitSet( tex->flags, TF_IMG_UPLOADED ) && FBitSet( tex->flags, TF_KEEP_SOURCE ))
tex->original = gEngine.FS_CopyImage( pic ); // because current pic will be expanded to rgba
*/
// we need to expand image into RGBA buffer
if( pic->type == PF_INDEXED_24 || pic->type == PF_INDEXED_32 )
img_flags |= IMAGE_FORCE_RGBA;
/* FIXME provod: ???
// dedicated server doesn't register this variable
if( gl_emboss_scale != NULL )
emboss_scale = gl_emboss_scale->value;
*/
// processing image before uploading (force to rgba, make luma etc)
if( pic->buffer ) gEngine.Image_Process( &pic, 0, 0, img_flags, emboss_scale );
if( FBitSet( tex->flags, TF_LUMINANCE ))
ClearBits( pic->flags, IMAGE_HAS_COLOR );
}
}
size_t CalcImageSize( pixformat_t format, int width, int height, int depth ) {
size_t size = 0;
// check the depth error
depth = Q_max( 1, depth );
switch( format )
{
case PF_LUMINANCE:
size = width * height * depth;
break;
case PF_RGB_24:
case PF_BGR_24:
size = width * height * depth * 3;
break;
case PF_BGRA_32:
case PF_RGBA_32:
size = width * height * depth * 4;
break;
case PF_DXT1:
case PF_BC4_UNSIGNED:
case PF_BC4_SIGNED:
size = (((width + 3) >> 2) * ((height + 3) >> 2) * 8) * depth;
break;
case PF_DXT3:
case PF_DXT5:
case PF_BC6H_UNSIGNED:
case PF_BC6H_SIGNED:
case PF_BC7_UNORM:
case PF_BC7_SRGB:
case PF_ATI2:
case PF_BC5_UNSIGNED:
case PF_BC5_SIGNED:
size = (((width + 3) >> 2) * ((height + 3) >> 2) * 16) * depth;
break;
default:
ERR("%s: unsupported pixformat_t %d", __FUNCTION__, format);
ASSERT(!"Unsupported format encountered");
}
return size;
}
int CalcMipmapCount( int width, int height, int depth, uint32_t flags, qboolean haveBuffer )
{
int mipcount;
if( !haveBuffer )// || tex->target == GL_TEXTURE_3D )
return 1;
// generate mip-levels by user request
if( FBitSet( flags, TF_NOMIPMAP ))
return 1;
// mip-maps can't exceeds 16
for( mipcount = 0; mipcount < 16; mipcount++ )
{
const int mip_width = Q_max( 1, ( width >> mipcount ));
const int mip_height = Q_max( 1, ( height >> mipcount ));
const int mip_depth = Q_max( 1, ( depth >> mipcount ));
if( mip_width == 1 && mip_height == 1 && mip_depth == 1 )
break;
}
return mipcount + 1;
}
void BuildMipMap( byte *in, int srcWidth, int srcHeight, int srcDepth, int flags )
{
byte *out = in;
int instride = ALIGN( srcWidth * 4, 1 );
int mipWidth, mipHeight, outpadding;
int row, x, y, z;
vec3_t normal;
if( !in ) return;
mipWidth = Q_max( 1, ( srcWidth >> 1 ));
mipHeight = Q_max( 1, ( srcHeight >> 1 ));
outpadding = ALIGN( mipWidth * 4, 1 ) - mipWidth * 4;
if( FBitSet( flags, TF_ALPHACONTRAST ))
{
memset( in, mipWidth, mipWidth * mipHeight * 4 );
return;
}
// move through all layers
for( z = 0; z < srcDepth; z++ )
{
if( FBitSet( flags, TF_NORMALMAP ))
{
for( y = 0; y < mipHeight; y++, in += instride * 2, out += outpadding )
{
byte *next = ((( y << 1 ) + 1 ) < srcHeight ) ? ( in + instride ) : in;
for( x = 0, row = 0; x < mipWidth; x++, row += 8, out += 4 )
{
if((( x << 1 ) + 1 ) < srcWidth )
{
normal[0] = MAKE_SIGNED( in[row+0] ) + MAKE_SIGNED( in[row+4] )
+ MAKE_SIGNED( next[row+0] ) + MAKE_SIGNED( next[row+4] );
normal[1] = MAKE_SIGNED( in[row+1] ) + MAKE_SIGNED( in[row+5] )
+ MAKE_SIGNED( next[row+1] ) + MAKE_SIGNED( next[row+5] );
normal[2] = MAKE_SIGNED( in[row+2] ) + MAKE_SIGNED( in[row+6] )
+ MAKE_SIGNED( next[row+2] ) + MAKE_SIGNED( next[row+6] );
}
else
{
normal[0] = MAKE_SIGNED( in[row+0] ) + MAKE_SIGNED( next[row+0] );
normal[1] = MAKE_SIGNED( in[row+1] ) + MAKE_SIGNED( next[row+1] );
normal[2] = MAKE_SIGNED( in[row+2] ) + MAKE_SIGNED( next[row+2] );
}
if( !VectorNormalizeLength( normal ))
VectorSet( normal, 0.5f, 0.5f, 1.0f );
out[0] = 128 + (byte)(127.0f * normal[0]);
out[1] = 128 + (byte)(127.0f * normal[1]);
out[2] = 128 + (byte)(127.0f * normal[2]);
out[3] = 255;
}
}
}
else
{
for( y = 0; y < mipHeight; y++, in += instride * 2, out += outpadding )
{
byte *next = ((( y << 1 ) + 1 ) < srcHeight ) ? ( in + instride ) : in;
for( x = 0, row = 0; x < mipWidth; x++, row += 8, out += 4 )
{
if((( x << 1 ) + 1 ) < srcWidth )
{
out[0] = (in[row+0] + in[row+4] + next[row+0] + next[row+4]) >> 2;
out[1] = (in[row+1] + in[row+5] + next[row+1] + next[row+5]) >> 2;
out[2] = (in[row+2] + in[row+6] + next[row+2] + next[row+6]) >> 2;
out[3] = (in[row+3] + in[row+7] + next[row+3] + next[row+7]) >> 2;
}
else
{
out[0] = (in[row+0] + next[row+0]) >> 1;
out[1] = (in[row+1] + next[row+1]) >> 1;
out[2] = (in[row+2] + next[row+2]) >> 1;
out[3] = (in[row+3] + next[row+3]) >> 1;
}
}
}
}
}
}
qboolean validatePicLayers(const char* const name, rgbdata_t *const *const layers, int num_layers) {
for (int i = 0; i < num_layers; ++i) {
// FIXME create empty black texture if there's no buffer
if (!layers[i]->buffer) {
ERR("Texture %s layer %d missing buffer", name, i);
return false;
}
if (i == 0)
continue;
if (layers[0]->type != layers[i]->type) {
ERR("Texture %s layer %d has type %d inconsistent with layer 0 type %d", name, i, layers[i]->type, layers[0]->type);
return false;
}
if (layers[0]->width != layers[i]->width
|| layers[0]->height != layers[i]->height
|| layers[0]->depth != layers[i]->depth) {
ERR("Texture %s layer %d has resolution %dx%d%d inconsistent with layer 0 resolution %dx%dx%d",
name, i,
layers[i]->width, layers[i]->height, layers[i]->depth,
layers[0]->width, layers[0]->height, layers[0]->depth);
return false;
}
if ((layers[0]->flags ^ layers[i]->flags) & IMAGE_HAS_ALPHA) {
ERR("Texture %s layer %d has_alpha=%d inconsistent with layer 0 has_alpha=%d",
name, i,
!!(layers[i]->flags & IMAGE_HAS_ALPHA),
!!(layers[0]->flags & IMAGE_HAS_ALPHA));
return false;
}
if (layers[0]->numMips != layers[i]->numMips) {
ERR("Texture %s layer %d has numMips %d inconsistent with layer 0 numMips %d",
name, i, layers[i]->numMips, layers[0]->numMips);
return false;
}
}
return true;
}
///////////// Render API funcs /////////////
int R_TextureFindByName( const char *name )
{
vk_texture_t *tex;
if( !checkTextureName( name ))
return 0;
const int index = urmomFind(&g_textures.all_desc, name);
return index > 0 ? index : 0;
}
const char* R_TextureGetNameByIndex( unsigned int texnum )
{
ASSERT( texnum >= 0 && texnum < MAX_TEXTURES );
return g_textures.all[texnum].hdr_.key;
}
static int loadTextureInternalFromFile( const char *name, const byte *buf, size_t size, int flags, colorspace_hint_e colorspace_hint, qboolean force_update, qboolean ref_interface ) {
qboolean success = false;
if( !checkTextureName( name ))
return 0;
const urmom_insert_t insert = urmomInsert(&g_textures.all_desc, name);
if (insert.index < 0) {
ERR("Cannot allocate texture slot for \"%s\"", name);
return 0;
}
ASSERT(insert.index < COUNTOF(g_textures.all));
vk_texture_t *const tex = g_textures.all + insert.index;
// return existing if already loaded and was not forced to reload
if (!insert.created && !force_update) {
DEBUG("Found existing texture %s(%d) refcount=%d", TEX_NAME(tex), insert.index, tex->refcount);
// Increment refcount for refcount-aware calls (e.g. materials)
if (!ref_interface) {
tex->refcount++;
} else if (!tex->ref_interface_visible) {
tex->ref_interface_visible = true;
tex->refcount++;
}
return insert.index;
}
uint picFlags = 0;
if( FBitSet( flags, TF_NOFLIP_TGA ))
SetBits( picFlags, IL_DONTFLIP_TGA );
if( FBitSet( flags, TF_KEEP_SOURCE ) && !FBitSet( flags, TF_EXPAND_SOURCE ))
SetBits( picFlags, IL_KEEP_8BIT );
// set some image flags
gEngine.Image_SetForceFlags( picFlags );
rgbdata_t *const pic = gEngine.FS_LoadImage( name, buf, size );
if( !pic )
goto cleanup;
// Process flags, convert to rgba, etc
tex->flags = flags;
ProcessImage( tex, pic );
if( !R_VkTextureUpload( insert.index, tex, &pic, 1, colorspace_hint ))
goto cleanup;
// New textures should have refcount = 1 regardless of refcount-aware calls
if (insert.created) {
tex->refcount = 1;
// Mark it as visible from refount-unaware calls if it came from one
if (ref_interface)
tex->ref_interface_visible = true;
}
success = true;
cleanup:
if ( !success && insert.created )
urmomRemoveByIndex(&g_textures.all_desc, insert.index);
if ( pic )
gEngine.FS_FreeImage( pic );
return success ? insert.index : 0;
}
int R_TextureUploadFromFile( const char *name, const byte *buf, size_t size, int flags ) {
const qboolean force_update = false;
const qboolean ref_interface = true;
return loadTextureInternalFromFile(name, buf, size, flags, kColorspaceGamma, force_update, ref_interface);
}
int R_TextureUploadFromFileExAcquire( const char *filename, colorspace_hint_e colorspace, qboolean force_reload) {
const qboolean ref_interface = false;
return loadTextureInternalFromFile( filename, NULL, 0, 0, colorspace, force_reload, ref_interface );
}
// Unconditionally destroy the texture
static void destroyTexture( uint texnum ) {
ASSERT(texnum > 0); // 0 is *unused, cannot be destroyed
ASSERT(texnum < COUNTOF(g_textures.all));
vk_texture_t *const tex = g_textures.all + texnum;
DEBUG("Destroying texture=%d(%s)", texnum, TEX_NAME(tex));
if (tex->refcount > 0)
WARN("Texture '%s'(%d) has refcount=%d", TEX_NAME(tex), texnum, tex->refcount);
ASSERT(URMOM_IS_OCCUPIED(tex->hdr_));
// remove from hash table
urmomRemoveByIndex(&g_textures.all_desc, texnum);
/*
// release source
if( tex->original )
gEngine.FS_FreeImage( tex->original );
*/
R_VkTextureDestroy( texnum, tex );
tex->refcount = 0;
tex->ref_interface_visible = false;
tex->flags = 0;
}
// Decrement refcount and destroy the texture if refcount has reached zero
static void releaseTexture( unsigned int texnum, qboolean ref_interface ) {
vk_texture_t *tex;
vk_texture_t **prev;
vk_texture_t *cur;
APROF_SCOPE_DECLARE_BEGIN(free, __FUNCTION__);
if( texnum <= 0 )
goto end;
ASSERT(texnum < COUNTOF(g_textures.all));
tex = g_textures.all + texnum;
// already freed?
if( !tex->vk.image.image )
goto end;
// debug
if( !TEX_NAME(tex)[0] )
{
ERR("%s: trying to free unnamed texture with index %u", __FUNCTION__, texnum );
goto end;
}
// Textures coming from legacy ref_interface_t api are not refcount-friendly
// Track them separately with a flags (and a single refcount ++/--)
if (ref_interface) {
if (!tex->ref_interface_visible)
return;
tex->ref_interface_visible = false;
}
DEBUG("Releasing texture=%d(%s) refcount=%d", texnum, TEX_NAME(tex), tex->refcount);
ASSERT(tex->refcount > 0);
--tex->refcount;
if (tex->refcount > 0)
goto end;
destroyTexture(texnum);
end:
APROF_SCOPE_END(free);
}
void R_TextureFree( unsigned int texnum ) {
const qboolean ref_interface = true;
releaseTexture( texnum, ref_interface );
}
int R_TextureUploadFromBuffer( const char *name, rgbdata_t *pic, texFlags_t flags, qboolean update_only ) {
// couldn't loading image
if( !pic )
return 0;
if( !checkTextureName( name ))
return 0;
urmom_insert_t insert = {0};
if (update_only)
insert.index = urmomFind(&g_textures.all_desc, name);
else
insert = urmomInsert(&g_textures.all_desc, name);
if (insert.index < 0) {
if (update_only) {
gEngine.Host_Error( "%s: couldn't find texture %s for update\n", __FUNCTION__, name );
} else {
ERR("Cannot allocate texture slot for \"%s\"", name);
}
return 0;
}
ASSERT(insert.index < COUNTOF(g_textures.all));
vk_texture_t *const tex = g_textures.all + insert.index;
// see if already loaded
if (!insert.created && !update_only)
return insert.index;
if( update_only )
SetBits( tex->flags, flags );
else
tex->flags = flags;
ProcessImage( tex, pic );
if( !R_VkTextureUpload( insert.index, tex, &pic, 1, kColorspaceGamma ))
{
if ( !update_only && insert.created )
urmomRemoveByIndex(&g_textures.all_desc, insert.index);
return 0;
}
if (insert.created) {
tex->refcount = 1;
// Loading from buffer is ref_interface only
tex->ref_interface_visible = true;
}
return insert.index;
}
static const struct {
const char *suffix;
uint flags;
} k_skybox_info[6] = {
{"rt", IMAGE_ROT_90},
{"lf", IMAGE_FLIP_Y | IMAGE_ROT_90 | IMAGE_FLIP_X},
{"bk", IMAGE_FLIP_Y},
{"ft", IMAGE_FLIP_X},
{"up", IMAGE_ROT_90},
{"dn", IMAGE_ROT_90},
};
#define SKYBOX_MISSED 0
#define SKYBOX_HLSTYLE 1
#define SKYBOX_Q1STYLE 2
static int CheckSkyboxSides( const char *name )
{
const char *skybox_ext[] = { "png", "dds", "tga", "bmp" };
int i, j, num_checked_sides;
char sidename[MAX_VA_STRING];
// search for skybox images
for( i = 0; i < ARRAYSIZE(skybox_ext); i++ )
{
num_checked_sides = 0;
for( j = 0; j < 6; j++ )
{
// build side name
Q_snprintf( sidename, sizeof( sidename ), "%s%s.%s", name, k_skybox_info[j].suffix, skybox_ext[i] );
if( gEngine.fsapi->FileExists( sidename, false ))
num_checked_sides++;
}
if( num_checked_sides == 6 )
return SKYBOX_HLSTYLE; // image exists
for( j = 0; j < 6; j++ )
{
// build side name
Q_snprintf( sidename, sizeof( sidename ), "%s_%s.%s", name, k_skybox_info[j].suffix, skybox_ext[i] );
if( gEngine.fsapi->FileExists( sidename, false ))
num_checked_sides++;
}
if( num_checked_sides == 6 )
return SKYBOX_Q1STYLE; // images exists
}
return SKYBOX_MISSED;
}
static qboolean loadSkyboxSides( const char *prefix, int style ) {
if( !checkTextureName( prefix ))
return false;
int i;
rgbdata_t *sides[6];
qboolean success = false;
for( i = 0; i < 6; i++ ) {
char sidename[MAX_STRING];
if( style == SKYBOX_HLSTYLE )
Q_snprintf( sidename, sizeof( sidename ), "%s%s", prefix, k_skybox_info[i].suffix );
else Q_snprintf( sidename, sizeof( sidename ), "%s_%s", prefix, k_skybox_info[i].suffix );
sides[i] = gEngine.FS_LoadImage( sidename, NULL, 0);
if (!sides[i] || !sides[i]->buffer)
break;
{
uint img_flags = k_skybox_info[i].flags;
// we need to expand image into RGBA buffer
if( sides[i]->type == PF_INDEXED_24 || sides[i]->type == PF_INDEXED_32 )
img_flags |= IMAGE_FORCE_RGBA;
gEngine.Image_Process( &sides[i], 0, 0, img_flags, 0.f );
}
DEBUG( "%s%s%s", prefix, k_skybox_info[i].suffix, i != 5 ? ", " : ". " );
}
if( i != 6 )
goto cleanup;
{
const qboolean is_placeholder = false;
success = R_VkTexturesSkyboxUpload( prefix, sides, kColorspaceGamma, is_placeholder );
}
cleanup:
for (int j = 0; j < i; ++j)
gEngine.FS_FreeImage( sides[j] ); // release source texture
if (success)
DEBUG( "Loaded sided skybox %s", prefix );
return success;
}
static void makeSkyboxPath(const char *skyboxname, const char *skybox_prefix, char *out_name, int out_length ) {
Q_snprintf( out_name, out_length, skybox_prefix, skyboxname );
COM_StripExtension( out_name );
// kill the underline suffix to find them manually later
const int len = Q_strlen( out_name );
if( out_name[len - 1] == '_' )
out_name[len - 1] = '\0';
}
static qboolean skyboxLoadSides(const_string_view_t base, const char *prefix) {
char loadname[MAX_STRING];
Q_snprintf( loadname, sizeof( loadname ), prefix, base.len, base.s );
// TODO merge together as in gl_warp.c
const int style = CheckSkyboxSides( loadname );
return loadSkyboxSides(loadname, style);
}
static void skyboxUnload( void ) {
R_VkTexturesSkyboxUnload();
g_textures.current_skybox_name[0] = '\0';
}
static qboolean skyboxTryLoad( const char *skyboxname, qboolean force_reload ) {
// Check whether we even need skybox
if (!tglob.current_map_has_surf_sky) {
DEBUG("No SURF_DRAWSKY surfaces in this map, skipping loading skybox");
skyboxUnload();
return true;
}
const_string_view_t basename = svStripExtension(svFromNullTerminated(skyboxname));
if (basename.len > 0 && basename.s[basename.len - 1] == '_')
basename.len--;
if( !basename.len )
{
skyboxUnload();
return true; // clear old skybox
}
// Do not reload the same skybox
// TODO except explicit patches reload
if (!force_reload && svCmp(basename, g_textures.current_skybox_name) == 0)
return true;
// Try loading skybox in this sequence:
// 1. Single pbr/env/<sky>.ktx2 cubemap
{
char ktx_path[MAX_STRING];
Q_snprintf(ktx_path, sizeof(ktx_path), "pbr/env/%.*s.ktx2", basename.len, basename.s);
if (R_VkTexturesSkyboxUploadKTX(ktx_path))
goto success;
}
// 2. pbr/env/<sky>_<side>.{png, ...} sides
if (skyboxLoadSides(basename, "pbr/env/%.*s"))
goto success;
// 3. Old gfx/env/<sky>_<side>.{png, ...} sides
if (skyboxLoadSides(basename, "gfx/env/%.*s"))
goto success;
return false;
success:
svStrncpy(basename, g_textures.current_skybox_name, sizeof(g_textures.current_skybox_name));
return true;
}
static const char *k_skybox_default = "desert";
void skyboxLoad( const char *skyboxname, qboolean is_custom, qboolean force_reload ) {
DEBUG("%s: skyboxname='%s' is_custom=%d force_reload=%d", __FUNCTION__, skyboxname, is_custom, force_reload);
if (!skyboxTryLoad(skyboxname, force_reload)) {
WARN("missed or incomplete skybox '%s', trying default '%s'", skyboxname, k_skybox_default);
if (!skyboxTryLoad(k_skybox_default, force_reload)) {
ERR("Failed to load default skybox \"%s\"", k_skybox_default);
}
return;
}
tglob.fCustomSkybox = is_custom;
}
void R_TextureSetupCustomSky( const char *skyboxname ) {
const qboolean is_custom = true;
const qboolean force_reload = false;
skyboxLoad(skyboxname, is_custom, force_reload);
}
void R_TextureSetupSky( const char *skyboxname, qboolean force_reload ) {
const qboolean is_custom = false;
skyboxLoad(skyboxname, is_custom, force_reload);
}
// FIXME move to r_textures_extra.h
int R_TextureFindByNameF( const char *fmt, ...) {
int tex_id = 0;
char buffer[1024];
va_list argptr;
va_start( argptr, fmt );
vsnprintf( buffer, sizeof buffer, fmt, argptr );
va_end( argptr );
tex_id = R_TextureFindByName(buffer);
DEBUG("Looked up texture %s -> %d", buffer, tex_id);
return tex_id;
}
int R_TextureFindByNameLike( const char *texture_name ) {
const model_t *map = gEngine.pfnGetModelByIndex( 1 );
string texname;
// Try texture name as-is first
int tex_id = R_TextureFindByNameF("%s", texture_name);
// Try bsp name
if (!tex_id)
tex_id = R_TextureFindByNameF("#%s:%s.mip", map->name, texture_name);
if (!tex_id) {
const char *wad = g_map_entities.wadlist;
for (; *wad;) {
const char *const wad_end = Q_strchr(wad, ';');
tex_id = R_TextureFindByNameF("%.*s/%s.mip", wad_end - wad, wad, texture_name);
if (tex_id)
break;
wad = wad_end + 1;
}
}
return tex_id ? tex_id : -1;
}
struct vk_texture_s *R_TextureGetByIndex( uint index )
{
ASSERT(index >= 0);
ASSERT(index < MAX_TEXTURES);
return g_textures.all + index;
}
int R_TexturesGetParm( int parm, int arg ) {
const vk_texture_t *const tex = R_TextureGetByIndex( arg );
if (!URMOM_IS_OCCUPIED(tex->hdr_))
WARN("%s: accessing empty texture %d", __FUNCTION__, arg);
if (!tex->ref_interface_visible)
return 0;
switch(parm){
case PARM_TEX_WIDTH:
case PARM_TEX_SRC_WIDTH: // TODO why is this separate?
return tex->width;
case PARM_TEX_HEIGHT:
case PARM_TEX_SRC_HEIGHT:
return tex->height;
case PARM_TEX_FLAGS:
return tex->flags;
// TODO
case PARM_TEX_SKYBOX:
case PARM_TEX_SKYTEXNUM:
case PARM_TEX_LIGHTMAP:
case PARM_TEX_TARGET:
case PARM_TEX_TEXNUM:
case PARM_TEX_DEPTH:
case PARM_TEX_GLFORMAT:
case PARM_TEX_ENCODE:
case PARM_TEX_MIPCOUNT:
case PARM_TEX_MEMORY:
return 0;
default:
return 0;
}
}
void R_TextureAcquire( unsigned int texnum ) {
ASSERT(texnum > 0);
vk_texture_t *const tex = R_TextureGetByIndex(texnum);
ASSERT(URMOM_IS_OCCUPIED(tex->hdr_));
++tex->refcount;
DEBUG("Acquiring existing texture %s(%d) refcount=%d", TEX_NAME(tex), texnum, tex->refcount);
}
void R_TextureRelease( unsigned int texnum ) {
const qboolean ref_interface = false;
releaseTexture( texnum, ref_interface );
}
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