void Camera2D::set_custom_viewport(Node *p_viewport) { ERR_FAIL_NULL(p_viewport); if (is_inside_tree()) { remove_from_group(group_name); remove_from_group(canvas_group_name); } custom_viewport = Object::cast_to<Viewport>(p_viewport); if (custom_viewport) { custom_viewport_id = custom_viewport->get_instance_id(); } else { custom_viewport_id = 0; } if (is_inside_tree()) { if (custom_viewport) viewport = custom_viewport; else viewport = get_viewport(); RID vp = viewport->get_viewport_rid(); group_name = "__cameras_" + itos(vp.get_id()); canvas_group_name = "__cameras_c" + itos(canvas.get_id()); add_to_group(group_name); add_to_group(canvas_group_name); } }
void Camera2D::_notification(int p_what) { switch(p_what) { case NOTIFICATION_FIXED_PROCESS: { _update_scroll(); } break; case NOTIFICATION_TRANSFORM_CHANGED: { if (!is_fixed_processing()) _update_scroll(); } break; case NOTIFICATION_ENTER_SCENE: { viewport = NULL; Node *n=this; while(n){ viewport = n->cast_to<Viewport>(); if (viewport) break; n=n->get_parent(); } canvas = get_canvas(); RID vp = viewport->get_viewport(); group_name = "__cameras_"+itos(vp.get_id()); canvas_group_name ="__cameras_c"+itos(canvas.get_id()); add_to_group(group_name); add_to_group(canvas_group_name); _update_scroll(); first=true; } break; case NOTIFICATION_EXIT_SCENE: { if (is_current()) { if (viewport) { viewport->set_canvas_transform( Matrix32() ); } } remove_from_group(group_name); remove_from_group(canvas_group_name); viewport=NULL; } break; } }
void CanvasItem::_enter_canvas() { if ((!get_parent() || !get_parent()->cast_to<CanvasItem>()) || toplevel) { Node *n = this; Viewport *viewport=NULL; canvas_layer=NULL; while(n) { if (n->cast_to<Viewport>()) { viewport = n->cast_to<Viewport>(); break; } if (!canvas_layer && n->cast_to<CanvasLayer>()) { canvas_layer = n->cast_to<CanvasLayer>(); } n=n->get_parent(); } RID canvas; if (canvas_layer) canvas=canvas_layer->get_world_2d()->get_canvas(); else canvas=viewport->find_world_2d()->get_canvas(); VisualServer::get_singleton()->canvas_item_set_parent(canvas_item,canvas); group = "root_canvas"+itos(canvas.get_id()); add_to_group(group); get_tree()->call_group(SceneTree::GROUP_CALL_UNIQUE,group,"_raise_self"); } else { CanvasItem *parent = get_parent_item(); VisualServer::get_singleton()->canvas_item_set_parent(canvas_item,parent->get_canvas_item()); parent->_queue_sort_children(); } pending_update=false; update(); notification(NOTIFICATION_ENTER_CANVAS); }
void CanvasItem::_enter_canvas() { if ((!Object::cast_to<CanvasItem>(get_parent())) || toplevel) { Node *n = this; canvas_layer = NULL; while (n) { canvas_layer = Object::cast_to<CanvasLayer>(n); if (canvas_layer) { break; } n = n->get_parent(); } RID canvas; if (canvas_layer) canvas = canvas_layer->get_world_2d()->get_canvas(); else canvas = get_viewport()->find_world_2d()->get_canvas(); VisualServer::get_singleton()->canvas_item_set_parent(canvas_item, canvas); group = "root_canvas" + itos(canvas.get_id()); add_to_group(group); if (canvas_layer) canvas_layer->reset_sort_index(); else get_viewport()->gui_reset_canvas_sort_index(); get_tree()->call_group_flags(SceneTree::GROUP_CALL_UNIQUE, group, "_toplevel_raise_self"); } else { CanvasItem *parent = get_parent_item(); canvas_layer = parent->canvas_layer; VisualServer::get_singleton()->canvas_item_set_parent(canvas_item, parent->get_canvas_item()); VisualServer::get_singleton()->canvas_item_set_draw_index(canvas_item, get_index()); } pending_update = false; update(); notification(NOTIFICATION_ENTER_CANVAS); }
void Camera2D::_notification(int p_what) { switch(p_what) { case NOTIFICATION_FIXED_PROCESS: { _update_scroll(); } break; case NOTIFICATION_TRANSFORM_CHANGED: { if (!is_fixed_processing()) _update_scroll(); } break; case NOTIFICATION_ENTER_TREE: { viewport = NULL; Node *n=this; while(n){ viewport = n->cast_to<Viewport>(); if (viewport) break; n=n->get_parent(); } canvas = get_canvas(); RID vp = viewport->get_viewport(); group_name = "__cameras_"+itos(vp.get_id()); canvas_group_name ="__cameras_c"+itos(canvas.get_id()); add_to_group(group_name); add_to_group(canvas_group_name); _update_scroll(); first=true; } break; case NOTIFICATION_EXIT_TREE: { if (is_current()) { if (viewport) { viewport->set_canvas_transform( Matrix32() ); } } remove_from_group(group_name); remove_from_group(canvas_group_name); viewport=NULL; } break; case NOTIFICATION_DRAW: { if (!is_inside_tree() || !get_tree()->is_editor_hint()) break; Color area_axis_color(0.5, 0.42, 0.87, 0.63); float area_axis_width = 1; if(current) area_axis_width = 3; Matrix32 inv_camera_transform = get_camera_transform().affine_inverse(); Size2 screen_size = get_viewport_rect().size; Vector2 screen_endpoints[4]= { inv_camera_transform.xform(Vector2(0, 0)), inv_camera_transform.xform(Vector2(screen_size.width,0)), inv_camera_transform.xform(Vector2(screen_size.width, screen_size.height)), inv_camera_transform.xform(Vector2(0, screen_size.height)) }; Matrix32 inv_transform = get_transform().affine_inverse(); // undo global space draw_set_transform(inv_transform.get_origin(), inv_transform.get_rotation(), inv_transform.get_scale()); for(int i=0;i<4;i++) { draw_line(screen_endpoints[i], screen_endpoints[(i+1)%4], area_axis_color, area_axis_width); } } break; } }
void Camera2D::_notification(int p_what) { switch (p_what) { case NOTIFICATION_FIXED_PROCESS: { _update_scroll(); } break; case NOTIFICATION_TRANSFORM_CHANGED: { if (!is_fixed_processing()) _update_scroll(); } break; case NOTIFICATION_ENTER_TREE: { if (custom_viewport && ObjectDB::get_instance(custom_viewport_id)) { viewport = custom_viewport; } else { viewport = get_viewport(); } canvas = get_canvas(); RID vp = viewport->get_viewport_rid(); group_name = "__cameras_" + itos(vp.get_id()); canvas_group_name = "__cameras_c" + itos(canvas.get_id()); add_to_group(group_name); add_to_group(canvas_group_name); if (Engine::get_singleton()->is_editor_hint()) { set_fixed_process(false); } _update_scroll(); first = true; } break; case NOTIFICATION_EXIT_TREE: { if (is_current()) { if (viewport && !(custom_viewport && !ObjectDB::get_instance(custom_viewport_id))) { viewport->set_canvas_transform(Transform2D()); } } remove_from_group(group_name); remove_from_group(canvas_group_name); viewport = NULL; } break; case NOTIFICATION_DRAW: { if (!is_inside_tree() || !Engine::get_singleton()->is_editor_hint()) break; if (screen_drawing_enabled) { Color area_axis_color(0.5, 0.42, 0.87, 0.63); float area_axis_width = 1; if (is_current()) { area_axis_width = 3; area_axis_color.a = 0.83; } Transform2D inv_camera_transform = get_camera_transform().affine_inverse(); Size2 screen_size = get_viewport_rect().size; Vector2 screen_endpoints[4] = { inv_camera_transform.xform(Vector2(0, 0)), inv_camera_transform.xform(Vector2(screen_size.width, 0)), inv_camera_transform.xform(Vector2(screen_size.width, screen_size.height)), inv_camera_transform.xform(Vector2(0, screen_size.height)) }; Transform2D inv_transform = get_global_transform().affine_inverse(); // undo global space for (int i = 0; i < 4; i++) { draw_line(inv_transform.xform(screen_endpoints[i]), inv_transform.xform(screen_endpoints[(i + 1) % 4]), area_axis_color, area_axis_width); } } if (limit_drawing_enabled) { Color limit_drawing_color(1, 1, 0, 0.63); float limit_drawing_width = 1; if (is_current()) { limit_drawing_color.a = 0.83; limit_drawing_width = 3; } Vector2 camera_origin = get_global_transform().get_origin(); Vector2 camera_scale = get_global_transform().get_scale().abs(); Vector2 limit_points[4] = { (Vector2(limit[MARGIN_LEFT], limit[MARGIN_TOP]) - camera_origin) / camera_scale, (Vector2(limit[MARGIN_RIGHT], limit[MARGIN_TOP]) - camera_origin) / camera_scale, (Vector2(limit[MARGIN_RIGHT], limit[MARGIN_BOTTOM]) - camera_origin) / camera_scale, (Vector2(limit[MARGIN_LEFT], limit[MARGIN_BOTTOM]) - camera_origin) / camera_scale }; for (int i = 0; i < 4; i++) { draw_line(limit_points[i], limit_points[(i + 1) % 4], limit_drawing_color, limit_drawing_width); } } if (margin_drawing_enabled) { Color margin_drawing_color(0, 1, 1, 0.63); float margin_drawing_width = 1; if (is_current()) { margin_drawing_width = 3; margin_drawing_color.a = 0.83; } Transform2D inv_camera_transform = get_camera_transform().affine_inverse(); Size2 screen_size = get_viewport_rect().size; Vector2 margin_endpoints[4] = { inv_camera_transform.xform(Vector2((screen_size.width / 2) - ((screen_size.width / 2) * drag_margin[MARGIN_LEFT]), (screen_size.height / 2) - ((screen_size.height / 2) * drag_margin[MARGIN_TOP]))), inv_camera_transform.xform(Vector2((screen_size.width / 2) + ((screen_size.width / 2) * drag_margin[MARGIN_RIGHT]), (screen_size.height / 2) - ((screen_size.height / 2) * drag_margin[MARGIN_TOP]))), inv_camera_transform.xform(Vector2((screen_size.width / 2) + ((screen_size.width / 2) * drag_margin[MARGIN_RIGHT]), (screen_size.height / 2) + ((screen_size.height / 2) * drag_margin[MARGIN_BOTTOM]))), inv_camera_transform.xform(Vector2((screen_size.width / 2) - ((screen_size.width / 2) * drag_margin[MARGIN_LEFT]), (screen_size.height / 2) + ((screen_size.height / 2) * drag_margin[MARGIN_BOTTOM]))) }; Transform2D inv_transform = get_global_transform().affine_inverse(); // undo global space for (int i = 0; i < 4; i++) { draw_line(inv_transform.xform(margin_endpoints[i]), inv_transform.xform(margin_endpoints[(i + 1) % 4]), margin_drawing_color, margin_drawing_width); } } } break; } }
void ResourceFormatSaverBinaryInstance::write_variant(const Variant& p_property,const PropertyInfo& p_hint) { switch(p_property.get_type()) { case Variant::NIL: { f->store_32(VARIANT_NIL); // don't store anything } break; case Variant::BOOL: { f->store_32(VARIANT_BOOL); bool val=p_property; f->store_32(val); } break; case Variant::INT: { f->store_32(VARIANT_INT); int val=p_property; f->store_32(val); } break; case Variant::REAL: { f->store_32(VARIANT_REAL); real_t val=p_property; f->store_real(val); } break; case Variant::STRING: { f->store_32(VARIANT_STRING); String val=p_property; save_unicode_string(val); } break; case Variant::VECTOR2: { f->store_32(VARIANT_VECTOR2); Vector2 val=p_property; f->store_real(val.x); f->store_real(val.y); } break; case Variant::RECT2: { f->store_32(VARIANT_RECT2); Rect2 val=p_property; f->store_real(val.pos.x); f->store_real(val.pos.y); f->store_real(val.size.x); f->store_real(val.size.y); } break; case Variant::VECTOR3: { f->store_32(VARIANT_VECTOR3); Vector3 val=p_property; f->store_real(val.x); f->store_real(val.y); f->store_real(val.z); } break; case Variant::PLANE: { f->store_32(VARIANT_PLANE); Plane val=p_property; f->store_real(val.normal.x); f->store_real(val.normal.y); f->store_real(val.normal.z); f->store_real(val.d); } break; case Variant::QUAT: { f->store_32(VARIANT_QUAT); Quat val=p_property; f->store_real(val.x); f->store_real(val.y); f->store_real(val.z); f->store_real(val.w); } break; case Variant::_AABB: { f->store_32(VARIANT_AABB); AABB val=p_property; f->store_real(val.pos.x); f->store_real(val.pos.y); f->store_real(val.pos.z); f->store_real(val.size.x); f->store_real(val.size.y); f->store_real(val.size.z); } break; case Variant::MATRIX32: { f->store_32(VARIANT_MATRIX32); Matrix32 val=p_property; f->store_real(val.elements[0].x); f->store_real(val.elements[0].y); f->store_real(val.elements[1].x); f->store_real(val.elements[1].y); f->store_real(val.elements[2].x); f->store_real(val.elements[2].y); } break; case Variant::MATRIX3: { f->store_32(VARIANT_MATRIX3); Matrix3 val=p_property; f->store_real(val.elements[0].x); f->store_real(val.elements[0].y); f->store_real(val.elements[0].z); f->store_real(val.elements[1].x); f->store_real(val.elements[1].y); f->store_real(val.elements[1].z); f->store_real(val.elements[2].x); f->store_real(val.elements[2].y); f->store_real(val.elements[2].z); } break; case Variant::TRANSFORM: { f->store_32(VARIANT_TRANSFORM); Transform val=p_property; f->store_real(val.basis.elements[0].x); f->store_real(val.basis.elements[0].y); f->store_real(val.basis.elements[0].z); f->store_real(val.basis.elements[1].x); f->store_real(val.basis.elements[1].y); f->store_real(val.basis.elements[1].z); f->store_real(val.basis.elements[2].x); f->store_real(val.basis.elements[2].y); f->store_real(val.basis.elements[2].z); f->store_real(val.origin.x); f->store_real(val.origin.y); f->store_real(val.origin.z); } break; case Variant::COLOR: { f->store_32(VARIANT_COLOR); Color val=p_property; f->store_real(val.r); f->store_real(val.g); f->store_real(val.b); f->store_real(val.a); } break; case Variant::IMAGE: { f->store_32(VARIANT_IMAGE); Image val =p_property; if (val.empty()) { f->store_32(IMAGE_ENCODING_EMPTY); break; } int encoding=IMAGE_ENCODING_RAW; float quality=0.7; if (val.get_format() <= Image::FORMAT_INDEXED_ALPHA) { //can only compress uncompressed stuff if (p_hint.hint==PROPERTY_HINT_IMAGE_COMPRESS_LOSSY && Image::lossy_packer) { encoding=IMAGE_ENCODING_LOSSY; float qs=p_hint.hint_string.to_double(); if (qs!=0.0) quality=qs; } else if (p_hint.hint==PROPERTY_HINT_IMAGE_COMPRESS_LOSSLESS && Image::lossless_packer) { encoding=IMAGE_ENCODING_LOSSLESS; } } f->store_32(encoding); //raw encoding if (encoding==IMAGE_ENCODING_RAW) { f->store_32(val.get_width()); f->store_32(val.get_height()); f->store_32(val.get_mipmaps()); switch(val.get_format()) { case Image::FORMAT_GRAYSCALE: f->store_32(IMAGE_FORMAT_GRAYSCALE ); break; ///< one byte per pixel: f->store_32(IMAGE_FORMAT_ ); break; 0-255 case Image::FORMAT_INTENSITY: f->store_32(IMAGE_FORMAT_INTENSITY ); break; ///< one byte per pixel: f->store_32(IMAGE_FORMAT_ ); break; 0-255 case Image::FORMAT_GRAYSCALE_ALPHA: f->store_32(IMAGE_FORMAT_GRAYSCALE_ALPHA ); break; ///< two bytes per pixel: f->store_32(IMAGE_FORMAT_ ); break; 0-255. alpha 0-255 case Image::FORMAT_RGB: f->store_32(IMAGE_FORMAT_RGB ); break; ///< one byte R: f->store_32(IMAGE_FORMAT_ ); break; one byte G: f->store_32(IMAGE_FORMAT_ ); break; one byte B case Image::FORMAT_RGBA: f->store_32(IMAGE_FORMAT_RGBA ); break; ///< one byte R: f->store_32(IMAGE_FORMAT_ ); break; one byte G: f->store_32(IMAGE_FORMAT_ ); break; one byte B: f->store_32(IMAGE_FORMAT_ ); break; one byte A case Image::FORMAT_INDEXED: f->store_32(IMAGE_FORMAT_INDEXED ); break; ///< index byte 0-256: f->store_32(IMAGE_FORMAT_ ); break; and after image end: f->store_32(IMAGE_FORMAT_ ); break; 256*3 bytes of palette case Image::FORMAT_INDEXED_ALPHA: f->store_32(IMAGE_FORMAT_INDEXED_ALPHA ); break; ///< index byte 0-256: f->store_32(IMAGE_FORMAT_ ); break; and after image end: f->store_32(IMAGE_FORMAT_ ); break; 256*4 bytes of palette (alpha) case Image::FORMAT_BC1: f->store_32(IMAGE_FORMAT_BC1 ); break; // DXT1 case Image::FORMAT_BC2: f->store_32(IMAGE_FORMAT_BC2 ); break; // DXT3 case Image::FORMAT_BC3: f->store_32(IMAGE_FORMAT_BC3 ); break; // DXT5 case Image::FORMAT_BC4: f->store_32(IMAGE_FORMAT_BC4 ); break; // ATI1 case Image::FORMAT_BC5: f->store_32(IMAGE_FORMAT_BC5 ); break; // ATI2 case Image::FORMAT_PVRTC2: f->store_32(IMAGE_FORMAT_PVRTC2 ); break; case Image::FORMAT_PVRTC2_ALPHA: f->store_32(IMAGE_FORMAT_PVRTC2_ALPHA ); break; case Image::FORMAT_PVRTC4: f->store_32(IMAGE_FORMAT_PVRTC4 ); break; case Image::FORMAT_PVRTC4_ALPHA: f->store_32(IMAGE_FORMAT_PVRTC4_ALPHA ); break; case Image::FORMAT_ETC: f->store_32(IMAGE_FORMAT_ETC); break; case Image::FORMAT_CUSTOM: f->store_32(IMAGE_FORMAT_CUSTOM ); break; default: {} } int dlen = val.get_data().size(); f->store_32(dlen); DVector<uint8_t>::Read r = val.get_data().read(); f->store_buffer(r.ptr(),dlen); _pad_buffer(dlen); } else { DVector<uint8_t> data; if (encoding==IMAGE_ENCODING_LOSSY) { data=Image::lossy_packer(val,quality); } else if (encoding==IMAGE_ENCODING_LOSSLESS) { data=Image::lossless_packer(val); } int ds=data.size(); f->store_32(ds); if (ds>0) { DVector<uint8_t>::Read r = data.read(); f->store_buffer(r.ptr(),ds); _pad_buffer(ds); } } } break; case Variant::NODE_PATH: { f->store_32(VARIANT_NODE_PATH); NodePath np=p_property; f->store_16(np.get_name_count()); uint16_t snc = np.get_subname_count(); if (np.is_absolute()) snc|=0x8000; f->store_16(snc); for(int i=0;i<np.get_name_count();i++) f->store_32(get_string_index(np.get_name(i))); for(int i=0;i<np.get_subname_count();i++) f->store_32(get_string_index(np.get_subname(i))); f->store_32(get_string_index(np.get_property())); } break; case Variant::_RID: { f->store_32(VARIANT_RID); WARN_PRINT("Can't save RIDs"); RID val = p_property; f->store_32(val.get_id()); } break; case Variant::OBJECT: { f->store_32(VARIANT_OBJECT); RES res = p_property; if (res.is_null()) { f->store_32(OBJECT_EMPTY); return; // don't save it } if (res->get_path().length() && res->get_path().find("::")==-1) { f->store_32(OBJECT_EXTERNAL_RESOURCE); save_unicode_string(res->get_save_type()); String path=relative_paths?local_path.path_to_file(res->get_path()):res->get_path(); if (no_extensions) path=path.basename()+".*"; save_unicode_string(path); } else { if (!resource_map.has(res)) { f->store_32(OBJECT_EMPTY); ERR_EXPLAIN("Resource was not pre cached for the resource section, bug?"); ERR_FAIL(); } f->store_32(OBJECT_INTERNAL_RESOURCE); f->store_32(resource_map[res]); //internal resource } } break; case Variant::INPUT_EVENT: { f->store_32(VARIANT_INPUT_EVENT); WARN_PRINT("Can't save InputEvent (maybe it could..)"); } break; case Variant::DICTIONARY: { f->store_32(VARIANT_DICTIONARY); Dictionary d = p_property; f->store_32(uint32_t(d.size())|(d.is_shared()?0x80000000:0)); List<Variant> keys; d.get_key_list(&keys); for(List<Variant>::Element *E=keys.front();E;E=E->next()) { //if (!_check_type(dict[E->get()])) // continue; write_variant(E->get()); write_variant(d[E->get()]); } } break; case Variant::ARRAY: { f->store_32(VARIANT_ARRAY); Array a=p_property; f->store_32(uint32_t(a.size())|(a.is_shared()?0x80000000:0)); for(int i=0;i<a.size();i++) { write_variant(a[i]); } } break; case Variant::RAW_ARRAY: { f->store_32(VARIANT_RAW_ARRAY); DVector<uint8_t> arr = p_property; int len=arr.size(); f->store_32(len); DVector<uint8_t>::Read r = arr.read(); f->store_buffer(r.ptr(),len); _pad_buffer(len); } break; case Variant::INT_ARRAY: { f->store_32(VARIANT_INT_ARRAY); DVector<int> arr = p_property; int len=arr.size(); f->store_32(len); DVector<int>::Read r = arr.read(); for(int i=0;i<len;i++) f->store_32(r[i]); } break; case Variant::REAL_ARRAY: { f->store_32(VARIANT_REAL_ARRAY); DVector<real_t> arr = p_property; int len=arr.size(); f->store_32(len); DVector<real_t>::Read r = arr.read(); for(int i=0;i<len;i++) { f->store_real(r[i]); } } break; case Variant::STRING_ARRAY: { f->store_32(VARIANT_STRING_ARRAY); DVector<String> arr = p_property; int len=arr.size(); f->store_32(len); DVector<String>::Read r = arr.read(); for(int i=0;i<len;i++) { save_unicode_string(r[i]); } } break; case Variant::VECTOR3_ARRAY: { f->store_32(VARIANT_VECTOR3_ARRAY); DVector<Vector3> arr = p_property; int len=arr.size(); f->store_32(len); DVector<Vector3>::Read r = arr.read(); for(int i=0;i<len;i++) { f->store_real(r[i].x); f->store_real(r[i].y); f->store_real(r[i].z); } } break; case Variant::VECTOR2_ARRAY: { f->store_32(VARIANT_VECTOR2_ARRAY); DVector<Vector2> arr = p_property; int len=arr.size(); f->store_32(len); DVector<Vector2>::Read r = arr.read(); for(int i=0;i<len;i++) { f->store_real(r[i].x); f->store_real(r[i].y); } } break; case Variant::COLOR_ARRAY: { f->store_32(VARIANT_COLOR_ARRAY); DVector<Color> arr = p_property; int len=arr.size(); f->store_32(len); DVector<Color>::Read r = arr.read(); for(int i=0;i<len;i++) { f->store_real(r[i].r); f->store_real(r[i].g); f->store_real(r[i].b); f->store_real(r[i].a); } } break; default: { ERR_EXPLAIN("Invalid variant"); ERR_FAIL(); } } }