This site uses cookies to improve your experience. To help us insure we adhere to various privacy regulations, please select your country/region of residence. If you do not select a country, we will assume you are from the United States. Select your Cookie Settings or view our Privacy Policy and Terms of Use.
Cookie Settings
Cookies and similar technologies are used on this website for proper function of the website, for tracking performance analytics and for marketing purposes. We and some of our third-party providers may use cookie data for various purposes. Please review the cookie settings below and choose your preference.
Used for the proper function of the website
Used for monitoring website traffic and interactions
Cookie Settings
Cookies and similar technologies are used on this website for proper function of the website, for tracking performance analytics and for marketing purposes. We and some of our third-party providers may use cookie data for various purposes. Please review the cookie settings below and choose your preference.
Strictly Necessary: Used for the proper function of the website
Performance/Analytics: Used for monitoring website traffic and interactions
NetEase Thunder Fire Games Uses Mesh Shading To Create Beautiful Game Environments for Justice In December, we interviewed Haiyong Qian, NetEase Game Engine. Recently, NetEase introduced Mesh Shader support to Justice. Q: What are you trying to achieve by adding mesh shading to Justice? Q: How do Mesh Shaders solve this?
Framerate Optimization To address this, Unity offers several profiling and debugging tools. Unity’s Frustum Culling and Depth Rejection techniques help reduce the amount of geometry processed by discarding objects outside the camera’s view or hidden by others. In some cases, Solid Angle Culling reduced ARTAS processing time by 60%.
Before getting into the GPU side, several optimizations have been done on the CPU side: Culling is now done in a brute-force way which is extremely cache efficient. Everything in the main frame is culled at the same time, objects, light cascades, SDFGI cascades, etc. These test do culling on 10k objects.
Rendering: Portal occlusion culling. Such use-after-free access needs to be guarded with is_instance_valid(obj) , but this has been surprisingly difficult to get right due to a number of bugs and inconsistencies between debug and release builds. Portal occlusion culling. Core: Promote object validity checks to release builds.
NVIDIA Reflex NVIDIA Reflex is a toolkit to measure, debug and improve CPU+GPU latency in competitive multiplayer games. Enjoy great scaling across all GeForce RTX GPUs and resolutions, including the new ultra performance mode for 8K gaming. Access the NVIDIA DLSS plugin for UE4 here. Updates to NVIDIA RTX UE 4.25 The new NVIDIA UE 4.25
While this is not a feature per se, it fixes a major annoyance that users have had with pointers to freed objects unexpectedly being re-assigned to new objects, causing hard-to-debug issues. this bug was fixed with a more comprehensive approach which prevents dangling Variant pointers in both release and debug builds. Other changes.
It can be directly in the AS build calls or in some related task like the culling of the objects. Cull instances for TLAS. Instead, cull instances depending on the situation. For example, consider culling based on an expanded camera frustum. Consider representing mesh particles as instances in TLAS.
While this is not a feature per se, it fixes a major annoyance that users have had with pointers to freed objects unexpectedly being re-assigned to new objects, causing hard-to-debug issues. C#: Allow debugging exported games ( GH-38115 ). Core: Fixed false positives in the culling system ( GH-37863 ). The fix made in the 3.2
While this is not a feature per se, it fixes a major annoyance that users have had with pointers to freed objects unexpectedly being re-assigned to new objects, causing hard-to-debug issues. this bug was fixed with a more comprehensive approach which prevents dangling Variant pointers in both release and debug builds. Other changes.
The new NavigationServer adds support for obstacle avoidance using the RVO2 library, and navigation meshes can now be baked at runtime. Following on from the addition of OccluderShapeSphere in 3.4 , lawnjelly now brings us a more adaptable and easy way to add basic occlusion culling in the form of the OccluderShapePolygon.
Such pointer could be reported as valid even though the memory it points to was not, or worse, that memory could now hold a different object, leading to hard to debug situations. Thanks to the work of Pedro ( RandomShaper ), debug versions of Godot (e.g. Thanks to the work of Pedro ( RandomShaper ), debug versions of Godot (e.g.
The new NavigationServer adds support for obstacle avoidance using the RVO2 library, and navigation meshes can now be baked at runtime. Following on from the addition of OccluderShapeSphere in 3.4 , lawnjelly now brings us a more adaptable and easy way to add basic occlusion culling in the form of the OccluderShapePolygon.
The new NavigationServer adds support for obstacle avoidance using the RVO2 library, and navigation meshes can now be baked at runtime. Following on from the addition of OccluderShapeSphere in 3.4 , lawnjelly now brings us a more adaptable and easy way to add basic occlusion culling in the form of the OccluderShapePolygon.
The new NavigationServer adds support for obstacle avoidance using the RVO2 library, and navigation meshes can now be baked at runtime. Following on from the addition of OccluderShapeSphere in 3.4 , lawnjelly now brings us a more adaptable and easy way to add basic occlusion culling in the form of the OccluderShapePolygon.
The new NavigationServer adds support for obstacle avoidance using the RVO2 library, and navigation meshes can now be baked at runtime. Following on from the addition of OccluderShapeSphere in 3.4 , lawnjelly now brings us a more adaptable and easy way to add basic occlusion culling in the form of the OccluderShapePolygon.
The new NavigationServer adds support for obstacle avoidance using the RVO2 library, and navigation meshes can now be baked at runtime. Following on from the addition of OccluderShapeSphere in 3.4 , lawnjelly now brings us a more adaptable and easy way to add basic occlusion culling in the form of the OccluderShapePolygon.
This adds support for obstacle avoidance using the RVO2 library, and navigation meshes can now be baked at runtime. Following on from the addition of OccluderShapeSphere in 3.4 , lawnjelly now brings us a more adaptable and easy way to add basic occlusion culling in the form of the OccluderShapePolygon. back in 2020!
The new NavigationServer adds support for obstacle avoidance using the RVO2 library, and navigation meshes can now be baked at runtime. Following on from the addition of OccluderShapeSphere in 3.4 , lawnjelly now brings us a more adaptable and easy way to add basic occlusion culling in the form of the OccluderShapePolygon.
Thanks to all pre-release testers who help us find and debug regressions! Core: Disable decayment of freed Objects to null in debug builds ( GH-41866 ). Physics: Allow CollisionObject to show collision shape meshes ( GH-45783 ). Rendering: Various fixes to light culling ( GH-46694 ). stable soon™.
We organize all of the trending information in your field so you don't have to. Join 5,000+ users and stay up to date on the latest articles your peers are reading.
You know about us, now we want to get to know you!
Let's personalize your content
Let's get even more personalized
We recognize your account from another site in our network, please click 'Send Email' below to continue with verifying your account and setting a password.
Let's personalize your content