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Code Issues Releases Wiki Activity

#23 cache modules refactoring

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XProger
2017-03-07 04:18:52 +03:00
parent 139989107c
commit 4e5e5c7ed9
7 changed files with 735 additions and 684 deletions
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667
src/cache.h Normal file
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@@ -0,0 +1,667 @@
#ifndef H_CACHE
#define H_CACHE
#include "core.h"
#include "format.h"
#include "controller.h"
#include "camera.h"
#define FOG_DIST (18 * 1024)
#define WATER_FOG_DIST (8 * 1024)
//#define WATER_USE_GRID
const char SHADER[] =
#include "shader.glsl"
;
const char FILTER[] =
#include "filter.glsl"
;
const char WATER[] =
#include "water.glsl"
;
const char GUI[] =
#include "gui.glsl"
;
struct ShaderCache {
Shader *shaders[int(Core::passMAX) * Shader::MAX * 2];
ShaderCache(IGame *game) {
memset(shaders, 0, sizeof(shaders));
char def[255], ext[255];
ext[0] = 0;
if (Core::support.shadowSampler) {
#ifdef MOBILE
strcat(ext, "#extension GL_EXT_shadow_samplers : require\n");
#endif
strcat(ext, "#define SHADOW_SAMPLER\n");
} else
if (Core::support.depthTexture)
strcat(ext, "#define SHADOW_DEPTH\n");
else
strcat(ext, "#define SHADOW_COLOR\n");
{
const char *passNames[] = { "COMPOSE", "SHADOW", "AMBIENT" };
const char *typeNames[] = { "SPRITE", "FLASH", "ROOM", "ENTITY", "MIRROR" };
int animTexRangesCount = game->getMesh()->animTexRangesCount;
int animTexOffsetsCount = game->getMesh()->animTexOffsetsCount;
for (int pass = Core::passCompose; pass <= Core::passAmbient; pass++)
for (int caustics = 0; caustics < 2; caustics++)
for (int type = Shader::SPRITE; type <= Shader::MIRROR; type++) {
sprintf(def, "%s#define PASS_%s\n#define TYPE_%s\n#define MAX_LIGHTS %d\n#define MAX_RANGES %d\n#define MAX_OFFSETS %d\n#define FOG_DIST (1.0/%d.0)\n#define WATER_FOG_DIST (1.0/%d.0)\n", ext, passNames[pass], typeNames[type], MAX_LIGHTS, animTexRangesCount, animTexOffsetsCount, FOG_DIST, WATER_FOG_DIST);
if (caustics)
strcat(def, "#define CAUSTICS\n");
shaders[getIndex(Core::Pass(pass), Shader::Type(type), caustics == 1)] = new Shader(SHADER, def);
}
}
{
const char *typeNames[] = { "DROP", "STEP", "CAUSTICS", "MASK", "COMPOSE" };
for (int type = Shader::WATER_DROP; type <= Shader::WATER_COMPOSE; type++) {
sprintf(def, "%s#define WATER_%s\n#define WATER_FOG_DIST (1.0/%d.0)\n", ext, typeNames[type], WATER_FOG_DIST);
#ifdef WATER_USE_GRID
strcat(def, "#define WATER_USE_GRID %d\n");
#endif
shaders[getIndex(Core::passWater, Shader::Type(type), false)] = new Shader(WATER, def);
}
}
shaders[getIndex(Core::passFilter, Shader::FILTER_DOWNSAMPLE, false)] = new Shader(FILTER, "");
}
~ShaderCache() {
for (int i = 0; i < sizeof(shaders) / sizeof(shaders[0]); i++)
delete shaders[i];
}
int getIndex(Core::Pass pass, Shader::Type type, bool caustics) {
int index = int(pass) * Shader::MAX * 2 + type * 2 + int(caustics);
ASSERT(index < sizeof(shaders) / sizeof(shaders[0]));
return index;
}
void bind(Core::Pass pass, Shader::Type type, bool caustics = false) {
Core::pass = pass;
int index = getIndex(pass, type, caustics);
ASSERT(shaders[index] != NULL);
shaders[index]->bind();
}
};
struct AmbientCache {
IGame *game;
TR::Level *level;
struct Cube {
enum int32 {
BLANK, WAIT, READY
} status;
vec3 colors[6];
} *items;
int *offsets;
struct Task {
int room;
int sector;
Cube *cube;
} tasks[32];
int tasksCount;
Texture *textures[6 * 4]; // 64, 16, 4, 1
AmbientCache(IGame *game) : game(game), level(game->getLevel()), tasksCount(0) {
items = NULL;
offsets = new int[level->roomsCount];
int sectors = 0;
for (int i = 0; i < level->roomsCount; i++) {
TR::Room &r = level->rooms[i];
offsets[i] = sectors;
sectors += r.xSectors * r.zSectors;
}
// init cache buffer
items = new Cube[sectors];
memset(items, 0, sizeof(Cube) * sectors);
// init downsample textures
for (int j = 0; j < 6; j++)
for (int i = 0; i < 4; i++)
textures[j * 4 + i] = new Texture(64 >> (i << 1), 64 >> (i << 1), Texture::RGBA, false);
}
~AmbientCache() {
delete[] items;
delete[] offsets;
for (int i = 0; i < 6 * 4; i++)
delete textures[i];
}
void addTask(int room, int sector) {
if (tasksCount >= 32) return;
Task &task = tasks[tasksCount++];
task.room = room;
task.sector = sector;
task.cube = &items[offsets[room] + sector];
task.cube->status = Cube::WAIT;
}
void renderAmbient(int room, int sector, vec3 *colors) {
PROFILE_MARKER("PASS_AMBIENT");
TR::Room &r = level->rooms[room];
TR::Room::Sector &s = r.sectors[sector];
vec3 pos = vec3(float((sector / r.zSectors) * 1024 + 512 + r.info.x),
float(max((s.floor - 2) * 256, (s.floor + s.ceiling) * 256 / 2)),
float((sector % r.zSectors) * 1024 + 512 + r.info.z));
// first pass - render environment from position (room geometry & static meshes)
game->renderEnvironment(room, pos, textures, 4);
// second pass - downsample it
Core::setDepthTest(false);
game->setShader(Core::passFilter, Shader::FILTER_DOWNSAMPLE, false);
for (int i = 1; i < 4; i++) {
int size = 64 >> (i << 1);
Core::active.shader->setParam(uParam, vec4(float(size << 2), 0.0f, 0.0f, 0.0f));
for (int j = 0; j < 6; j++) {
Texture *src = textures[j * 4 + i - 1];
Texture *dst = textures[j * 4 + i];
Core::setTarget(dst, true);
src->bind(sDiffuse);
game->getMesh()->renderQuad();
}
}
// get result color from 1x1 textures
for (int j = 0; j < 6; j++) {
Core::setTarget(textures[j * 4 + 3]);
TR::Color32 color;
glReadPixels(0, 0, 1, 1, GL_RGBA, GL_UNSIGNED_BYTE, &color);
colors[j] = vec3(color.r / 255.0f, color.g / 255.0f, color.b / 255.0f);
colors[j] *= colors[j]; // to "linear" space
}
Core::setDepthTest(true);
}
void precessQueue() {
for (int i = 0; i < tasksCount; i++) {
Task &task = tasks[i];
renderAmbient(task.room, task.sector, &task.cube->colors[0]);
task.cube->status = Cube::READY;
}
tasksCount = 0;
}
Cube* getAmbient(int room, int sector) {
Cube *cube = &items[offsets[room] + sector];
if (cube->status == Cube::BLANK)
addTask(room, sector);
return cube->status == Cube::READY ? cube : NULL;
}
void getAmbient(int room, const vec3 &pos, Cube &value) {
TR::Room &r = level->rooms[room];
int sx = clamp((int(pos.x) - r.info.x) / 1024, 0, r.xSectors - 1);
int sz = clamp((int(pos.z) - r.info.z) / 1024, 0, r.zSectors - 1);
int sector = sx * r.zSectors + sz;
Cube *a = getAmbient(room, sector);
if (a)
value = *a;
else
value.status = Cube::BLANK;
}
};
struct WaterCache {
#define MAX_SURFACES 8
#define MAX_INVISIBLE_TIME 5.0f
#define SIMULATE_TIMESTEP (1.0f / 40.0f)
#define DETAIL (64.0f / 1024.0f)
#define MAX_DROPS 32
IGame *game;
TR::Level *level;
Texture *refract;
Texture *reflect;
vec3 color;
struct Item {
int from, to, caust;
float timer;
bool visible;
bool blank;
vec3 pos, size;
Texture *mask;
Texture *caustics;
Texture *data[2];
Item() {
mask = caustics = data[0] = data[1] = NULL;
}
Item(int from, int to) : from(from), to(to), caust(to), timer(SIMULATE_TIMESTEP), visible(true), blank(true) {
mask = caustics = data[0] = data[1] = NULL;
}
void init(IGame *game) {
TR::Level *level = game->getLevel();
TR::Room &r = level->rooms[to]; // underwater room
int minX = r.xSectors, minZ = r.zSectors, maxX = 0, maxZ = 0, posY;
for (int z = 0; z < r.zSectors; z++)
for (int x = 0; x < r.xSectors; x++) {
TR::Room::Sector &s = r.sectors[x * r.zSectors + z];
if (s.roomAbove != TR::NO_ROOM && !level->rooms[s.roomAbove].flags.water) {
minX = min(minX, x);
minZ = min(minZ, z);
maxX = max(maxX, x);
maxZ = max(maxZ, z);
posY = s.ceiling * 256;
if (s.roomBelow != TR::NO_ROOM)
caust = s.roomBelow;
}
}
maxX++;
maxZ++;
int w = nextPow2(maxX - minX);
int h = nextPow2(maxZ - minZ);
uint16 *m = new uint16[w * h];
memset(m, 0, w * h * sizeof(m[0]));
for (int z = minZ; z < maxZ; z++)
for (int x = minX; x < maxX; x++) {
TR::Room::Sector &s = r.sectors[x * r.zSectors + z];
bool hasWater = (s.roomAbove != TR::NO_ROOM && !level->rooms[s.roomAbove].flags.water);
bool hasFlow = false;
if (hasWater) {
TR::Level::FloorInfo info;
level->getFloorInfo(to, x + r.info.x, r.info.yBottom, z + r.info.z, info);
if (info.trigCmdCount && info.trigger == TR::Level::Trigger::ACTIVATE)
for (int i = 0; i < info.trigCmdCount; i++)
if (info.trigCmd[i].action == TR::Action::FLOW) {
hasFlow = true;
break;
}
}
m[(x - minX) + w * (z - minZ)] = hasWater ? (hasFlow ? 0xFFFF : 0xFF00) : 0;
}
mask = new Texture(w, h, Texture::RGB16, false, m, false);
delete[] m;
size = vec3(float((maxX - minX) * 512), 1.0f, float((maxZ - minZ) * 512)); // half size
pos = vec3(r.info.x + minX * 1024 + size.x, float(posY), r.info.z + minZ * 1024 + size.z);
data[0] = new Texture(w * 64, h * 64, Texture::RGBA_HALF, false);
data[1] = new Texture(data[0]->width, data[0]->height, Texture::RGBA_HALF, false);
caustics = new Texture(512, 512, Texture::RGB16, false);
blank = false;
Core::setTarget(data[0], true);
Core::invalidateTarget(false, true);
}
void free() {
delete data[0];
delete data[1];
delete caustics;
delete mask;
mask = caustics = data[0] = data[1] = NULL;
}
} items[MAX_SURFACES];
int count, visible;
bool checkVisibility;
int dropCount;
struct Drop {
vec3 pos;
float radius;
float strength;
Drop() {}
Drop(const vec3 &pos, float radius, float strength) : pos(pos), radius(radius), strength(strength) {}
} drops[MAX_DROPS];
WaterCache(IGame *game) : game(game), level(game->getLevel()), refract(NULL), color(0.6f, 0.9f, 0.9f), count(0), checkVisibility(false), dropCount(0) {
reflect = new Texture(512, 512, Texture::RGB16, false);
}
~WaterCache() {
delete refract;
delete reflect;
for (int i = 0; i < count; i++)
items[i].free();
}
void update() {
int i = 0;
while (i < count) {
Item &item = items[i];
if (item.timer > MAX_INVISIBLE_TIME) {
items[i].free();
items[i] = items[--count];
continue;
}
item.timer += Core::deltaTime;
i++;
}
}
void reset() {
for (int i = 0; i < count; i++)
items[i].visible = false;
visible = 0;
}
void setVisible(int roomIndex, int nextRoom = TR::NO_ROOM) {
if (!checkVisibility) return;
if (nextRoom == TR::NO_ROOM) { // setVisible(underwaterRoom) for caustics update
for (int i = 0; i < count; i++)
if (items[i].caust == roomIndex) {
nextRoom = items[i].from;
if (!items[i].visible) {
items[i].visible = true;
visible++;
}
break;
}
return;
}
int from, to; // from surface room to underwater room
if (level->rooms[roomIndex].flags.water) {
from = nextRoom;
to = roomIndex;
} else {
from = roomIndex;
to = nextRoom;
}
for (int i = 0; i < count; i++) {
Item &item = items[i];
if (item.from == from && item.to == to) {
if (!item.visible) {
visible++;
item.visible = true;
}
return;
}
}
if (count == MAX_SURFACES) return;
items[count++] = Item(from, to);
visible++;
}
void bindCaustics(int roomIndex) {
Item *item = NULL;
for (int i = 0; i < count; i++)
if (items[i].caust == roomIndex) {
item = &items[i];
break;
}
if (!item || !item->caustics) {
Core::blackTex->bind(sReflect);
Core::active.shader->setParam(uRoomSize, vec4(0.0f));
game->setWaterParams(-10000000.0f);
} else {
item->caustics->bind(sReflect);
Core::active.shader->setParam(uRoomSize, vec4(item->pos.x - item->size.x, item->pos.z - item->size.z, item->pos.x + item->size.x, item->pos.z + item->size.z));
game->setWaterParams(item->pos.y);
}
game->updateParams();
}
void addDrop(const vec3 &pos, float radius, float strength) {
if (dropCount >= MAX_DROPS) return;
drops[dropCount++] = Drop(pos, radius, strength);
}
void drop(Item &item) {
if (!dropCount) return;
game->setShader(Core::passWater, Shader::WATER_DROP, false);
Core::active.shader->setParam(uTexParam, vec4(1.0f / item.data[0]->width, 1.0f / item.data[0]->height, 1.0f, 1.0f));
vec3 rPosScale[2] = { vec3(0.0f), vec3(1.0f) };
Core::active.shader->setParam(uPosScale, rPosScale[0], 2);
for (int i = 0; i < dropCount; i++) {
Drop &drop = drops[i];
vec3 p;
p.x = (drop.pos.x - (item.pos.x - item.size.x)) * DETAIL;
p.z = (drop.pos.z - (item.pos.z - item.size.z)) * DETAIL;
Core::active.shader->setParam(uParam, vec4(p.x, p.z, drop.radius * DETAIL, drop.strength));
item.data[0]->bind(sDiffuse);
Core::setTarget(item.data[1], true);
Core::setViewport(0, 0, int(item.size.x * DETAIL * 2.0f + 0.5f), int(item.size.z * DETAIL * 2.0f + 0.5f));
game->getMesh()->renderQuad();
Core::invalidateTarget(false, true);
swap(item.data[0], item.data[1]);
}
}
void step(Item &item) {
if (item.timer < SIMULATE_TIMESTEP) return;
game->setShader(Core::passWater, Shader::WATER_STEP, false);
Core::active.shader->setParam(uTexParam, vec4(1.0f / item.data[0]->width, 1.0f / item.data[0]->height, 1.0f, 1.0f));
Core::active.shader->setParam(uParam, vec4(0.995f, 1.0f, 0, 0));
while (item.timer >= SIMULATE_TIMESTEP) {
// water step
item.data[0]->bind(sDiffuse);
Core::setTarget(item.data[1], 0, true);
Core::setViewport(0, 0, int(item.size.x * DETAIL * 2.0f + 0.5f), int(item.size.z * DETAIL * 2.0f + 0.5f));
game->getMesh()->renderQuad();
Core::invalidateTarget(false, true);
swap(item.data[0], item.data[1]);
item.timer -= SIMULATE_TIMESTEP;
}
// calc caustics
game->setShader(Core::passWater, Shader::WATER_CAUSTICS, false);
vec3 rPosScale[2] = { vec3(0.0f), vec3(1.0f / PLANE_DETAIL) };
Core::active.shader->setParam(uPosScale, rPosScale[0], 2);
float sx = item.size.x * DETAIL / (item.data[0]->width / 2);
float sz = item.size.z * DETAIL / (item.data[0]->height / 2);
Core::active.shader->setParam(uTexParam, vec4(1.0f, 1.0f, sx, sz));
Core::whiteTex->bind(sReflect);
item.data[0]->bind(sNormal);
Core::setTarget(item.caustics, true);
game->getMesh()->renderPlane();
Core::invalidateTarget(false, true);
}
void render() {
if (!visible) return;
// mask underwater geometry by zero alpha
game->setShader(Core::passWater, Shader::WATER_MASK, false);
Core::active.shader->setParam(uTexParam, vec4(1.0f));
Core::setCulling(cfNone);
Core::setDepthWrite(false);
Core::setColorWrite(false, false, false, true);
for (int i = 0; i < count; i++) {
Item &item = items[i];
if (!item.visible) continue;
Core::active.shader->setParam(uPosScale, item.pos, 2);
game->getMesh()->renderQuad();
}
Core::setColorWrite(true, true, true, true);
Core::setDepthWrite(true);
Core::setCulling(cfFront);
// get refraction texture
if (!refract || Core::width > refract->width || Core::height > refract->height) {
delete refract;
refract = new Texture(Core::width, Core::height, Texture::RGBA, false);
}
Core::copyTarget(refract, 0, 0, 0, 0, Core::width, Core::height); // copy framebuffer into refraction texture
for (int i = 0; i < count; i++) {
Item &item = items[i];
if (!item.visible) continue;
if (item.blank) {
item.init(game);
item.blank = false;
}
// render mirror reflection
Core::setTarget(reflect, true);
vec3 p = item.pos;
vec3 n = vec3(0, 1, 0);
vec4 reflectPlane = vec4(n.x, n.y, n.z, -n.dot(p));
Camera *camera = (Camera*)game->getCamera();
bool underwater = level->rooms[camera->getRoomIndex()].flags.water;
//bool underwater = level->camera->pos.y > item.pos.y;
camera->reflectPlane = &reflectPlane;
float sign = underwater ? -1.0f : 1.0f;
game->setClipParams(sign, item.pos.y * sign);
game->updateParams();
game->renderCompose(underwater ? item.from : item.to);
Core::invalidateTarget(false, true);
game->setClipParams(1.0f, 1000000.0f);
game->updateParams();
camera->reflectPlane = NULL;
camera->setup(true);
// simulate water
Core::setDepthTest(false);
item.mask->bind(sMask);
if (item.timer >= SIMULATE_TIMESTEP || dropCount) {
// add water drops
drop(item);
// simulation step
step(item);
}
Core::setTarget(NULL);
Core::setDepthTest(true);
// render water plane
if (level->rooms[item.from].lightsCount) {
TR::Room::Light &light = level->rooms[item.from].lights[0];
Core::lightPos[0] = vec3(float(light.x), float(light.y), float(light.z));
float lum = intensityf(light.intensity);
Core::lightColor[0] = vec4(lum, lum, lum, float(light.radius) * float(light.radius));
}
game->setShader(Core::passWater, Shader::WATER_COMPOSE, false);
Core::active.shader->setParam(uViewProj, Core::mViewProj);
Core::active.shader->setParam(uViewPos, Core::viewPos);
Core::active.shader->setParam(uLightPos, Core::lightPos[0], 1);
Core::active.shader->setParam(uLightColor, Core::lightColor[0], 1);
Core::active.shader->setParam(uParam, vec4(float(Core::width) / refract->width, float(Core::height) / refract->height, 0.05f, 0.02f));
Core::active.shader->setParam(uColor, vec4(color * 0.2f, 1.0f));
float sx = item.size.x * DETAIL / (item.data[0]->width / 2);
float sz = item.size.z * DETAIL / (item.data[0]->height / 2);
Core::active.shader->setParam(uTexParam, vec4(1.0f, 1.0f, sx, sz));
refract->bind(sDiffuse);
reflect->bind(sReflect);
item.data[0]->bind(sNormal);
Core::setCulling(cfNone);
#ifdef WATER_USE_GRID
vec3 rPosScale[2] = { item.pos, item.size * vec3(1.0f / PLANE_DETAIL, 512.0f, 1.0f / PLANE_DETAIL) };
Core::active.shader->setParam(uPosScale, rPosScale[0], 2);
level->mesh->renderPlane();
#else
Core::active.shader->setParam(uPosScale, item.pos, 2);
game->getMesh()->renderQuad();
#endif
Core::setCulling(cfFront);
}
dropCount = 0;
}
#undef MAX_WATER_SURFACES
#undef MAX_WATER_INVISIBLE_TIME
#undef WATER_SIMULATE_TIMESTEP
#undef DETAIL
};
/*
struct LightCache {
struct Item {
int room;
int index;
float intensity;
} items[MAX_CACHED_LIGHTS];
void updateLightCache(const TR::Level &level, const vec3 &pos, int room) {
// update intensity
for (int i = 0; i < MAX_CACHED_LIGHTS; i++) {
Item &item = items[i];
if (c.intensity < 0.0f) continue;
TR::Room::Light &light = level.rooms[c.room].lights[i];
c.intensity = max(0.0f, 1.0f - (pos - vec3(float(light.x), float(light.y), float(light.z))).length2() / ((float)light.radius * (float)light.radius));
}
// check for new lights
int index = getLightIndex(pos, room);
if (index >= 0 && (items[0].room != room || items[0].index != index)) [
TR::Room::Light &light = level.rooms[room].lights[index];
float intensity = max(0.0f, 1.0f - (lara->pos - vec3(float(light.x), float(light.y), float(light.z))).length2() / ((float)light.radius * (float)light.radius));
int i = 0;
while (i < MAX_CACHED_LIGHTS && lightCache[i].intensity > intensity) // get sorted place
i++;
if (i < MAX_CACHED_LIGHTS) { // insert light
for (int j = MAX_CACHED_LIGHTS - 1; j > i; j--)
lightCache[j] = lightCache[j - 1];
lightCache[i].room = room;
lightCache[i].index = index;
lightCache[i].intensity = intensity;
}
}
}
};
*/
#endif

9
src/controller.h
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@@ -13,11 +13,20 @@
#define MAX_LAYERS 4
struct Controller;
struct IGame {
virtual ~IGame() {}
virtual TR::Level* getLevel() { return NULL; }
virtual MeshBuilder* getMesh() { return NULL; }
virtual Controller* getCamera() { return NULL; }
virtual void setClipParams(float clipSign, float clipHeight) {}
virtual void setWaterParams(float height) {}
virtual void updateParams() {}
virtual void waterDrop(const vec3 &pos, float radius, float strength) {}
virtual void setShader(Core::Pass pass, Shader::Type type, bool caustics) {}
virtual void renderEnvironment(int roomIndex, const vec3 &pos, Texture **targets, int stride = 0) {}
virtual void renderCompose(int roomIndex) {}
};
struct Controller {

3
src/core.h
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@@ -295,9 +295,8 @@ namespace Core {
GetProcOGL(glBindVertexArray);
#endif
char *ext = (char*)glGetString(GL_EXTENSIONS);
LOG("%s\n", ext);
//LOG("%s\n", ext);
support.VAO = extSupport(ext, "_vertex_array_object");
support.depthTexture = extSupport(ext, "_depth_texture");
support.shadowSampler = extSupport(ext, "_shadow_samplers") || extSupport(ext, "GL_ARB_shadow");

2
src/format.h
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@@ -1580,7 +1580,7 @@ namespace TR {
info.trigger = Trigger::ACTIVATE;
info.trigCmdCount = 0;
if (uint8(s.floor) == TR::NO_ROOM)
if (s.floor == -127)
return;
Room::Sector *sBelow = &s;

731
src/level.h
View File

@@ -4,6 +4,7 @@
#include "core.h"
#include "utils.h"
#include "format.h"
#include "cache.h"
#include "lara.h"
#include "enemy.h"
#include "camera.h"
@@ -13,26 +14,6 @@
#include "debug.h"
#endif
const char SHADER[] =
#include "shader.glsl"
;
const char FILTER[] =
#include "filter.glsl"
;
const char WATER[] =
#include "water.glsl"
;
const char GUI[] =
#include "gui.glsl"
;
#define FOG_DIST (18 * 1024)
#define WATER_FOG_DIST (8 * 1024)
//#define WATER_USE_GRID
struct Level : IGame {
TR::Level level;
Texture *atlas;
@@ -43,8 +24,6 @@ struct Level : IGame {
Camera *camera;
Texture *shadow;
vec3 waterColor;
struct {
float time;
float waterHeight;
@@ -52,641 +31,36 @@ struct Level : IGame {
float clipHeight;
} params;
struct ShaderCache {
Shader *shaders[int(Core::passMAX) * Shader::MAX * 2];
ShaderCache(int animTexRangesCount, int animTexOffsetsCount) {
memset(shaders, 0, sizeof(shaders));
char def[255], ext[255];
ext[0] = 0;
if (Core::support.shadowSampler) {
#ifdef MOBILE
strcat(ext, "#extension GL_EXT_shadow_samplers : require\n");
#endif
strcat(ext, "#define SHADOW_SAMPLER\n");
} else
if (Core::support.depthTexture)
strcat(ext, "#define SHADOW_DEPTH\n");
else
strcat(ext, "#define SHADOW_COLOR\n");
{
const char *passNames[] = { "COMPOSE", "SHADOW", "AMBIENT" };
const char *typeNames[] = { "SPRITE", "FLASH", "ROOM", "ENTITY", "MIRROR" };
for (int pass = Core::passCompose; pass <= Core::passAmbient; pass++)
for (int caustics = 0; caustics < 2; caustics++)
for (int type = Shader::SPRITE; type <= Shader::MIRROR; type++) {
sprintf(def, "%s#define PASS_%s\n#define TYPE_%s\n#define MAX_LIGHTS %d\n#define MAX_RANGES %d\n#define MAX_OFFSETS %d\n#define FOG_DIST (1.0/%d.0)\n#define WATER_FOG_DIST (1.0/%d.0)\n", ext, passNames[pass], typeNames[type], MAX_LIGHTS, animTexRangesCount, animTexOffsetsCount, FOG_DIST, WATER_FOG_DIST);
if (caustics)
strcat(def, "#define CAUSTICS\n");
shaders[getIndex(Core::Pass(pass), Shader::Type(type), caustics == 1)] = new Shader(SHADER, def);
}
}
{
const char *typeNames[] = { "DROP", "STEP", "CAUSTICS", "MASK", "COMPOSE" };
for (int type = Shader::WATER_DROP; type <= Shader::WATER_COMPOSE; type++) {
sprintf(def, "%s#define WATER_%s\n#define WATER_FOG_DIST (1.0/%d.0)\n", ext, typeNames[type], WATER_FOG_DIST);
#ifdef WATER_USE_GRID
strcat(def, "#define WATER_USE_GRID %d\n");
#endif
shaders[getIndex(Core::passWater, Shader::Type(type), false)] = new Shader(WATER, def);
}
}
shaders[getIndex(Core::passFilter, Shader::FILTER_DOWNSAMPLE, false)] = new Shader(FILTER, "");
}
~ShaderCache() {
for (int i = 0; i < sizeof(shaders) / sizeof(shaders[0]); i++)
delete shaders[i];
}
int getIndex(Core::Pass pass, Shader::Type type, bool caustics) {
int index = int(pass) * Shader::MAX * 2 + type * 2 + int(caustics);
ASSERT(index < sizeof(shaders) / sizeof(shaders[0]));
return index;
}
void bind(Core::Pass pass, Shader::Type type, bool caustics = false) {
Core::pass = pass;
int index = getIndex(pass, type, caustics);
ASSERT(shaders[index] != NULL);
shaders[index]->bind();
}
} *shaderCache;
struct AmbientCache {
Level *level;
struct Cube {
enum int32 {
BLANK, WAIT, READY
} status;
vec3 colors[6];
} *items;
int *offsets;
struct Task {
int room;
int sector;
Cube *cube;
} tasks[32];
int tasksCount;
Texture *textures[6 * 4]; // 64, 16, 4, 1
AmbientCache(Level *level) : level(level), tasksCount(0) {
items = NULL;
offsets = new int[level->level.roomsCount];
int sectors = 0;
for (int i = 0; i < level->level.roomsCount; i++) {
TR::Room &r = level->level.rooms[i];
offsets[i] = sectors;
sectors += r.xSectors * r.zSectors;
}
// init cache buffer
items = new Cube[sectors];
memset(items, 0, sizeof(Cube) * sectors);
// init downsample textures
for (int j = 0; j < 6; j++)
for (int i = 0; i < 4; i++)
textures[j * 4 + i] = new Texture(64 >> (i << 1), 64 >> (i << 1), Texture::RGBA, false);
}
~AmbientCache() {
delete[] items;
delete[] offsets;
for (int i = 0; i < 6 * 4; i++)
delete textures[i];
}
void addTask(int room, int sector) {
if (tasksCount >= 32) return;
Task &task = tasks[tasksCount++];
task.room = room;
task.sector = sector;
task.cube = &items[offsets[room] + sector];
task.cube->status = Cube::WAIT;
}
void renderAmbient(int room, int sector, vec3 *colors) {
PROFILE_MARKER("PASS_AMBIENT");
TR::Room &r = level->level.rooms[room];
TR::Room::Sector &s = r.sectors[sector];
vec3 pos = vec3(float((sector / r.zSectors) * 1024 + 512 + r.info.x),
float(max((s.floor - 2) * 256, (s.floor + s.ceiling) * 256 / 2)),
float((sector % r.zSectors) * 1024 + 512 + r.info.z));
// first pass - render environment from position (room geometry & static meshes)
level->renderEnvironment(room, pos, textures, 4);
// second pass - downsample it
Core::setDepthTest(false);
level->shaderCache->bind(Core::passFilter, Shader::FILTER_DOWNSAMPLE, false);
for (int i = 1; i < 4; i++) {
int size = 64 >> (i << 1);
Core::active.shader->setParam(uParam, vec4(float(size << 2), 0.0f, 0.0f, 0.0f));
for (int j = 0; j < 6; j++) {
Texture *src = textures[j * 4 + i - 1];
Texture *dst = textures[j * 4 + i];
Core::setTarget(dst, true);
src->bind(sDiffuse);
level->mesh->renderQuad();
}
}
// get result color from 1x1 textures
for (int j = 0; j < 6; j++) {
Core::setTarget(textures[j * 4 + 3]);
TR::Color32 color;
glReadPixels(0, 0, 1, 1, GL_RGBA, GL_UNSIGNED_BYTE, &color);
colors[j] = vec3(color.r / 255.0f, color.g / 255.0f, color.b / 255.0f);
colors[j] *= colors[j]; // to "linear" space
}
Core::setDepthTest(true);
}
void precessQueue() {
for (int i = 0; i < tasksCount; i++) {
Task &task = tasks[i];
renderAmbient(task.room, task.sector, &task.cube->colors[0]);
task.cube->status = Cube::READY;
}
tasksCount = 0;
}
Cube* getAmbient(int room, int sector) {
Cube *cube = &items[offsets[room] + sector];
if (cube->status == Cube::BLANK)
addTask(room, sector);
return cube->status == Cube::READY ? cube : NULL;
}
void getAmbient(int room, const vec3 &pos, Cube &value) {
TR::Room &r = level->level.rooms[room];
int sx = clamp((int(pos.x) - r.info.x) / 1024, 0, r.xSectors - 1);
int sz = clamp((int(pos.z) - r.info.z) / 1024, 0, r.zSectors - 1);
int sector = sx * r.zSectors + sz;
Cube *a = getAmbient(room, sector);
if (a)
value = *a;
else
value.status = Cube::BLANK;
}
} *ambientCache;
struct WaterCache {
#define MAX_SURFACES 8
#define MAX_INVISIBLE_TIME 5.0f
#define SIMULATE_TIMESTEP (1.0f / 40.0f)
#define DETAIL (64.0f / 1024.0f)
#define MAX_DROPS 32
Level *level;
Texture *refract;
Texture *reflect;
struct Item {
int from, to, caust;
float timer;
bool visible;
bool blank;
vec3 pos, size;
Texture *mask;
Texture *caustics;
Texture *data[2];
Item() {
mask = caustics = data[0] = data[1] = NULL;
}
Item(int from, int to) : from(from), to(to), caust(to), timer(SIMULATE_TIMESTEP), visible(true), blank(true) {
mask = caustics = data[0] = data[1] = NULL;
}
void init(Level *level) {
TR::Room &r = level->level.rooms[to]; // underwater room
int minX = r.xSectors, minZ = r.zSectors, maxX = 0, maxZ = 0, posY;
for (int z = 0; z < r.zSectors; z++)
for (int x = 0; x < r.xSectors; x++) {
TR::Room::Sector &s = r.sectors[x * r.zSectors + z];
if (s.roomAbove != TR::NO_ROOM && !level->level.rooms[s.roomAbove].flags.water) {
minX = min(minX, x);
minZ = min(minZ, z);
maxX = max(maxX, x);
maxZ = max(maxZ, z);
posY = s.ceiling * 256;
if (s.roomBelow != TR::NO_ROOM)
caust = s.roomBelow;
}
}
maxX++;
maxZ++;
int w = nextPow2(maxX - minX);
int h = nextPow2(maxZ - minZ);
uint16 *m = new uint16[w * h];
memset(m, 0, w * h * sizeof(m[0]));
for (int z = minZ; z < maxZ; z++)
for (int x = minX; x < maxX; x++) {
TR::Room::Sector &s = r.sectors[x * r.zSectors + z];
bool hasWater = (s.roomAbove != TR::NO_ROOM && !level->level.rooms[s.roomAbove].flags.water);
bool hasFlow = false;
if (hasWater) {
TR::Level::FloorInfo info;
level->level.getFloorInfo(to, x + r.info.x, r.info.yBottom, z + r.info.z, info);
if (info.trigCmdCount && info.trigger == TR::Level::Trigger::ACTIVATE)
for (int i = 0; i < info.trigCmdCount; i++)
if (info.trigCmd[i].action == TR::Action::FLOW) {
hasFlow = true;
break;
}
}
m[(x - minX) + w * (z - minZ)] = hasWater ? (hasFlow ? 0xFFFF : 0xFF00) : 0;
}
mask = new Texture(w, h, Texture::RGB16, false, m, false);
delete[] m;
size = vec3(float((maxX - minX) * 512), 1.0f, float((maxZ - minZ) * 512)); // half size
pos = vec3(r.info.x + minX * 1024 + size.x, float(posY), r.info.z + minZ * 1024 + size.z);
data[0] = new Texture(w * 64, h * 64, Texture::RGBA_HALF, false);
data[1] = new Texture(data[0]->width, data[0]->height, Texture::RGBA_HALF, false);
caustics = new Texture(512, 512, Texture::RGB16, false);
blank = false;
Core::setTarget(data[0], true);
Core::invalidateTarget(false, true);
}
void free() {
delete data[0];
delete data[1];
delete caustics;
delete mask;
mask = caustics = data[0] = data[1] = NULL;
}
} items[MAX_SURFACES];
int count, visible;
bool checkVisibility;
int dropCount;
struct Drop {
vec3 pos;
float radius;
float strength;
Drop() {}
Drop(const vec3 &pos, float radius, float strength) : pos(pos), radius(radius), strength(strength) {}
} drops[MAX_DROPS];
WaterCache(Level *level) : level(level), refract(NULL), count(0), checkVisibility(false), dropCount(0) {
reflect = new Texture(512, 512, Texture::RGB16, false);
}
~WaterCache() {
delete refract;
delete reflect;
for (int i = 0; i < count; i++)
items[i].free();
}
void update() {
int i = 0;
while (i < count) {
Item &item = items[i];
if (item.timer > MAX_INVISIBLE_TIME) {
items[i].free();
items[i] = items[--count];
continue;
}
item.timer += Core::deltaTime;
i++;
}
}
void reset() {
for (int i = 0; i < count; i++)
items[i].visible = false;
visible = 0;
}
void setVisible(int roomIndex, int nextRoom = TR::NO_ROOM) {
if (!checkVisibility) return;
if (nextRoom == TR::NO_ROOM) { // setVisible(underwaterRoom) for caustics update
for (int i = 0; i < count; i++)
if (items[i].caust == roomIndex) {
nextRoom = items[i].from;
if (!items[i].visible) {
items[i].visible = true;
visible++;
}
break;
}
return;
}
int from, to; // from surface room to underwater room
if (level->level.rooms[roomIndex].flags.water) {
from = nextRoom;
to = roomIndex;
} else {
from = roomIndex;
to = nextRoom;
}
for (int i = 0; i < count; i++) {
Item &item = items[i];
if (item.from == from && item.to == to) {
if (!item.visible) {
visible++;
item.visible = true;
}
return;
}
}
if (count == MAX_SURFACES) return;
items[count++] = Item(from, to);
visible++;
}
void bindCaustics(int roomIndex) {
Item *item = NULL;
for (int i = 0; i < count; i++)
if (items[i].caust == roomIndex) {
item = &items[i];
break;
}
if (!item || !item->caustics) {
Core::blackTex->bind(sReflect);
Core::active.shader->setParam(uRoomSize, vec4(0.0f));
level->params.waterHeight = -10000000.0f;
} else {
item->caustics->bind(sReflect);
Core::active.shader->setParam(uRoomSize, vec4(item->pos.x - item->size.x, item->pos.z - item->size.z, item->pos.x + item->size.x, item->pos.z + item->size.z));
level->params.waterHeight = item->pos.y;
}
Core::active.shader->setParam(uParam, *((vec4*)&level->params));
}
void addDrop(const vec3 &pos, float radius, float strength) {
if (dropCount >= MAX_DROPS) return;
drops[dropCount++] = Drop(pos, radius, strength);
}
void drop(Item &item) {
if (!dropCount) return;
level->setShader(Core::passWater, Shader::WATER_DROP, false);
Core::active.shader->setParam(uTexParam, vec4(1.0f / item.data[0]->width, 1.0f / item.data[0]->height, 1.0f, 1.0f));
vec3 rPosScale[2] = { vec3(0.0f), vec3(1.0f) };
Core::active.shader->setParam(uPosScale, rPosScale[0], 2);
for (int i = 0; i < dropCount; i++) {
Drop &drop = drops[i];
vec3 p;
p.x = (drop.pos.x - (item.pos.x - item.size.x)) * DETAIL;
p.z = (drop.pos.z - (item.pos.z - item.size.z)) * DETAIL;
Core::active.shader->setParam(uParam, vec4(p.x, p.z, drop.radius * DETAIL, drop.strength));
item.data[0]->bind(sDiffuse);
Core::setTarget(item.data[1], true);
Core::setViewport(0, 0, int(item.size.x * DETAIL * 2.0f + 0.5f), int(item.size.z * DETAIL * 2.0f + 0.5f));
level->mesh->renderQuad();
Core::invalidateTarget(false, true);
swap(item.data[0], item.data[1]);
}
}
void step(Item &item) {
if (item.timer < SIMULATE_TIMESTEP) return;
level->setShader(Core::passWater, Shader::WATER_STEP, false);
Core::active.shader->setParam(uTexParam, vec4(1.0f / item.data[0]->width, 1.0f / item.data[0]->height, 1.0f, 1.0f));
Core::active.shader->setParam(uParam, vec4(0.995f, 1.0f, 0, 0));
while (item.timer >= SIMULATE_TIMESTEP) {
// water step
item.data[0]->bind(sDiffuse);
Core::setTarget(item.data[1], 0, true);
Core::setViewport(0, 0, int(item.size.x * DETAIL * 2.0f + 0.5f), int(item.size.z * DETAIL * 2.0f + 0.5f));
level->mesh->renderQuad();
Core::invalidateTarget(false, true);
swap(item.data[0], item.data[1]);
item.timer -= SIMULATE_TIMESTEP;
}
// calc caustics
level->setShader(Core::passWater, Shader::WATER_CAUSTICS, false);
vec3 rPosScale[2] = { vec3(0.0f), vec3(1.0f / PLANE_DETAIL) };
Core::active.shader->setParam(uPosScale, rPosScale[0], 2);
float sx = item.size.x * DETAIL / (item.data[0]->width / 2);
float sz = item.size.z * DETAIL / (item.data[0]->height / 2);
Core::active.shader->setParam(uTexParam, vec4(1.0f, 1.0f, sx, sz));
Core::whiteTex->bind(sReflect);
item.data[0]->bind(sNormal);
Core::setTarget(item.caustics, true);
level->mesh->renderPlane();
Core::invalidateTarget(false, true);
}
void render() {
if (!visible) return;
// mask underwater geometry by zero alpha
level->atlas->bind(sNormal);
level->atlas->bind(sReflect);
level->setShader(Core::passWater, Shader::WATER_MASK, false);
Core::active.shader->setParam(uTexParam, vec4(1.0f));
Core::setCulling(cfNone);
Core::setDepthWrite(false);
Core::setColorWrite(false, false, false, true);
for (int i = 0; i < count; i++) {
Item &item = items[i];
if (!item.visible) continue;
Core::active.shader->setParam(uPosScale, item.pos, 2);
level->mesh->renderQuad();
}
Core::setColorWrite(true, true, true, true);
Core::setDepthWrite(true);
Core::setCulling(cfFront);
// get refraction texture
if (!refract || Core::width > refract->width || Core::height > refract->height) {
delete refract;
refract = new Texture(Core::width, Core::height, Texture::RGB16, false);
}
Core::copyTarget(refract, 0, 0, 0, 0, Core::width, Core::height); // copy framebuffer into refraction texture
for (int i = 0; i < count; i++) {
Item &item = items[i];
if (!item.visible) continue;
if (item.blank) {
item.init(level);
item.blank = false;
}
// render mirror reflection
Core::setTarget(reflect, true);
vec3 p = item.pos;
vec3 n = vec3(0, 1, 0);
vec4 reflectPlane = vec4(n.x, n.y, n.z, -n.dot(p));
bool underwater = level->level.rooms[level->camera->getRoomIndex()].flags.water;
//bool underwater = level->camera->pos.y > item.pos.y;
level->camera->reflectPlane = &reflectPlane;
level->params.clipSign = underwater ? -1.0f : 1.0f;
level->params.clipHeight = item.pos.y * level->params.clipSign;
level->renderCompose(underwater ? item.from : item.to);
Core::invalidateTarget(false, true);
level->params.clipHeight = 1000000.0f;
level->params.clipSign = 1.0f;
level->camera->reflectPlane = NULL;
level->camera->setup(true);
// simulate water
Core::setDepthTest(false);
item.mask->bind(sMask);
if (item.timer >= SIMULATE_TIMESTEP || dropCount) {
// add water drops
drop(item);
// simulation step
step(item);
}
Core::setTarget(NULL);
Core::setDepthTest(true);
// render water plane
if (level->level.rooms[item.from].lightsCount) {
TR::Room::Light &light = level->level.rooms[item.from].lights[0];
Core::lightPos[0] = vec3(float(light.x), float(light.y), float(light.z));
float lum = intensityf(light.intensity);
Core::lightColor[0] = vec4(lum, lum, lum, float(light.radius) * float(light.radius));
}
level->setShader(Core::passWater, Shader::WATER_COMPOSE, false);
Core::active.shader->setParam(uViewProj, Core::mViewProj);
Core::active.shader->setParam(uViewPos, Core::viewPos);
Core::active.shader->setParam(uLightPos, Core::lightPos[0], 1);
Core::active.shader->setParam(uLightColor, Core::lightColor[0], 1);
Core::active.shader->setParam(uParam, vec4(float(Core::width) / refract->width, float(Core::height) / refract->height, 0.05f, 0.02f));
Core::active.shader->setParam(uColor, vec4(level->waterColor * 0.2f, 1.0f));
float sx = item.size.x * DETAIL / (item.data[0]->width / 2);
float sz = item.size.z * DETAIL / (item.data[0]->height / 2);
Core::active.shader->setParam(uTexParam, vec4(1.0f, 1.0f, sx, sz));
refract->bind(sDiffuse);
reflect->bind(sReflect);
item.data[0]->bind(sNormal);
Core::setCulling(cfNone);
#ifdef WATER_USE_GRID
vec3 rPosScale[2] = { item.pos, item.size * vec3(1.0f / PLANE_DETAIL, 512.0f, 1.0f / PLANE_DETAIL) };
Core::active.shader->setParam(uPosScale, rPosScale[0], 2);
level->mesh->renderPlane();
#else
Core::active.shader->setParam(uPosScale, item.pos, 2);
level->mesh->renderQuad();
#endif
Core::setCulling(cfFront);
}
dropCount = 0;
}
#undef MAX_WATER_SURFACES
#undef MAX_WATER_INVISIBLE_TIME
#undef WATER_SIMULATE_TIMESTEP
#undef DETAIL
} *waterCache;
/*
struct LightCache {
struct Item {
int room;
int index;
float intensity;
} items[MAX_CACHED_LIGHTS];
void updateLightCache(const TR::Level &level, const vec3 &pos, int room) {
// update intensity
for (int i = 0; i < MAX_CACHED_LIGHTS; i++) {
Item &item = items[i];
if (c.intensity < 0.0f) continue;
TR::Room::Light &light = level.rooms[c.room].lights[i];
c.intensity = max(0.0f, 1.0f - (pos - vec3(float(light.x), float(light.y), float(light.z))).length2() / ((float)light.radius * (float)light.radius));
}
// check for new lights
int index = getLightIndex(pos, room);
if (index >= 0 && (items[0].room != room || items[0].index != index)) [
TR::Room::Light &light = level.rooms[room].lights[index];
float intensity = max(0.0f, 1.0f - (lara->pos - vec3(float(light.x), float(light.y), float(light.z))).length2() / ((float)light.radius * (float)light.radius));
int i = 0;
while (i < MAX_CACHED_LIGHTS && lightCache[i].intensity > intensity) // get sorted place
i++;
if (i < MAX_CACHED_LIGHTS) { // insert light
for (int j = MAX_CACHED_LIGHTS - 1; j > i; j--)
lightCache[j] = lightCache[j - 1];
lightCache[i].room = room;
lightCache[i].index = index;
lightCache[i].intensity = intensity;
}
}
}
} lightCache;
*/
ShaderCache *shaderCache;
AmbientCache *ambientCache;
WaterCache *waterCache;
// IGame implementation ========
virtual TR::Level* getLevel() {
return &level;
}
virtual MeshBuilder* getMesh() {
return mesh;
}
virtual Controller* getCamera() {
return camera;
}
virtual void setClipParams(float clipSign, float clipHeight) {
params.clipSign = clipSign;
params.clipHeight = clipHeight;
}
virtual void setWaterParams(float height) {
params.waterHeight = height;
}
virtual void updateParams() {
Core::active.shader->setParam(uParam, *((vec4*)&params));
}
virtual void waterDrop(const vec3 &pos, float radius, float strength) {
waterCache->addDrop(pos, radius, strength);
}
@@ -695,7 +69,31 @@ struct Level : IGame {
shaderCache->bind(pass, type, caustics);
}
Level(Stream &stream, bool demo, bool home) : level(stream, demo), lara(NULL), waterColor(0.6f, 0.9f, 0.9f) {
virtual void renderEnvironment(int roomIndex, const vec3 &pos, Texture **targets, int stride = 0) {
PROFILE_MARKER("ENVIRONMENT");
// first pass render level into cube faces
for (int i = 0; i < 6; i++) {
setupCubeCamera(pos, i);
Core::pass = Core::passAmbient;
Texture *target = targets[0]->cube ? targets[0] : targets[i * stride];
Core::setTarget(target, true, i);
renderScene(roomIndex);
Core::invalidateTarget(false, true);
}
}
virtual void renderCompose(int roomIndex) {
PROFILE_MARKER("PASS_COMPOSE");
Core::pass = Core::passCompose;
Core::setDepthTest(true);
Core::setDepthWrite(true);
shadow->bind(sShadow);
renderScene(roomIndex);
}
//==============================
Level(Stream &stream, bool demo, bool home) : level(stream, demo), lara(NULL) {
params.time = 0.0f;
#ifdef _DEBUG
@@ -704,7 +102,7 @@ struct Level : IGame {
mesh = new MeshBuilder(level);
initTextures();
shaderCache = new ShaderCache(mesh->animTexRangesCount, mesh->animTexOffsetsCount);
shaderCache = new ShaderCache(this);
initOverrides();
for (int i = 0; i < level.entitiesBaseCount; i++) {
@@ -1004,7 +402,7 @@ struct Level : IGame {
setShader(Core::pass, type, room.flags.water);
if (room.flags.water) {
Core::color = vec4(waterColor, intensity);
Core::color = vec4(waterCache->color, intensity);
/*
// trace to water surface room
int wrIndex = roomIndex;
@@ -1311,19 +709,6 @@ struct Level : IGame {
return true;
}
void renderEnvironment(int roomIndex, const vec3 &pos, Texture **targets, int stride = 0) {
PROFILE_MARKER("ENVIRONMENT");
// first pass render level into cube faces
for (int i = 0; i < 6; i++) {
setupCubeCamera(pos, i);
Core::pass = Core::passAmbient;
Texture *target = targets[0]->cube ? targets[0] : targets[i * stride];
Core::setTarget(target, true, i);
renderScene(roomIndex);
Core::invalidateTarget(false, true);
}
}
void renderShadows(int roomIndex) {
PROFILE_MARKER("PASS_SHADOW");
Core::pass = Core::passShadow;
@@ -1341,16 +726,6 @@ struct Level : IGame {
glClearColor(0.0f, 0.0f, 0.0f, 0.0f);
}
void renderCompose(int roomIndex) {
PROFILE_MARKER("PASS_COMPOSE");
Core::pass = Core::passCompose;
Core::setDepthTest(true);
Core::setDepthWrite(true);
shadow->bind(sShadow);
renderScene(roomIndex);
}
void render() {
Core::invalidateTarget(true, true);
params.clipHeight = 1000000.0f;

1
src/platform/win/OpenLara.vcxproj
View File

@@ -188,6 +188,7 @@
</ItemGroup>
<ItemGroup>
<ClInclude Include="..\..\animation.h" />
<ClInclude Include="..\..\cache.h" />
<ClInclude Include="..\..\camera.h" />
<ClInclude Include="..\..\character.h" />
<ClInclude Include="..\..\collision.h" />

4
src/water.glsl
View File

@@ -62,8 +62,8 @@ uniform sampler2D sNormal;
vec3 refOld = refract(-light, vec3(0.0, 0.0, 1.0), 0.75);
vec3 refNew = refract(-light, normal, 0.75);
vOldPos = vec4(rCoord + refOld * (-0.25 / refOld.z) + refOld * ((-refOld.z - 1.0) / refOld.z), 1.0);
vNewPos = vec4(rCoord + refNew * ((info.r - 0.25) / refNew.z) + refOld * ((-refNew.z - 1.0) / refOld.z), 1.0);
vOldPos = vec4(rCoord + refOld * (-1.0 / refOld.z) + refOld * ((-refOld.z - 1.0) / refOld.z), 1.0);
vNewPos = vec4(rCoord + refNew * ((info.r - 1.0) / refNew.z) + refOld * ((-refNew.z - 1.0) / refOld.z), 1.0);
gl_Position = vec4(vNewPos.xy + refOld.xy / refOld.z, 0.0, 1.0);
#else