Abstract: A sliced graphics processing unit (GPU) architecture in processor-based devices is disclosed. In some aspects, a GPU based on a sliced GPU architecture includes multiple hardware slices. The GPU further includes a command processor (CP) circuit and an unslice primitive controller (PC_US). Upon receiving a graphics instruction from a central processing unit (CPU), the CP circuit determines a graphics workload, and transmits the graphics workload to the PC_US. The PC_US then partitions the graphics workload into multiple subbatches and distributes each subbatch to a PC_S of a hardware slice for processing.

Abstract: A sliced graphics processing unit (GPU) architecture in processor-based devices is disclosed. In some aspects, a GPU based on a sliced GPU architecture includes multiple hardware slices. The GPU further includes a command processor (CP) circuit and an unslice primitive controller (PC_US). Upon receiving a graphics instruction from a central processing unit (CPU), the CP circuit determines a graphics workload, and transmits the graphics workload to the PC_US. The PC_US then partitions the graphics workload into multiple subbatches and distributes each subbatch to a PC_S of a hardware slice for processing.

Abstract: The present disclosure relates to methods and devices for graphics processing including an apparatus, e.g., a GPU. The apparatus may process a first workload of a plurality of workloads at each of multiple clusters in a GPU pipeline. The apparatus may also increment a plurality of performance counters during the processing of the first workload at each of the multiple clusters. Further, the apparatus may determine, at each of the multiple clusters, whether the first workload is finished processing. The apparatus may also read, upon determining that the first workload is finished processing, a value of each of the multiple clusters for each of the plurality of performance counters. Additionally, the apparatus may transmit an indication of the read value of each of the multiple clusters for all of the plurality of performance counters.

Abstract: Deferred command execution by a command processor (CP) may be performed based on a determination that at least one command of a primary buffer is located between a first link of the primary buffer and a second link of the primary buffer. The first link and the second link may be to one or more secondary buffers that includes a set of commands. The CP may initiate, before executing, a fetch of a first set of commands in the set of commands based on the first link, a fetch of the at least one command of the primary buffer, and a fetch of a second set of commands in the set of commands based on the second link. After initiating the fetch of the second set of commands, the CP may execute the first set of commands, the at least one command of the primary buffer, and the second set of commands.

Abstract: Systems, methods, and computer-readable media are provided for signing and executing graphics processing unit (GPU) commands. In some examples, a method can include receiving, by a GPU, one or more commands including one or more verification signatures generated using a processor, each verification signature of the one or more verification signatures including a first value generated based on the one or more commands; generating, by the GPU, one or more additional verification signatures associated with the one or more commands, wherein each verification signature of the one or more additional verification signatures includes a second value generated by the GPU based on the one or more commands; and determining, by the GPU, a validity of the one or more commands based on a comparison of the one or more verification signatures and the one or more additional verification signatures.

Abstract: Deferred command execution by a command processor (CP) may be performed based on a determination that at least one command of a primary buffer is located between a first link of the primary buffer and a second link of the primary buffer. The first link and the second link may be to one or more secondary buffers that includes a set of commands. The CP may initiate, before executing, a fetch of a first set of commands in the set of commands based on the first link, a fetch of the at least one command of the primary buffer, and a fetch of a second set of commands in the set of commands based on the second link. After initiating the fetch of the second set of commands, the CP may execute the first set of commands, the at least one command of the primary buffer, and the second set of commands.

Abstract: The present disclosure relates to methods and apparatus for graphics processing. In some aspects, multiple processing units can be in a graphics processing pipeline of a GPU. The apparatus can also group the multiple processing units into one or more processing unit clusters. In some aspects, each of the one or more processing unit clusters can correspond to one or more context registers. Additionally, the apparatus can determine one or more context states of the one or more context registers in each of the one or more processing unit clusters. Also, the apparatus can implement one or more execution counters corresponding to at least one of the one or more processing unit clusters in the graphics processing pipeline, where each of the one or more execution counters includes an execution value.

Abstract: The present disclosure relates to methods and apparatus of operation of a processing unit. The apparatus can update a first context register of one or more context registers based on a first programming state. In some aspects, the one or more context registers can be associated with at least one processing unit cluster in a graphics processing pipeline of the processing unit. The apparatus can execute a first draw call function corresponding to the first programming state. The apparatus can determine whether at least one additional first draw call function corresponds to the first programming state. In some aspects, the at least one additional first draw call function can follow the first draw call function in the graphics processing pipeline. Also, the apparatus can execute the at least one additional first draw call function when the at least one additional first draw call function corresponds to the first programming state.

Abstract: The present disclosure relates to methods and apparatus of operation of a processing unit. The apparatus can update a first context register of one or more context registers based on a first programming state. In some aspects, the one or more context registers can be associated with at least one processing unit cluster in a graphics processing pipeline of the processing unit. The apparatus can execute a first draw call function corresponding to the first programming state. The apparatus can determine whether at least one additional first draw call function corresponds to the first programming state. In some aspects, the at least one additional first draw call function can follow the first draw call function in the graphics processing pipeline. Also, the apparatus can execute the at least one additional first draw call function when the at least one additional first draw call function corresponds to the first programming state.

Abstract: A method, an apparatus, and a computer-readable medium may be configured to perform a binning pass for a first frame. The apparatus may be configured to perform a rendering pass for the first frame in parallel with the binning pass. The apparatus may be configured to enhance efficiency in performing a binning pass and a rendering pass for tile-based rendering, such that the binning pass and rendering pass are performed concurrently. The apparatus may be configured to perform the binning pass using a first hardware pipeline, and may be configured to perform the rendering pass using a second hardware pipeline.

Abstract: Methods, systems, and devices for rendering are described. A device may divide a frame into a plurality of bins. The device may generate a command stream containing multiple repetitions of a fixed-stride draw table (FSDT), where each repetition of the FSDT includes a respective state vector for one or more hardware registers of a set of hardware registers. The device may identify, for each bin, a subset of the multiple repetitions of the FSDT in the command stream that include a live draw call. The device may execute, using the set of hardware registers, one or more rendering commands for each bin based at least in part on the corresponding subset of the multiple repetitions of the FSDT.