inline void set_index_data(const Uint32 index,
const Uint32 data)
{
assert(index < get_index_count());
assert((data < get_vertex_count()) ||
((get_restart_index() == data) &&
get_use_restart_index()));
assert(index < m_indices.size());
assert(get_index_count() == m_indices.size());
m_indices[index] = data;
assert(m_indices[index] == data);
}
/**
* \brief Constructs a state to render a given texture in a given mode.
* \param texture_id The identifier of the texture to use when drawing.
* \param shader The shader to use when drawing.
* \param vertices The vertices to draw.
* \param texture_coordinates The coordinates of the vertices in the texture.
* \param c The color of the vertices.
*/
bear::visual::gl_state::gl_state
( GLuint texture_id, const shader_program& shader,
const position_vector& texture_coordinates, const position_vector& vertices,
const color_type& c )
: m_mode( render_triangles ),
m_shader( shader ), m_line_width( 0 )
{
const position_vector v( polygon_to_triangles( vertices ) );
push_vertices( v );
push_texture_coordinates( polygon_to_triangles(texture_coordinates) );
push_colors( c, v.size() );
m_elements.push_back( element_range( texture_id, 0, get_vertex_count() ) );
} // gl_state::gl_state()
struct face *read_obj_file(const char *fname, int *count)
{
FILE *fp;
int n_v, n_f;
struct vertex *vertex;
struct face *face;
fp = fopen(fname, "r");
n_v = get_vertex_count(fp);
vertex = (struct vertex *)malloc(n_v * sizeof(struct vertex));
vertex_read(fp, vertex, n_v);
n_f = get_face_count(fp);
face = (struct face *)malloc(n_f * sizeof(struct face));
face_read(fp, face, n_f, vertex, n_v);
fclose(fp);
free(vertex);
*count = n_f;
return face;
}
/**
* \brief Draws the vertices in the case where there is no texture.
*/
void bear::visual::gl_state::draw_shape() const
{
if ( m_vertices.empty() )
return;
enable_shader();
if ( m_line_width > 0 )
{
glLineWidth( m_line_width );
VISUAL_GL_ERROR_THROW();
}
set_colors();
set_vertices();
glBindTexture( GL_TEXTURE_2D, 0 );
VISUAL_GL_ERROR_THROW();
glDrawArrays( get_gl_render_mode(), 0, get_vertex_count() );
disable_states();
} // gl_state::draw_shape()
// =======================================================================
// Read all faces from TRIANGLES, TRIANGLE_FANS, POLYLIST, POLYGON
// Important: This function MUST be called before read_lines()
// Otherwise we will loose all edges from faces (see read_lines() above)
//
// TODO: import uv set names
// ========================================================================
void MeshImporter::read_polys(COLLADAFW::Mesh *collada_mesh, Mesh *me)
{
unsigned int i;
allocate_poly_data(collada_mesh, me);
UVDataWrapper uvs(collada_mesh->getUVCoords());
VCOLDataWrapper vcol(collada_mesh->getColors());
MPoly *mpoly = me->mpoly;
MLoop *mloop = me->mloop;
int loop_index = 0;
MaterialIdPrimitiveArrayMap mat_prim_map;
COLLADAFW::MeshPrimitiveArray& prim_arr = collada_mesh->getMeshPrimitives();
COLLADAFW::MeshVertexData& nor = collada_mesh->getNormals();
for (i = 0; i < prim_arr.getCount(); i++) {
COLLADAFW::MeshPrimitive *mp = prim_arr[i];
// faces
size_t prim_totpoly = mp->getFaceCount();
unsigned int *position_indices = mp->getPositionIndices().getData();
unsigned int *normal_indices = mp->getNormalIndices().getData();
bool mp_has_normals = primitive_has_useable_normals(mp);
bool mp_has_faces = primitive_has_faces(mp);
int collada_meshtype = mp->getPrimitiveType();
// since we cannot set mpoly->mat_nr here, we store a portion of me->mpoly in Primitive
Primitive prim = {mpoly, 0};
// If MeshPrimitive is TRIANGLE_FANS we split it into triangles
// The first trifan vertex will be the first vertex in every triangle
// XXX The proper function of TRIANGLE_FANS is not tested!!!
// XXX In particular the handling of the normal_indices looks very wrong to me
if (collada_meshtype == COLLADAFW::MeshPrimitive::TRIANGLE_FANS) {
unsigned grouped_vertex_count = mp->getGroupedVertexElementsCount();
for (unsigned int group_index = 0; group_index < grouped_vertex_count; group_index++) {
unsigned int first_vertex = position_indices[0]; // Store first trifan vertex
unsigned int first_normal = normal_indices[0]; // Store first trifan vertex normal
unsigned int vertex_count = mp->getGroupedVerticesVertexCount(group_index);
for (unsigned int vertex_index = 0; vertex_index < vertex_count - 2; vertex_index++) {
// For each triangle store indeces of its 3 vertices
unsigned int triangle_vertex_indices[3] = {first_vertex, position_indices[1], position_indices[2]};
set_poly_indices(mpoly, mloop, loop_index, triangle_vertex_indices, 3);
if (mp_has_normals) { // vertex normals, same inplementation as for the triangles
// the same for vertces normals
unsigned int vertex_normal_indices[3] = {first_normal, normal_indices[1], normal_indices[2]};
if (!is_flat_face(vertex_normal_indices, nor, 3))
mpoly->flag |= ME_SMOOTH;
normal_indices++;
}
mpoly++;
mloop += 3;
loop_index += 3;
prim.totpoly++;
}
// Moving cursor to the next triangle fan.
if (mp_has_normals)
normal_indices += 2;
position_indices += 2;
}
}
if (collada_meshtype == COLLADAFW::MeshPrimitive::POLYLIST ||
collada_meshtype == COLLADAFW::MeshPrimitive::POLYGONS ||
collada_meshtype == COLLADAFW::MeshPrimitive::TRIANGLES) {
COLLADAFW::Polygons *mpvc = (COLLADAFW::Polygons *)mp;
unsigned int start_index = 0;
COLLADAFW::IndexListArray& index_list_array_uvcoord = mp->getUVCoordIndicesArray();
COLLADAFW::IndexListArray& index_list_array_vcolor = mp->getColorIndicesArray();
for (unsigned int j = 0; j < prim_totpoly; j++) {
// Vertices in polygon:
int vcount = get_vertex_count(mpvc, j);
set_poly_indices(mpoly, mloop, loop_index, position_indices, vcount);
for (unsigned int uvset_index = 0; uvset_index < index_list_array_uvcoord.getCount(); uvset_index++) {
// get mtface by face index and uv set index
COLLADAFW::IndexList& index_list = *index_list_array_uvcoord[uvset_index];
MLoopUV *mloopuv = (MLoopUV *)CustomData_get_layer_named(&me->ldata, CD_MLOOPUV, index_list.getName().c_str());
if (mloopuv == NULL) {
fprintf(stderr, "Collada import: Mesh [%s] : Unknown reference to TEXCOORD [#%s].\n", me->id.name, index_list.getName().c_str() );
}
else {
set_face_uv(mloopuv+loop_index, uvs, start_index, *index_list_array_uvcoord[uvset_index], vcount);
}
}
if (mp_has_normals) {
if (!is_flat_face(normal_indices, nor, vcount))
mpoly->flag |= ME_SMOOTH;
}
if (mp->hasColorIndices()) {
int vcolor_count = index_list_array_vcolor.getCount();
for (unsigned int vcolor_index = 0; vcolor_index < vcolor_count; vcolor_index++) {
COLLADAFW::IndexList& color_index_list = *mp->getColorIndices(vcolor_index);
COLLADAFW::String colname = extract_vcolname(color_index_list.getName());
MLoopCol *mloopcol = (MLoopCol *)CustomData_get_layer_named(&me->ldata, CD_MLOOPCOL, colname.c_str());
if (mloopcol == NULL) {
fprintf(stderr, "Collada import: Mesh [%s] : Unknown reference to VCOLOR [#%s].\n", me->id.name, color_index_list.getName().c_str());
}
else {
set_vcol(mloopcol + loop_index, vcol, start_index, color_index_list, vcount);
}
}
}
mpoly++;
mloop += vcount;
loop_index += vcount;
start_index += vcount;
prim.totpoly++;
if (mp_has_normals)
normal_indices += vcount;
position_indices += vcount;
}
}
else if (collada_meshtype == COLLADAFW::MeshPrimitive::LINES) {
continue; // read the lines later after all the rest is done
}
if (mp_has_faces)
mat_prim_map[mp->getMaterialId()].push_back(prim);
}
geom_uid_mat_mapping_map[collada_mesh->getUniqueId()] = mat_prim_map;
}
// =================================================================
// Return the number of faces by summing up
// the facecounts of the parts.
// hint: This is done because mesh->getFacesCount() does
// count loose edges as extra faces, which is not what we want here.
// =================================================================
void MeshImporter::allocate_poly_data(COLLADAFW::Mesh *collada_mesh, Mesh *me)
{
COLLADAFW::MeshPrimitiveArray& prim_arr = collada_mesh->getMeshPrimitives();
int total_poly_count = 0;
int total_loop_count = 0;
// collect edge_count and face_count from all parts
for (int i = 0; i < prim_arr.getCount(); i++) {
COLLADAFW::MeshPrimitive *mp = prim_arr[i];
int type = mp->getPrimitiveType();
switch (type) {
case COLLADAFW::MeshPrimitive::TRIANGLES:
case COLLADAFW::MeshPrimitive::TRIANGLE_FANS:
case COLLADAFW::MeshPrimitive::POLYLIST:
case COLLADAFW::MeshPrimitive::POLYGONS:
{
COLLADAFW::Polygons *mpvc = (COLLADAFW::Polygons *)mp;
size_t prim_poly_count = mpvc->getFaceCount();
size_t prim_loop_count = 0;
for (int index=0; index < prim_poly_count; index++) {
prim_loop_count += get_vertex_count(mpvc, index);
}
total_poly_count += prim_poly_count;
total_loop_count += prim_loop_count;
break;
}
default:
break;
}
}
// Add the data containers
if (total_poly_count > 0) {
me->totpoly = total_poly_count;
me->totloop = total_loop_count;
me->mpoly = (MPoly *)CustomData_add_layer(&me->pdata, CD_MPOLY, CD_CALLOC, NULL, me->totpoly);
me->mloop = (MLoop *)CustomData_add_layer(&me->ldata, CD_MLOOP, CD_CALLOC, NULL, me->totloop);
unsigned int totuvset = collada_mesh->getUVCoords().getInputInfosArray().getCount();
for (int i = 0; i < totuvset; i++) {
if (collada_mesh->getUVCoords().getLength(i) == 0) {
totuvset = 0;
break;
}
}
if (totuvset > 0) {
for (int i = 0; i < totuvset; i++) {
COLLADAFW::MeshVertexData::InputInfos *info = collada_mesh->getUVCoords().getInputInfosArray()[i];
COLLADAFW::String &uvname = info->mName;
// Allocate space for UV_data
CustomData_add_layer_named(&me->pdata, CD_MTEXPOLY, CD_DEFAULT, NULL, me->totpoly, uvname.c_str());
CustomData_add_layer_named(&me->ldata, CD_MLOOPUV, CD_DEFAULT, NULL, me->totloop, uvname.c_str());
}
// activate the first uv map
me->mtpoly = (MTexPoly *)CustomData_get_layer_n(&me->pdata, CD_MTEXPOLY, 0);
me->mloopuv = (MLoopUV *) CustomData_get_layer_n(&me->ldata, CD_MLOOPUV, 0);
}
int totcolset = collada_mesh->getColors().getInputInfosArray().getCount();
if (totcolset > 0) {
for (int i = 0; i < totcolset; i++) {
COLLADAFW::MeshVertexData::InputInfos *info = collada_mesh->getColors().getInputInfosArray()[i];
COLLADAFW::String colname = extract_vcolname(info->mName);
CustomData_add_layer_named(&me->ldata,CD_MLOOPCOL,CD_DEFAULT,NULL,me->totloop, colname.c_str());
}
me->mloopcol = (MLoopCol *) CustomData_get_layer_n(&me->ldata, CD_MLOOPCOL, 0);
}
}
}
void Skeleton::update(unsigned long dt)
{
const float delta = dt / 1000.0f;
spSkeleton_update(skeleton_, delta);
spAnimationState_update(state_, delta * time_scale_);
spAnimationState_apply(state_, skeleton_);
spSkeleton_updateWorldTransform(skeleton_);
// This solution is not ideal. We iterate over the bones twice: First to
// determine number of vertices, second to update the vertex buffer.
num_vertices_ = get_vertex_count(skeleton_, &texture_);
if (num_vertices_ > max_vertices_)
{
max_vertices_ = num_vertices_;
vertices_ = std::make_unique<SpriteVertex[]>(max_vertices_);
}
size_t i = 0;
for_each(skeleton_, [this, &i](spSlot* slot) {
if (!slot->attachment)
return;
switch (slot->attachment->type)
{
case SP_ATTACHMENT_REGION: {
float vertices[8];
spRegionAttachment* region =
reinterpret_cast<spRegionAttachment*>(slot->attachment);
R_ASSERT(texture_ == get_texture(region),
kErrorMultipleTexturesUnsupported);
spRegionAttachment_computeWorldVertices(
region, slot->bone, vertices);
const char r = skeleton_->r * slot->r * 0xff;
const char g = skeleton_->g * slot->g * 0xff;
const char b = skeleton_->b * slot->b * 0xff;
const char a = skeleton_->a * slot->a * 0xff;
vertices_[i].color.r = r;
vertices_[i].color.g = g;
vertices_[i].color.b = b;
vertices_[i].color.a = a;
vertices_[i].texcoord.x = region->uvs[SP_VERTEX_X1];
vertices_[i].texcoord.y = region->uvs[SP_VERTEX_Y1];
vertices_[i].position.x = vertices[SP_VERTEX_X1];
vertices_[i].position.y = vertices[SP_VERTEX_Y1];
vertices_[++i].color.r = r;
vertices_[i].color.g = g;
vertices_[i].color.b = b;
vertices_[i].color.a = a;
vertices_[i].texcoord.x = region->uvs[SP_VERTEX_X2];
vertices_[i].texcoord.y = region->uvs[SP_VERTEX_Y2];
vertices_[i].position.x = vertices[SP_VERTEX_X2];
vertices_[i].position.y = vertices[SP_VERTEX_Y2];
vertices_[++i].color.r = r;
vertices_[i].color.g = g;
vertices_[i].color.b = b;
vertices_[i].color.a = a;
vertices_[i].texcoord.x = region->uvs[SP_VERTEX_X3];
vertices_[i].texcoord.y = region->uvs[SP_VERTEX_Y3];
vertices_[i].position.x = vertices[SP_VERTEX_X3];
vertices_[i].position.y = vertices[SP_VERTEX_Y3];
++i;
vertices_[i] = vertices_[i - 1];
vertices_[++i].color.r = r;
vertices_[i].color.g = g;
vertices_[i].color.b = b;
vertices_[i].color.a = a;
vertices_[i].texcoord.x = region->uvs[SP_VERTEX_X4];
vertices_[i].texcoord.y = region->uvs[SP_VERTEX_Y4];
vertices_[i].position.x = vertices[SP_VERTEX_X4];
vertices_[i].position.y = vertices[SP_VERTEX_Y4];
++i;
vertices_[i] = vertices_[i - 5];
++i;
break;
}
case SP_ATTACHMENT_BOUNDING_BOX:
break;
case SP_ATTACHMENT_MESH: {
spMeshAttachment* mesh =
reinterpret_cast<spMeshAttachment*>(slot->attachment);
R_ASSERT(texture_ == get_texture(mesh),
kErrorMultipleTexturesUnsupported);
i += update_mesh(&vertices_[i], skeleton_, mesh, slot);
break;
}
case SP_ATTACHMENT_SKINNED_MESH: {
spSkinnedMeshAttachment* mesh =
reinterpret_cast<spSkinnedMeshAttachment*>(
slot->attachment);
R_ASSERT(texture_ == get_texture(mesh),
kErrorMultipleTexturesUnsupported);
i += update_mesh(&vertices_[i], skeleton_, mesh, slot);
break;
}
}
if (slot->data->blendMode != SP_BLEND_MODE_NORMAL) // TODO: Implement.
LOGE("Non-normal blend mode not yet implemented");
});
vertex_buffer_.upload(vertices_.get(), i * sizeof(SpriteVertex));
}
std::vector<D3D12_SHADER_RESOURCE_VIEW_DESC> D3D12GSRender::upload_vertex_attributes(
const std::vector<std::pair<u32, u32> > &vertex_ranges,
gsl::not_null<ID3D12GraphicsCommandList*> command_list)
{
std::vector<D3D12_SHADER_RESOURCE_VIEW_DESC> vertex_buffer_views;
command_list->ResourceBarrier(1, &CD3DX12_RESOURCE_BARRIER::Transition(m_vertex_buffer_data.Get(), D3D12_RESOURCE_STATE_VERTEX_AND_CONSTANT_BUFFER, D3D12_RESOURCE_STATE_COPY_DEST));
u32 vertex_count = get_vertex_count(vertex_ranges);
size_t offset_in_vertex_buffers_buffer = 0;
u32 input_mask = rsx::method_registers[NV4097_SET_VERTEX_ATTRIB_INPUT_MASK];
for (int index = 0; index < rsx::limits::vertex_count; ++index)
{
bool enabled = !!(input_mask & (1 << index));
if (!enabled)
continue;
if (vertex_arrays_info[index].size > 0)
{
// Active vertex array
const rsx::data_array_format_info &info = vertex_arrays_info[index];
u32 element_size = rsx::get_vertex_type_size_on_host(info.type, info.size);
UINT buffer_size = element_size * vertex_count;
size_t heap_offset = m_buffer_data.alloc<D3D12_CONSTANT_BUFFER_DATA_PLACEMENT_ALIGNMENT>(buffer_size);
void *mapped_buffer = m_buffer_data.map<void>(CD3DX12_RANGE(heap_offset, heap_offset + buffer_size));
for (const auto &range : vertex_ranges)
{
write_vertex_array_data_to_buffer(mapped_buffer, range.first, range.second, index, info);
mapped_buffer = (char*)mapped_buffer + range.second * element_size;
}
m_buffer_data.unmap(CD3DX12_RANGE(heap_offset, heap_offset + buffer_size));
command_list->CopyBufferRegion(m_vertex_buffer_data.Get(), offset_in_vertex_buffers_buffer, m_buffer_data.get_heap(), heap_offset, buffer_size);
vertex_buffer_views.emplace_back(get_vertex_attribute_srv(info, offset_in_vertex_buffers_buffer, buffer_size));
offset_in_vertex_buffers_buffer = get_next_multiple_of<48>(offset_in_vertex_buffers_buffer + buffer_size); // 48 is multiple of 2, 4, 6, 8, 12, 16
m_timers.buffer_upload_size += buffer_size;
}
else if (register_vertex_info[index].size > 0)
{
// In register vertex attribute
const rsx::data_array_format_info &info = register_vertex_info[index];
const std::vector<u8> &data = register_vertex_data[index];
u32 element_size = rsx::get_vertex_type_size_on_host(info.type, info.size);
UINT buffer_size = gsl::narrow<UINT>(data.size());
size_t heap_offset = m_buffer_data.alloc<D3D12_CONSTANT_BUFFER_DATA_PLACEMENT_ALIGNMENT>(buffer_size);
void *mapped_buffer = m_buffer_data.map<void>(CD3DX12_RANGE(heap_offset, heap_offset + buffer_size));
memcpy(mapped_buffer, data.data(), data.size());
m_buffer_data.unmap(CD3DX12_RANGE(heap_offset, heap_offset + buffer_size));
command_list->CopyBufferRegion(m_vertex_buffer_data.Get(), offset_in_vertex_buffers_buffer, m_buffer_data.get_heap(), heap_offset, buffer_size);
vertex_buffer_views.emplace_back(get_vertex_attribute_srv(info, offset_in_vertex_buffers_buffer, buffer_size));
offset_in_vertex_buffers_buffer = get_next_multiple_of<48>(offset_in_vertex_buffers_buffer + buffer_size); // 48 is multiple of 2, 4, 6, 8, 12, 16
}
}
command_list->ResourceBarrier(1, &CD3DX12_RESOURCE_BARRIER::Transition(m_vertex_buffer_data.Get(), D3D12_RESOURCE_STATE_COPY_DEST, D3D12_RESOURCE_STATE_VERTEX_AND_CONSTANT_BUFFER));
return vertex_buffer_views;
}
std::tuple<bool, size_t, std::vector<D3D12_SHADER_RESOURCE_VIEW_DESC>> D3D12GSRender::upload_and_set_vertex_index_data(ID3D12GraphicsCommandList *command_list)
{
if (draw_command == rsx::draw_command::inlined_array)
{
size_t vertex_count;
std::vector<D3D12_SHADER_RESOURCE_VIEW_DESC> vertex_buffer_view;
std::tie(vertex_buffer_view, vertex_count) = upload_inlined_vertex_array(
vertex_arrays_info,
{ (const gsl::byte*) inline_vertex_array.data(), gsl::narrow<int>(inline_vertex_array.size() * sizeof(uint)) },
m_buffer_data, m_vertex_buffer_data.Get(), command_list);
if (is_primitive_native(draw_mode))
return std::make_tuple(false, vertex_count, vertex_buffer_view);
D3D12_INDEX_BUFFER_VIEW index_buffer_view;
size_t index_count;
std::tie(index_buffer_view, index_count) = generate_index_buffer_for_emulated_primitives_array({ { 0, (u32)vertex_count } });
command_list->IASetIndexBuffer(&index_buffer_view);
return std::make_tuple(true, index_count, vertex_buffer_view);
}
if (draw_command == rsx::draw_command::array)
{
if (is_primitive_native(draw_mode))
{
size_t vertex_count = get_vertex_count(first_count_commands);
return std::make_tuple(false, vertex_count, upload_vertex_attributes(first_count_commands, command_list));
}
D3D12_INDEX_BUFFER_VIEW index_buffer_view;
size_t index_count;
std::tie(index_buffer_view, index_count) = generate_index_buffer_for_emulated_primitives_array(first_count_commands);
command_list->IASetIndexBuffer(&index_buffer_view);
return std::make_tuple(true, index_count, upload_vertex_attributes(first_count_commands, command_list));
}
assert(draw_command == rsx::draw_command::indexed);
// Index count
size_t index_count = get_index_count(draw_mode, gsl::narrow<int>(get_vertex_count(first_count_commands)));
rsx::index_array_type indexed_type = rsx::to_index_array_type(rsx::method_registers[NV4097_SET_INDEX_ARRAY_DMA] >> 4);
size_t index_size = get_index_type_size(indexed_type);
// Alloc
size_t buffer_size = align(index_count * index_size, 64);
size_t heap_offset = m_buffer_data.alloc<D3D12_CONSTANT_BUFFER_DATA_PLACEMENT_ALIGNMENT>(buffer_size);
void *mapped_buffer = m_buffer_data.map<void>(CD3DX12_RANGE(heap_offset, heap_offset + buffer_size));
u32 min_index, max_index;
if (indexed_type == rsx::index_array_type::u16)
{
gsl::span<u16> dst = { (u16*)mapped_buffer, gsl::narrow<int>(buffer_size / index_size) };
std::tie(min_index, max_index) = write_index_array_data_to_buffer(dst, draw_mode, first_count_commands);
}
if (indexed_type == rsx::index_array_type::u32)
{
gsl::span<u32> dst = { (u32*)mapped_buffer, gsl::narrow<int>(buffer_size / index_size) };
std::tie(min_index, max_index) = write_index_array_data_to_buffer(dst, draw_mode, first_count_commands);
}
m_buffer_data.unmap(CD3DX12_RANGE(heap_offset, heap_offset + buffer_size));
D3D12_INDEX_BUFFER_VIEW index_buffer_view = {
m_buffer_data.get_heap()->GetGPUVirtualAddress() + heap_offset,
(UINT)buffer_size,
get_index_type(indexed_type)
};
m_timers.buffer_upload_size += buffer_size;
command_list->IASetIndexBuffer(&index_buffer_view);
return std::make_tuple(true, index_count, upload_vertex_attributes({ std::make_pair(0, max_index + 1) }, command_list));
}
