inline std::string getOpenGLExtensions()
{
std::string ext;
if (Has_GL_Version_3_0||Has_GL_Version_4_0)
{
int count = 0;
glGetIntegerv(GL_NUM_EXTENSIONS, &count);
for( int i=0; i<count; ++i )
{
ext += std::string((char*)glGetStringi(GL_EXTENSIONS, i)) + " ";
VL_CHECK_OGL();
}
}
else
{
VL_CHECK(glGetString(GL_EXTENSIONS));
ext = (const char*)glGetString(GL_EXTENSIONS);
// make sure also the last extension ends with a space
ext.push_back(' ');
}
return ext;
}
void setUniform4ui(int count, const unsigned int* value) { initData(count*4); memcpy(&mData[0], value, sizeof(mData[0]) * mData.size()); mType = UT_UInt4; VL_CHECK(GLEW_EXT_gpu_shader4||GLEW_VERSION_3_0||GLEW_VERSION_4_0); }
void setUniform3i(int count, const int* value) { initData(count*3); memcpy(&mData[0], value, sizeof(mData[0]) * mData.size()); mType = UT_Int3; VL_CHECK(GLEW_Has_Shading_Language_20); }
Vector2<T_Scalar>& operator[](unsigned int i) { VL_CHECK(i<2); return mVec[i]; }
/** Utility function, same as \p 'lod(lodi) = new ShaderPasses(shader1,shader2,shader3,shader4);' */
void setLOD(int lodi, Shader* shader1, Shader* shader2=NULL, Shader* shader3=NULL, Shader* shader4=NULL)
{
VL_CHECK(lodi<VL_MAX_EFFECT_LOD)
lod(lodi) = new ShaderPasses(shader1,shader2,shader3,shader4);
}
virtual void initEvent()
{
if ( !vl::canLoad("png") || !vl::canLoad("jpg") || !vl::canLoad("tga") || !vl::canLoad("tif") )
{
vl::Log::error("App_ImageFunctions test requires the following modules: VL_IO_2D_JPG, VL_IO_2D_PNG, VL_IO_2D_TIFF and VL_IO_2D_TGA.\n");
vl::Time::sleep(2000);
exit(1);
}
vl::Log::notify(appletInfo());
bool use_mipmaps = true;
vl::ref<vl::Image> img1 = vl::loadImage("/images/holebox.tif");
// make sure it's in the right format
img1 = img1->convertFormat(vl::IF_RGBA)->convertType(vl::IT_UNSIGNED_BYTE);
vl::ref<vl::Image> img2;
// check load/save routines
vl::ref<vl::Image> img_a;
vl::ref<vl::Image> img_b;
vl::ref<vl::Image> img_c;
vl::ref<vl::Image> img_d;
vl::LoadWriterJPG* jpg_load_writer = vl::defLoadWriterManager()->loadWriter<vl::LoadWriterJPG>();
if (jpg_load_writer)
{
jpg_load_writer->setQuality(90);
vl::saveImage(img1.get(), "img_a.jpg");
img_a = vl::loadImage("img_a.jpg");
}
vl::LoadWriterPNG* png_load_writer = vl::defLoadWriterManager()->loadWriter<vl::LoadWriterPNG>();
if (png_load_writer)
{
png_load_writer->setCompression(9);
vl::saveImage(img1.get(), "img_b.png");
img_b = vl::loadImage("img_b.png");
}
vl::saveImage(img1.get(), "img_c.tga");
img_c = vl::loadImage("img_c.tga");
vl::saveImage(img1.get(), "img_d.tif");
img_d = vl::loadImage("img_d.tif");
VL_CHECK(img_a)
VL_CHECK(img_b)
VL_CHECK(img_c)
VL_CHECK(img_d)
// test image nearest sampling IF_RGBA/IT_UNSIGNED_BYTE
vl::ref<vl::Image> img_x = new vl::Image;
// copy image
*img_x = *img1;
// set it to black
memset(img_x->pixels(), 0, img_x->requiredMemory());
for(int x=0; x<img_x->width(); ++x)
{
for(int y=0; y<img_x->height(); ++y)
{
vl::fvec4 color = img1->sample(x,y);
unsigned char* pixel = img_x->pixels() + img_x->pitch()*y + x*4;
pixel[0] = (unsigned char)(color.r() * 255.0);
pixel[1] = (unsigned char)(color.g() * 255.0);
pixel[2] = (unsigned char)(color.b() * 255.0);
pixel[3] = (unsigned char)(color.a() * 255.0);
}
}
// test image linear sampling IF_RGBA/IT_UNSIGNED_BYTE
vl::ref<vl::Image> img_y = new vl::Image;
// copy image
*img_y = *img1;
// set it to black
memset(img_y->pixels(), 0, img_y->requiredMemory());
for(int x=0; x<img_y->width(); ++x)
{
for(int y=0; y<img_y->height(); ++y)
{
vl::fvec4 color = img1->sampleLinear((float)x,(float)y);
unsigned char* pixel = img_y->pixels() + img_y->pitch()*y + x*4;
pixel[0] = (unsigned char)(color.r() * 255.0);
pixel[1] = (unsigned char)(color.g() * 255.0);
pixel[2] = (unsigned char)(color.b() * 255.0);
pixel[3] = (unsigned char)(color.a() * 255.0);
}
}
// check image type conversion
#if 1
img2 = img1
->convertType(vl::IT_FLOAT)
->convertType(vl::IT_SHORT)
->convertType(vl::IT_INT)
->convertType(vl::IT_BYTE)
->convertType(vl::IT_UNSIGNED_BYTE)
->convertType(vl::IT_UNSIGNED_SHORT)
->convertType(vl::IT_UNSIGNED_INT)
;
#endif
// check image format conversion
#if 1
img2 = img1
->convertFormat(vl::IF_LUMINANCE_ALPHA)
->convertFormat(vl::IF_BGRA)
->convertFormat(vl::IF_RGBA)
->convertFormat(vl::IF_LUMINANCE_ALPHA)
;
#endif
// test image nearest sampling IF_LUMINANCE_ALPHA/IT_UNSIGNED_INT
vl::ref<vl::Image> img_z = new vl::Image;
// copy image
*img_z = *img2;
// set it to black
memset(img_z->pixels(), 0, img_z->requiredMemory());
for(int x=0; x<img_z->width(); ++x)
{
for(int y=0; y<img_z->height(); ++y)
{
vl::fvec4 color = img2->sample(x,y);
unsigned char* pixel = img_z->pixels() + img_z->pitch()*y + x*2;
pixel[0] = (unsigned char)(color.r() * 255.0);
pixel[1] = (unsigned char)(color.a() * 255.0);
}
}
// test image linear sampling IF_LUMINANCE_ALPHA/IT_UNSIGNED_INT
vl::ref<vl::Image> img_w = new vl::Image;
// copy image
*img_w = *img2;
// set it to black
memset(img_w->pixels(), 0, img_w->requiredMemory());
for(int x=0; x<img_w->width(); ++x)
{
for(int y=0; y<img_w->height(); ++y)
{
vl::fvec4 color = img2->sampleLinear((float)x,(float)y);
unsigned char* pixel = img_w->pixels() + img_w->pitch()*y + x*2;
pixel[0] = (unsigned char)(color.r() * 255.0);
pixel[1] = (unsigned char)(color.a() * 255.0);
}
}
vl::ref<vl::Geometry> quad = vl::makeGrid( vl::vec3(0,0,0), 10, 10, 2, 2, true, vl::fvec2(0,0), vl::fvec2(1,1) );
quad->transform( vl::mat4::getRotation(-90, 1,0,0), false );
// (1)
// transform
vl::ref<vl::Transform> tr_1 = new vl::Transform;
rendering()->as<vl::Rendering>()->transform()->addChild(tr_1.get());
tr_1->setLocalMatrix(vl::mat4::getTranslation(-5,0,0));
// effect
vl::ref<vl::Effect> fx_1 = new vl::Effect;
fx_1->shader()->enable(vl::EN_BLEND);
// setup texture
vl::ref<vl::Texture> texture_1 = new vl::Texture( img1.get(), vl::TF_RGBA, use_mipmaps, false );
fx_1->shader()->gocTextureSampler(0)->setTexture( texture_1.get() );
fx_1->shader()->gocTextureSampler(0)->texture()->getTexParameter()->setMagFilter(vl::TPF_LINEAR);
fx_1->shader()->gocTextureSampler(0)->texture()->getTexParameter()->setMinFilter(vl::TPF_LINEAR_MIPMAP_LINEAR);
// add actor
sceneManager()->tree()->addActor( quad.get(), fx_1.get(), tr_1.get() );
// (2)
// transform
vl::ref<vl::Transform> tr_2 = new vl::Transform;
rendering()->as<vl::Rendering>()->transform()->addChild(tr_2.get());
tr_2->setLocalMatrix(vl::mat4::getTranslation(+5,0,0));
// effect
vl::ref<vl::Effect> fx_2 = new vl::Effect;
fx_2->shader()->enable(vl::EN_BLEND);
// setup texture
vl::ref<vl::Texture> texture_2 = new vl::Texture( img2.get(), vl::TF_RGBA, use_mipmaps, false );
fx_2->shader()->gocTextureSampler(0)->setTexture( texture_2.get() );
fx_2->shader()->gocTextureSampler(0)->texture()->getTexParameter()->setMagFilter(vl::TPF_LINEAR);
fx_2->shader()->gocTextureSampler(0)->texture()->getTexParameter()->setMinFilter(vl::TPF_LINEAR_MIPMAP_LINEAR);
// add actor
sceneManager()->tree()->addActor( quad.get(), fx_2.get(), tr_2.get() );
// (x)
// transform
vl::ref<vl::Transform> tr_x = new vl::Transform;
rendering()->as<vl::Rendering>()->transform()->addChild(tr_x.get());
tr_x->setLocalMatrix(vl::mat4::getTranslation(-2.5-5,+7.5,0) * vl::mat4::getScaling(0.5f,0.5f,1.0f));
// effect
vl::ref<vl::Effect> fx_x = new vl::Effect;
fx_x->shader()->enable(vl::EN_BLEND);
// setup texture
vl::ref<vl::Texture> texture_x = new vl::Texture( img_x.get(), vl::TF_RGBA, use_mipmaps, false );
fx_x->shader()->gocTextureSampler(0)->setTexture( texture_x.get() );
fx_x->shader()->gocTextureSampler(0)->texture()->getTexParameter()->setMagFilter(vl::TPF_LINEAR);
fx_x->shader()->gocTextureSampler(0)->texture()->getTexParameter()->setMinFilter(vl::TPF_LINEAR_MIPMAP_LINEAR);
// add actor
sceneManager()->tree()->addActor( quad.get(), fx_x.get(), tr_x.get() );
// (y)
// transform
vl::ref<vl::Transform> tr_y = new vl::Transform;
rendering()->as<vl::Rendering>()->transform()->addChild(tr_y.get());
tr_y->setLocalMatrix(vl::mat4::getTranslation(-2.5,+7.5,0) * vl::mat4::getScaling(0.5f,0.5f,1.0f));
// effect
vl::ref<vl::Effect> fx_y = new vl::Effect;
fx_y->shader()->enable(vl::EN_BLEND);
// setup texture
vl::ref<vl::Texture> texture_y = new vl::Texture( img_y.get(), vl::TF_RGBA, use_mipmaps, false );
fx_y->shader()->gocTextureSampler(0)->setTexture( texture_y.get() );
fx_y->shader()->gocTextureSampler(0)->texture()->getTexParameter()->setMagFilter(vl::TPF_LINEAR);
fx_y->shader()->gocTextureSampler(0)->texture()->getTexParameter()->setMinFilter(vl::TPF_LINEAR_MIPMAP_LINEAR);
// add actor
sceneManager()->tree()->addActor( quad.get(), fx_y.get(), tr_y.get() );
// (z)
// transform
vl::ref<vl::Transform> tr_z = new vl::Transform;
rendering()->as<vl::Rendering>()->transform()->addChild(tr_z.get());
tr_z->setLocalMatrix(vl::mat4::getTranslation(+2.5,+7.5,0) * vl::mat4::getScaling(0.5f,0.5f,1.0f));
// effect
vl::ref<vl::Effect> fx_z = new vl::Effect;
fx_z->shader()->enable(vl::EN_BLEND);
// setup texture
vl::ref<vl::Texture> texture_z = new vl::Texture( img_z.get(), vl::TF_RGBA, use_mipmaps, false );
fx_z->shader()->gocTextureSampler(0)->setTexture( texture_z.get() );
fx_z->shader()->gocTextureSampler(0)->texture()->getTexParameter()->setMagFilter(vl::TPF_LINEAR);
fx_z->shader()->gocTextureSampler(0)->texture()->getTexParameter()->setMinFilter(vl::TPF_LINEAR_MIPMAP_LINEAR);
// add actor
sceneManager()->tree()->addActor( quad.get(), fx_z.get(), tr_z.get() );
// (w)
// transform
vl::ref<vl::Transform> tr_w = new vl::Transform;
rendering()->as<vl::Rendering>()->transform()->addChild(tr_w.get());
tr_w->setLocalMatrix(vl::mat4::getTranslation(+2.5+5.0,+7.5,0) * vl::mat4::getScaling(0.5f,0.5f,1.0f));
// effect
vl::ref<vl::Effect> fx_w = new vl::Effect;
fx_w->shader()->enable(vl::EN_BLEND);
// setup texture
vl::ref<vl::Texture> texture_w = new vl::Texture( img_w.get(), vl::TF_RGBA, use_mipmaps, false );
fx_w->shader()->gocTextureSampler(0)->setTexture( texture_w.get() );
fx_w->shader()->gocTextureSampler(0)->texture()->getTexParameter()->setMagFilter(vl::TPF_LINEAR);
fx_w->shader()->gocTextureSampler(0)->texture()->getTexParameter()->setMinFilter(vl::TPF_LINEAR_MIPMAP_LINEAR);
// add actor
sceneManager()->tree()->addActor( quad.get(), fx_w.get(), tr_w.get() );
// (a)
// transform
vl::ref<vl::Transform> tr_a = new vl::Transform;
rendering()->as<vl::Rendering>()->transform()->addChild(tr_a.get());
tr_a->setLocalMatrix(vl::mat4::getTranslation(-2.5-5,-7.5,0) * vl::mat4::getScaling(0.5f,0.5f,1.0f));
// effect
vl::ref<vl::Effect> fx_a = new vl::Effect;
fx_a->shader()->enable(vl::EN_BLEND);
// setup texture
vl::ref<vl::Texture> texture_a = new vl::Texture( img_a.get(), vl::TF_RGBA, use_mipmaps, false );
fx_a->shader()->gocTextureSampler(0)->setTexture( texture_a.get() );
fx_a->shader()->gocTextureSampler(0)->texture()->getTexParameter()->setMagFilter(vl::TPF_LINEAR);
fx_a->shader()->gocTextureSampler(0)->texture()->getTexParameter()->setMinFilter(vl::TPF_LINEAR_MIPMAP_LINEAR);
// add actor
sceneManager()->tree()->addActor( quad.get(), fx_a.get(), tr_a.get() );
// (b)
// transform
vl::ref<vl::Transform> tr_b = new vl::Transform;
rendering()->as<vl::Rendering>()->transform()->addChild(tr_b.get());
tr_b->setLocalMatrix(vl::mat4::getTranslation(-2.5,-7.5,0) * vl::mat4::getScaling(0.5f,0.5f,1.0f));
// effect
vl::ref<vl::Effect> fx_b = new vl::Effect;
fx_b->shader()->enable(vl::EN_BLEND);
// setup texture
vl::ref<vl::Texture> texture_b = new vl::Texture( img_b.get(), vl::TF_RGBA, use_mipmaps, false );
fx_b->shader()->gocTextureSampler(0)->setTexture( texture_b.get() );
fx_b->shader()->gocTextureSampler(0)->texture()->getTexParameter()->setMagFilter(vl::TPF_LINEAR);
fx_b->shader()->gocTextureSampler(0)->texture()->getTexParameter()->setMinFilter(vl::TPF_LINEAR_MIPMAP_LINEAR);
// add actor
sceneManager()->tree()->addActor( quad.get(), fx_b.get(), tr_b.get() );
// (c)
// transform
vl::ref<vl::Transform> tr_c = new vl::Transform;
rendering()->as<vl::Rendering>()->transform()->addChild(tr_c.get());
tr_c->setLocalMatrix(vl::mat4::getTranslation(+2.5,-7.5,0) * vl::mat4::getScaling(0.5f,0.5f,1.0f));
// effect
vl::ref<vl::Effect> fx_c = new vl::Effect;
fx_c->shader()->enable(vl::EN_BLEND);
// setup texture
vl::ref<vl::Texture> texture_c = new vl::Texture( img_c.get(), vl::TF_RGBA, use_mipmaps, false );
fx_c->shader()->gocTextureSampler(0)->setTexture( texture_c.get() );
fx_c->shader()->gocTextureSampler(0)->texture()->getTexParameter()->setMagFilter(vl::TPF_LINEAR);
fx_c->shader()->gocTextureSampler(0)->texture()->getTexParameter()->setMinFilter(vl::TPF_LINEAR_MIPMAP_LINEAR);
// add actor
sceneManager()->tree()->addActor( quad.get(), fx_c.get(), tr_c.get() );
// (d)
// transform
vl::ref<vl::Transform> tr_d = new vl::Transform;
rendering()->as<vl::Rendering>()->transform()->addChild(tr_d.get());
tr_d->setLocalMatrix(vl::mat4::getTranslation(+2.5+5,-7.5,0) * vl::mat4::getScaling(0.5f,0.5f,1.0f));
// effect
vl::ref<vl::Effect> fx_d = new vl::Effect;
fx_d->shader()->enable(vl::EN_BLEND);
// setup texture
vl::ref<vl::Texture> texture_d = new vl::Texture( img_d.get(), vl::TF_RGBA, use_mipmaps, false );
fx_d->shader()->gocTextureSampler(0)->setTexture( texture_d.get() );
fx_d->shader()->gocTextureSampler(0)->texture()->getTexParameter()->setMagFilter(vl::TPF_LINEAR);
fx_d->shader()->gocTextureSampler(0)->texture()->getTexParameter()->setMinFilter(vl::TPF_LINEAR_MIPMAP_LINEAR);
// add actor
sceneManager()->tree()->addActor( quad.get(), fx_d.get(), tr_d.get() );
}
T* operator->() { VL_CHECK(mObject); return mObject; }
const T* operator->() const { VL_CHECK(mObject); return mObject; }
void initEvent()
{
if (!vl::Has_GLSL)
{
vl::Log::error("OpenGL Shading Language not supported.\n");
vl::Time::sleep(2000);
exit(1);
}
vl::Log::notify(appletInfo());
mTransform = new vl::Transform;
// generate torus, with normals and uv coords
vl::ref<vl::Geometry> model = vl::makeTorus( vl::vec3(0,0,0), 10, 2, TORUS_SEGS, TORUS_SEGS, 2.0f );
model->transform( vl::mat4::getRotation( 45.0f, 1.0f, 1.0f, 0.0f ) );
// setup effect
vl::ref<vl::Effect> effect = new vl::Effect;
effect->shader()->setRenderState( new vl::Light, 0 );
effect->shader()->enable(vl::EN_LIGHTING);
effect->shader()->enable(vl::EN_DEPTH_TEST);
effect->shader()->enable(vl::EN_CULL_FACE);
mTorus = sceneManager()->tree()->addActor( model.get(), effect.get(), mTransform.get() );
// setup texture
vl::ref<vl::Texture> texture0 = new vl::Texture;
texture0->prepareTexture2D("images/normalmap.jpg", vl::TF_RGBA);
effect->shader()->gocTextureSampler(0)->setTexture(texture0.get());
texture0->getTexParameter()->setAnisotropy(16.0);
texture0->getTexParameter()->setMagFilter(vl::TPF_LINEAR);
texture0->getTexParameter()->setMinFilter(vl::TPF_LINEAR_MIPMAP_LINEAR);
// setup GLSL shader
mGLSL = effect->shader()->gocGLSLProgram();
mGLSL->attachShader( new vl::GLSLVertexShader("/glsl/bumpmap.vs") );
mGLSL->attachShader( new vl::GLSLFragmentShader("/glsl/bumpmap.fs") );
// samper0
vl::ref<vl::Uniform> sampler0 = new vl::Uniform("sampler0");
sampler0->setUniformI(0);
mGLSL->setUniform( sampler0.get() );
// light_obj_space_pos
mLightObjSpacePosition = new vl::Uniform("light_obj_space_pos");
mGLSL->setUniform( mLightObjSpacePosition.get() );
// compute the tangent vector for each vertex
vl::ref<vl::ArrayFloat3> tangent = new vl::ArrayFloat3;
tangent->resize( model->vertexArray()->size() );
vl::Geometry::computeTangentSpace(
model->vertexArray()->size(),
(vl::fvec3*)model->vertexArray()->ptr(),
(vl::fvec3*)model->normalArray()->ptr(),
(vl::fvec2*)model->texCoordArray(0)->ptr(),
model->drawCalls()->at(0),
tangent->begin(),
NULL );
// bind the tangent vertex attribute
mGLSL->linkProgram();
// note that you need to link the GLSL program before calling this
int tangent_idx = mGLSL->getAttribLocation("tangent"); VL_CHECK( tangent_idx != -1 );
model->setVertexAttribArray(tangent_idx, tangent.get() );
// visualize the TBN vectors
visualizeTangentSpace( model.get(), tangent.get() );
}
const Plane& plane(unsigned i) const { VL_CHECK(i<mPlanes.size()); return mPlanes[i]; }
void setPlane(unsigned i, const Plane& plane) { VL_CHECK(i<mPlanes.size()); mPlanes[i] = plane; }
virtual void initEvent()
{
if (!vl::defLoadWriterManager()->canLoad("md2"))
{
vl::Log::error("App_MorphAnimation requires VL_IO_2D_MD2.\n");
vl::Time::sleep(2000);
exit(1);
}
vl::Log::notify(appletInfo());
const int actor_count = 1000;
ghostCameraManipulator()->setMovementSpeed(500.0f);
bool glsl_vertex_blend = vl::Has_GL_Version_2_0 ? true : false;
const float area_unit = 1500.0f*1500.0f/2000.0f;
const float size = sqrt( actor_count * area_unit );
// common effect settings
vl::ref<vl::Light> light = new vl::Light;
vl::ref<vl::Effect> ground_fx = new vl::Effect;
ground_fx->shader()->setRenderState( light.get(), 0 );
ground_fx->shader()->enable(vl::EN_LIGHTING);
ground_fx->shader()->enable(vl::EN_DEPTH_TEST);
// ground
vl::ref<vl::Geometry> ground;
ground = vl::makeGrid( vl::vec3(0,-30,0), size*1.1f, size*1.1f, 20, 20 );
ground->computeNormals();
sceneManager()->tree()->addActor(ground.get(), ground_fx.get() );
vl::ref<vl::ResourceDatabase> res_db = vl::loadResource("/3rdparty/pknight/tris.md2");
VL_CHECK(res_db && res_db->get<vl::Geometry>(0))
vl::ref<vl::MorphingCallback> morph_cb1 = new vl::MorphingCallback;
morph_cb1->init(res_db.get());
vl::ref<vl::Effect> effect[4] = { new vl::Effect, new vl::Effect, new vl::Effect, new vl::Effect };
const char* texname[] = { "/3rdparty/pknight/evil.tif", "/3rdparty/pknight/knight.tif", "/3rdparty/pknight/ctf_r.tif", "/3rdparty/pknight/ctf_b.tif" };
for(int i=0; i<4; ++i)
{
effect[i]->shader()->setRenderState( light.get(), 0 );
effect[i]->shader()->enable(vl::EN_LIGHTING);
effect[i]->shader()->enable(vl::EN_DEPTH_TEST);
vl::ref<vl::Texture> texture = new vl::Texture;
texture->prepareTexture2D(texname[i], vl::TF_RGBA);
effect[i]->shader()->gocTextureSampler(0)->setTexture( texture.get() );
if (glsl_vertex_blend)
{
vl::ref<vl::GLSLProgram> glsl = effect[i]->shader()->gocGLSLProgram();
effect[i]->shader()->gocGLSLProgram()->attachShader(new vl::GLSLVertexShader("glsl/vertex_blend.vs"));
}
}
/* multi instancing */
for(int i=0; i<actor_count; i++)
{
float x = rand() % RAND_MAX / (float)RAND_MAX - 0.5f;
float z = rand() % RAND_MAX / (float)RAND_MAX - 0.5f;
x *= size;
z *= size;
vl::ref<vl::Actor> morph_act2 = new vl::Actor;
vl::ref<vl::MorphingCallback> morph_cb2 = new vl::MorphingCallback;
morph_cb2->bindActor( morph_act2.get() );
morph_cb2->initFrom( morph_cb1.get() );
morph_act2->setEffect( effect[i%4].get() );
sceneManager()->tree()->addActor( morph_act2.get() );
morph_act2->setTransform( new vl::Transform );
morph_act2->transform()->setLocalMatrix( vl::mat4::getTranslation(x,-morph_act2->lod(0)->boundingBox().minCorner().y(),z) );
morph_act2->transform()->computeWorldMatrix(NULL);
switch(i % 5)
{
case 0: morph_cb2->setAnimation(0, 39, 1.5f); break; // stand
case 1: morph_cb2->setAnimation(40, 45, 1.5f); break; // run
case 2: morph_cb2->setAnimation(46, 53, 1.5f); break; // attack
case 3: morph_cb2->setAnimation(112, 122, 1.5f); break; // wave
case 4: morph_cb2->setAnimation(190, 197, 1.5f); break; // die
}
morph_cb2->startAnimation();
morph_cb2->setGLSLVertexBlendEnabled(glsl_vertex_blend);
}
}
void eraseChild(unsigned index)
{
VL_CHECK(index<childrenCount())
mNodes[index]->mParent = NULL;
mNodes.erase(mNodes.begin()+index);
}
void setUniform4f(int count, const float* value) { initData(count*4); memcpy(&mData[0], value, sizeof(mData[0]) * mData.size()); mType = UT_Float4; VL_CHECK(GLEW_Has_Shading_Language_20); }
void getTexCoordArrayAt(int i, int& out_tex_unit, const ArrayAbstract* &tex_array) const
{
VL_CHECK(i<mTexCoordArrays.size());
out_tex_unit = mTexCoordArrays[i]->mTextureUnit;
tex_array = mTexCoordArrays[i]->mTexCoordArray.get();
}
void setUniform1d(int count, const double* value) { initDouble(count*1); memcpy(&mData[0], value, sizeof(mData[0]) * mData.size()); mType = UT_Double; VL_CHECK(GLEW_VERSION_4_0); }
virtual void initEvent()
{
/* This test shows how to implement an advanced form of geometry instancing on the GPU.
The test creates 10 batches of 100 objects each, each batch is assigned to a GLSL program,
the matrix and normal matrices are passed as uniforms. One actor is sufficient to represent
a batch or 100 objects. The matrices are updated once every 30 seconds thus gaining a
significant performance improvement.
*/
if (!GLEW_EXT_draw_instanced)
{
vl::Log::error("GL_EXT_draw_instanced not supported.\n");
vl::Time::sleep(3000);
exit(1);
}
vl::ref<vl::Geometry> box_set = vl::makeBox( vl::vec3(0,0,0), 2, 2, 2, false);
box_set->computeNormals();
box_set->setObjectName("Box Set");
box_set->setColor(vl::white);
/* setting multiple instances is as easy as calling this function! */
vl::DrawArrays* draw_arrays = dynamic_cast<vl::DrawArrays*>( box_set->drawCalls()->at(0) );
VL_CHECK(draw_arrays)
draw_arrays->setInstances(100);
/* create a AABB that approximately reflects the geometry generated by the shader */
box_set->setBoundingBox( vl::AABB(vl::vec3(-1,-1,-1), vl::vec3(45+1, 45+1, 45+1)) );
for(int batch=0; batch<10; ++batch)
{
/* box effect */
vl::ref<vl::Effect> fx = new vl::Effect;
fx->shader()->setRenderState( new vl::Light(0) );
fx->shader()->enable(vl::EN_LIGHTING);
fx->shader()->enable(vl::EN_CULL_FACE);
fx->shader()->enable(vl::EN_DEPTH_TEST);
fx->shader()->gocMaterial()->setColorMaterialEnabled(false);
/* use a multi instancing vertex shader */
vl::GLSLProgram* glsl = fx->shader()->gocGLSLProgram();
glsl->attachShader( new vl::GLSLVertexShader("/glsl/geometry_instancing.vs") );
/* add the objects to the scene */
vl::Actor* actor = sceneManager()->tree()->addActor( box_set.get(), fx.get() );
_model_view_matrix[batch] = new vl::Uniform("model_view_matrix");
_normal_matrix[batch] = new vl::Uniform("normal_matrix");
#if 1
// the uniforms must be per actor
actor->gocUniformSet()->setUniform( _model_view_matrix[batch].get() );
actor->gocUniformSet()->setUniform( _normal_matrix[batch].get() );
#else
// is not coorect to send the uniform per-shader
fx->shader()->setUniform( _model_view_matrix[batch].get() );
fx->shader()->setUniform( _normal_matrix[batch].get() );
#endif
}
/* aabb effect */
vl::ref<vl::Effect> box_fx = new vl::Effect;
box_fx->shader()->setRenderState( new vl::Light(0) );
box_fx->shader()->enable(vl::EN_DEPTH_TEST);
box_fx->shader()->gocPolygonMode()->set(vl::PM_LINE, vl::PM_LINE);
/* shows bounding box */
vl::ref<vl::Geometry> box = vl::makeBox( box_set->boundingBox() );
box->setObjectName("Wire box");
box->setColor(vl::red);
box->computeNormals();
sceneManager()->tree()->addActor( box.get(), box_fx.get() );
for(unsigned i=0; i<1000; ++i)
{
rot[i].x() = rand()%100 - 50.0f;
rot[i].y() = rand()%100 - 50.0f;
rot[i].z() = rand()%100 - 50.0f;
rot[i].normalize();
}
}
const T& operator*() const { VL_CHECK(mObject); return *mObject; }
void setUniformMatrix4x3f(int count, const float* value) { initData(count*4*3); memcpy(&mData[0], value, sizeof(mData[0]) * mData.size()); mType = UT_Mat4x3F; VL_CHECK(GLEW_Has_Shading_Language_21); }
T& operator*() { VL_CHECK(mObject); return *mObject; }
void setUniformMatrix4x3d(int count, const double* value) { initDouble(count*4*3); memcpy(&mData[0], value, sizeof(mData[0]) * mData.size()); mType = UT_Mat4x3D; VL_CHECK(GLEW_VERSION_4_0); }
const T_VectorType& at(size_t i) const { VL_CHECK(i<size()); return *(reinterpret_cast<const T_VectorType*>(ptr())+i); }
void getUniform(unsigned int* value) { VL_CHECK(type() != UT_NONE); VL_CHECK(mData.size()); memcpy( value, &mData[0], sizeof(mData[0]) * mData.size()); }
/** Sets the lod to be used for rendering. It must be: 0 <= lod < VL_MAX_EFFECT_LOD. */
void setActiveLod(int lod)
{
VL_CHECK( lod < VL_MAX_EFFECT_LOD )
VL_CHECK( lod >= 0 )
mActiveLod = lod;
}
bool readValue(VLXValue& val)
{
unsigned char chunk = 0;
if (!readChunk(chunk))
return false;
std::string str;
switch(chunk)
{
case VLB_ChunkStructure:
val.setStructure( new VLXStructure );
return parseStructure( val.getStructure() );
case VLB_ChunkList:
val.setList( new VLXList );
return parseList( val.getList() );
case VLB_ChunkArrayInteger:
{
// tag
if (!readString(str))
return false;
else
val.setArrayInteger( new VLXArrayInteger( str.c_str() ) );
// count
long long count = 0;
if (!readInteger(count))
return false;
// values
VLXArrayInteger& arr = *val.getArrayInteger();
if (count)
{
long long encode_count = 0;
if (!readInteger(encode_count))
return false;
VL_CHECK(encode_count >= 0)
if (encode_count)
{
std::vector<unsigned char> encoded;
encoded.resize((size_t)encode_count);
inputFile()->readUInt8(&encoded[0], encode_count);
decodeIntegers(encoded, arr.value());
}
}
VL_CHECK((size_t)count == arr.value().size())
return (size_t)count == arr.value().size();
}
case VLB_ChunkArrayRealDouble:
{
// tag
if (!readString(str))
return false;
else
val.setArrayReal( new VLXArrayReal( str.c_str() ) );
// count
long long count = 0;
if (!readInteger(count))
return false;
// values
VLXArrayReal& arr = *val.getArrayReal();
arr.value().resize( (size_t)count );
if (count)
{
#if 1
long long c = inputFile()->readDouble( &arr.value()[0], count );
VL_CHECK(c == count * (int)sizeof(double))
return c == count * (int)sizeof(double);
#elif 0
long long zsize = 0;
readInteger(zsize);
std::vector<unsigned char> zipped;
zipped.resize((size_t)zsize);
inputFile()->read(&zipped[0], zipped.size());
bool ok = decompress(&zipped[0], (size_t)zsize, &arr.value()[0]);
VL_CHECK(ok);
return ok;
#endif
}
else
return true;
}
case VLB_ChunkArrayRealFloat:
{
// tag
if (!readString(str))
return false;
else
val.setArrayReal( new VLXArrayReal( str.c_str() ) );
// count
long long count = 0;
if (!readInteger(count))
return false;
// values
VLXArrayReal& arr = *val.getArrayReal();
arr.value().resize( (size_t)count );
if (count)
{
#if 1
std::vector<float> floats;
floats.resize( (size_t)count );
long long c = inputFile()->readFloat( &floats[0], count );
// copy over floats to doubles
for(size_t i=0; i<floats.size(); ++i)
arr.value()[i] = floats[i];
VL_CHECK(c == count * (int)sizeof(float))
return c == count * (int)sizeof(float);
#elif 0
long long zsize = 0;
readInteger(zsize);
std::vector<unsigned char> zipped;
zipped.resize((size_t)zsize);
inputFile()->read(&zipped[0], zipped.size());
bool ok = decompress(&zipped[0], (size_t)zsize, &arr.value()[0]);
VL_CHECK(ok);
return ok;
#endif
}
else
return true;
}