Abstract: Methods, systems and apparatuses may provide for technology that renders a plurality of virtual monitors to a head mounted display (HMD), detects a change in gaze direction with respect to the HMD, and conducts a modification of one or more of a refresh rate or a texture capture rate associated with at least one of the plurality of virtual monitors based on the change in gaze direction.

Abstract: Methods, systems and apparatuses may provide for technology that conducts, via a plurality of concurrent threads, transfers of graphics resources into and out of graphics memory, wherein the transfers bypass lock operations between the plurality of concurrent threads, generates frames based on the graphics resources in the graphics memory, and streams the frames to a display. In one example, the transfers also bypass explicit wait operations for the graphics resources to be fully resident in the graphics memory.

Abstract: Variable width interleaved coding for graphics processing is described. An example of an apparatus includes one or more processors including a graphic processor; and memory for storage of data including data for graphics processing, wherein the graphics processor includes an encoder pipeline to provide variable width interleaved coding and a decoder pipeline to decode the variable width interleaved coding, and wherein the encoder pipeline is to receive a plurality of bitstreams from workgroups; perform parallel entropy encoding on the bitstreams to generate a plurality of encoded bitstreams for each of the workgroups; perform variable interleaving of the bitstreams for each workgroup based at least in part on data requirements for decoding received from the decoder pipeline; and compact outputs for each of the workgroups into a contiguous stream of interleaved data.

Abstract: Methods, systems and apparatuses may provide for technology that renders a plurality of virtual monitors to a head mounted display (HMD), detects a change in gaze direction with respect to the HMD, and conducts a modification of one or more of a refresh rate or a texture capture rate associated with at least one of the plurality of virtual monitors based on the change in gaze direction.

Abstract: Graphics processing systems and methods are described. For example, one embodiment of a graphics processing apparatus comprises a graphics processing unit (GPU), the GPU including a high priority command streamer to dispatch high priority commands from an application, a normal priority command streamer to receive normal priority commands through a command path, one or more execution units, and a thread dispatcher. The thread dispatcher to dispatch normal priority commands to the one or more executions units, determine the high priority command streamer includes at least one command, cause the one or more execution units to save their states, and dispatch at least one command from the high priority queue to the one or more execution units.

Abstract: A mechanism is described for facilitating real and virtual collision-free movement of autonomous vehicles in mixed-reality environments. An apparatus of embodiments, as described herein, includes one or more processors including reception and selection logic to receive real environment data of a physical location associated with an application, and combined environment logic to combine the real environment data with virtual environment data associated with the application to generate a merged environment. The apparatus may further include navigation guidance logic to generate navigation guidance based on the merged environment, and communication/compatibility logic to transmit the navigation guidance to an autonomous vehicle to perform collision-free navigation within the merged environment.

Abstract: Graphics processing systems and methods are described. For example, one embodiment of a graphics processing apparatus comprises a graphics processing unit (GPU), the GPU including a high priority command streamer to dispatch high priority commands from an application, a normal priority command streamer to receive normal priority commands through a command path, one or more execution units, and a thread dispatcher. The thread dispatcher to dispatch normal priority commands to the one or more executions units, determine the high priority command streamer includes at least one command, cause the one or more execution units to save their states, and dispatch at least one command from the high priority queue to the one or more execution units.

Abstract: Apparatuses, systems, and methods may sort a value. A sorter may include a data exchanger to exchange a value that is to be held by a first execution element of a plurality of execution elements with a value that is to be held by a second execution element of the plurality of execution elements. The sorter may also include a data comparator to compare a value that is to be held by the first execution element with the value from the second execution element and a value that is to be held by the second execution element with the value from the first execution element. The values involved in the exchange and the compare may remain locally sorted and globally shuffled in a final output of the sorter that is to be stored.

Abstract: Methods, systems and data structures produce a rasterizer. A graphical state is detected on a machine architecture. The graphical state is used for assembling a shell rasterizer. The machine architecture is used for selecting replacement logic that replaces portions of shell logic in the shell rasterizer. The machine architecture is used for selectively inserting memory management logic into portions of the shell logic to produce.

Abstract: Methods, systems and data structures produce a rasterizer. A graphical state is detected on a machine architecture. The graphical state is used for assembling a shell rasterizer. The machine architecture is used for selecting replacement logic that replaces portions of shell logic in the shell rasterizer. The machine architecture is used for selectively inserting memory management logic into portions of the shell logic to produce.

Abstract: Methods, systems and data structures produce a rasterizer. A graphical state is detected on a machine architecture. The graphical state is used for assembling a shell rasterizer. The machine architecture is used for selecting replacement logic that replaces portions of shell logic in the shell rasterizer. The machine architecture is used for selectively inserting memory management logic into portions of the shell logic to produce.

Abstract: Methods, systems and data structures produce a rasterizer. A graphical state is detected on a machine architecture The graphical state is used for assembling a shell rasterizer. The machine architecture is used for selecting replacement logic that replaces portions of shell logic in the shell rasterizer. The machine architecture is used for selectively inserting memory management logic into portions of the shell logic to produce.

Abstract: Methods, systems and data structures produce a rasterizer. A graphical state is detected on a machine architecture. The graphical state is used for assembling a shell rasterizer. The machine architecture is used for selecting replacement logic that replaces portions of shell logic in the shell rasterizer. The machine architecture is used for selectively inserting memory management logic into portions of the shell logic to produce.

Abstract: Methods, systems and data structures produce a rasterizer. A graphical state is detected on a machine architecture. The graphical state is used for assembling a shell rasterizer. The machine architecture is used for selecting replacement logic that replaces portions of shell logic in the shell rasterizer. The machine architecture is used for selectively inserting memory management logic into portions of the shell logic to produce.

Abstract: Methods, systems and data structures produce a rasterizer. A graphical state is detected on a machine architecture. The graphical state is used for assembling a shell rasterizer. The machine architecture is used for selecting replacement logic that replaces portions of shell logic in the shell rasterizer. The machine architecture is used for selectively inserting memory management logic into portions of the shell logic to produce.

Abstract: Methods, systems and data structures produce a rasterizer. A graphical state is detected on a machine architecture. The graphical state is used for assembling a shell rasterizer. The machine architecture is used for selecting replacement logic that replaces portions of shell logic in the shell rasterizer. The machine architecture is used for selectively inserting memory management logic into portions of the shell logic to produce.

Abstract: Methods, systems and data structures produce a rasterizer. A graphical state is detected on a machine architecture. The graphical state is used for assembling a shell rasterizer. The machine architecture is used for selecting replacement logic that replaces portions of shell logic in the shell rasterizer. The machine architecture is used for selectively inserting memory management logic into portions of the shell logic to produce.

Abstract: Methods, systems and data structures produce a rasterizer. A graphical state is detected on a machine architecture. The graphical state is used for assembling a shell rasterizer. The machine architecture is used for selecting replacement logic that replaces portions of shell logic in the shell rasterizer. The machine architecture is used for selectively inserting memory management logic into portions of the shell logic to produce.

Abstract: Methods, systems and data structures produce a rasterizer. A graphical state is detected on a machine architecture. The graphical state is used for assembling a shell rasterizer. The machine architecture is used for selecting replacement logic that replaces portions of shell logic in the shell rasterizer. The machine architecture is used for selectively inserting memory management logic into portions of the shell logic to produce.

Abstract: In a graphics pipeline, during or at the end of a rasterization stage, a post-clip output stage stores primitives and pixels are stored in a portion of memory. Availability of primitives and pixels during or at the end of the rasterization stage permits a variety of manners in which to process primitives and pixels.