void Awake()
{
var perfMgr = PerfSceneManager.GetInstance();
perfMgr.LoadSceneAdditive(SCENE.TOWER_LOW_COUNT);
perfMgr.LoadSceneAdditive(SCENE.UI);
}
void Awake()
{
var perfMgr = PerfSceneManager.GetInstance();
//perfMgr.LoadScene(PerfSceneManager.SCENE.BUILDINGS);
perfMgr.LoadSceneAdditive(SCENE.UI);
}
void Awake()
{
PerformanceSceneManager = PerfSceneManager.GetInstance();
Assert.AreNotEqual(null, PerformanceSceneManager);
// Load UI scene and get a reference
PerformanceSceneManager.LoadSceneAdditive(SCENE.UI);
}
void SwitchToIndexScene()
{
ReleaseAllResources();
var sceneMgr = PerfSceneManager.GetInstance();
Destroy(UISceneRoot);
sceneMgr.LoadScene(SCENE.SCENE_INDEX);
}
void Start()
{
RenderPathButton.onClick.AddListener(() => ClickedRenderPathButton());
RenderQueueButton.onClick.AddListener(() => ClickedRenderQueueButton());
ShadowSceneButton.onClick.AddListener(() => ClickedShadowButton());
MultipleCamerasButton.onClick.AddListener(() => ClickedMultiCamButton());
TransparencyDisableButton.onClick.AddListener(() => ClickedTransparencyButton());
LightMapProbeButton.onClick.AddListener(() => ClickedLightMapProbeButton());
HighResTexButton.onClick.AddListener(() => ClickedHighResTexButton());
ExtraForwardPassButton.onClick.AddListener(() => ClickedExtraForwardPassButton());
SimpleShader.onClick.AddListener(() => ClickedSimpleShader());
PerformanceSceneManager = PerfSceneManager.GetInstance();
}
// Necessary as tagged MainCamera exists in another scene
void Awake()
{
var perfMgr = PerfSceneManager.GetInstance();
perfMgr.LoadSceneAdditive(SCENE.TOWER_LOW_COUNT);
perfMgr.LoadSceneAdditive(SCENE.UI);
RenderingData deferredLightingInf = new RenderingData("Legacy Deferred", RenderingPath.DeferredLighting);
deferredLightingInf.Description = "Legacy version of the deferred renderer.";
renderDict[RENDERING_TYPE.LEGACY_DEFERRED] = deferredLightingInf;
RenderingData deferredShadingRef = new RenderingData("Deferred", RenderingPath.DeferredShading);
deferredShadingRef.Description = "Lighting performance unrelated to scene geometry complexity. Trade heavy lighting computation for more memory usage leading to a higher chance of being memory bound. Real-time shadows and per-pixel effects supported. Semi-transparent rendering done in additional forwarded pass. No support for anti-aliasing and Mesh Renderer's Receive Shadows flag.";
renderDict[RENDERING_TYPE.DEFERRED] = deferredShadingRef;
RenderingData forwardInf = new RenderingData("Forward", RenderingPath.Forward);
forwardInf.Description = "Lighting done with a combination of per-pixel, per-vertex, and spherical harmonic techniques. Real-time shadows and other per-pixel effects supported. Does not incur memory cost required to build the g-buffer as in deferred. Can lead to many draw calls covering the same pixel(s) if care isn't taken.";
renderDict[RENDERING_TYPE.FORWARD] = forwardInf;
RenderingData vertexLitInf = new RenderingData("Vertex Lit", RenderingPath.VertexLit);
vertexLitInf.Description = "Does calculations per-vertex, and not per-pixel. Can improve mobile performance. Real-time shadows and other per-pixel effects not supported. Low quality lighting.";
renderDict[RENDERING_TYPE.VERTEX_LIT] = vertexLitInf;
}
void Start()
{
var perfMgr = PerfSceneManager.GetInstance();
perfMgr.LoadSceneAdditive(SCENE.UI);
}