A system-level XR toolkit synchronizes virtual modifications across devices and corrects rendering inconsistencies in multi-user sessions.
A computing cluster splits AR object rendering across pods to avoid single-server bottlenecks and support personalized multi-user views.
User input is converted into initial motion conditions for a physics engine, improving object direction accuracy while reducing repeated attempts.
Eye-tracked AR rendering adjusts color and luminance by local background to keep overlays distinguishable in variable lighting.
Block-based metaverse content separates approval and delivery steps to protect uniqueness, manage rights, and link with physical objects.
Discrete 3D interface layers let apps request semantic UI depth while the system controls placement to prevent privacy leakage.
An AR wall-mounting workflow calculates the anchor spot from object hardware and shows a visible mark to improve placement accuracy and avoid wall damage.
By comparing both users' room shapes, the system sets MR play areas that keep remote 3D avatars from appearing inside walls.
AR messages are pre-set with time, location, or visual triggers so content and audio appear asynchronously at the right moment.
Combines an occluder mask with camera-based passthrough to reduce ghosting, blur, and halo artifacts in near-eye AR.
Distributed ICG and CPE gratings shift and expand AR images across depth planes to reduce accommodation-vergence discomfort.
Depth-layered transparency separates real and virtual content in surgical microscope views, preserving depth perception while reducing observer distraction.
Spatial anchors and temporary position-orientation locks keep mixed-reality views aligned as users switch between human-scale and large-scale perspectives.