Abstract: An apparatus and a method for controlling power consumption associated with a computing device having first and second processors configured to perform different types of operations includes providing a user interface that allows, during normal operation of the computing device, at least one of: (i) a user selection of desired performance levels of the first and second processors relative to one another, such that higher desired performance levels of one processor correspond to lower desired performance levels of the other processor, and (ii) a user selection of a desired performance level of the first processor and a user selection of a desired performance level of the second processor, the two user selections being made independently of one another. The apparatus and method control, during normal operation of the computing device, performance levels of the processors in response to the one or more user selections of the desired performance levels.

Abstract: A system and method for controlling characteristics of collected image data are disclosed. The system and method include performing pre-processing of an image using GPUs, configuring an optic based on the pre-processing, the configuring being designed to account for features of the pre-processed image, acquiring an image using the configured optic, processing the acquired image using GPUs, and determining if the processed acquired image accounts for feature of the pre-processed image, and the determination is affirmative, outputting the image, wherein if the determination is negative repeating the configuring of the optic and re-acquiring the image.

Abstract: A processing device is provided which includes memory and a processor. The processor is configured to receive an input image having a first resolution, generate linear down-sampled versions of the input image by down-sampling the input image via a linear upscaling network and generate non-linear down-sampled versions of the input image by down-sampling the input image via a non-linear upscaling network.

Abstract: A data processor is implemented as an integrated circuit. The data processor includes a processor die. The processor die is connected to an integrated voltage regulator die using die-to-die bonding. The integrated voltage regulator die provides a regulated voltage to the processor die, and the processor die operates in response to the regulated voltage.

Abstract: A graphics pipeline reduces the number of tessellation factors written to and read from a graphics memory. A hull shader stage of the graphics pipeline detects whether at least a threshold percentage of the tessellation factors for a thread group of patches are the same and, in some embodiments, whether at least the threshold percentage of the tessellation factors for a thread group of patches have a same value that either indicates that the plurality of patches are to be culled or that the plurality of patches are to be passed to a tessellator stage of the graphics pipeline.

Abstract: Various semiconductor chip devices and methods of making the same are disclosed. In one aspect, an apparatus is provided that includes a first redistribution layer (RDL) structure having a first plurality of conductor traces, a first molding layer on the first RDL structure, plural conductive pillars in the first molding layer, each of the conductive pillars including a first end and a second end, a second RDL structure on the first molding layer, the second RDL structure having a second plurality of conductor traces, and wherein some of the conductive pillars are electrically connected between some of the first plurality of conductor traces and some of the second plurality of conductor traces to provide a first inductor coil.

Abstract: A technique for accessing a memory having a high latency portion and a low latency portion is provided. The technique includes detecting a promotion trigger to promote data from the high latency portion to the low latency portion, in response to the promotion trigger, copying cache lines associated with the promotion trigger from the high latency portion to the low latency portion, and in response to a read request, providing data from either or both of the high latency portion or the low latency portion, based on a state associated with data in the high latency portion and the low latency portion.

Abstract: Memories that are configurable to operate in either a banked mode or a bit-separated mode. The memories include a plurality of memory banks; multiplexing circuitry; input circuitry; and output circuitry. The input circuitry inputs at least a portion of a memory address and configuration information to the multiplexing circuitry. The multiplexing circuitry generates read data by combining a selected subset of data corresponding to the address from each of the plurality of memory banks, the subset selected based on the configuration information, if the configuration information indicates a bit-separated mode. The multiplexing circuitry generates the read data by combining data corresponding to the address from one of the memory banks, the one of the memory banks selected based on the configuration information, if the configuration information indicates a banked mode. The output circuitry outputs the generated read data from the memory.

Abstract: A networked input/output memory management unit (IOMMU) includes a plurality of IOMMUs. The networked IOMMU receives a memory access request that includes a domain physical address generated by a first address translation layer. The networked IOMMU selectively translates the domain physical address into a physical address in a system memory using one of the plurality of IOMMUs that is selected based on a type of a device that generated the memory access request. In some cases, the networked IOMMU is connected to a graphics processing unit (GPU), at least one peripheral device, and the memory. The networked IOMMU includes a command queue to receive the memory access requests, a primary IOMMU to selectively translate the domain physical address in memory access requests from the GPU, and a secondary IOMMU to translate the domain physical address in memory requests from the peripheral device.

Abstract: Various semiconductor chip metallization layers and methods of manufacturing the same are disclosed. In aspect, a semiconductor chip is provided that includes a substrate, plural metallization layers on the substrate, a first conductor line in one of the metallization layers and a second conductor line in the one of the metallization layers in spaced apart relation to the first conductor line, each of the first conductor line and the second conductor line has a first line portion and a second line portion stacked on the first line portion, and a dielectric layer that has a portion positioned between the first conductor line and a second line, the portion has an air gap.

Abstract: A knob has a plurality of settings that configure a graphics pipeline. A first setting is associated with a first state of the graphics pipeline. The first setting is associated with the first state based on a measure of performance of the graphics pipeline while configured according to the first setting. The graphics pipeline is configured according to the first setting in response to the first state of the graphics pipeline matching a current state of the graphics pipeline. The graphics pipeline processes graphics according to the first setting. In some cases, the first setting is associated with the first state of the graphics pipeline by dithering or toggling the knob between the settings once per frame for a predetermined number of frames. The first setting achieves better performance than other ones of the plurality of settings during the predetermined number of frames.

Abstract: Improvements to graphics processing pipelines are disclosed. More specifically, the vertex shader stage, which performs vertex transformations, and the hull or geometry shader stages, are combined. If tessellation is disabled and geometry shading is enabled, then the graphics processing pipeline includes a combined vertex and graphics shader stage. If tessellation is enabled, then the graphics processing pipeline includes a combined vertex and hull shader stage. If tessellation and geometry shading are both disabled, then the graphics processing pipeline does not use a combined shader stage. The combined shader stages improve efficiency by reducing the number of executing instances of shader programs and associated resources reserved.

Abstract: A method and apparatus for scrambling and descrambling data in a computer system includes transmitting non-scrambled data from a first high speed inter chip (IP) link circuit located on a first chip to a first serializer/deserializer (SERDES) physical (PHY) circuit located on the first chip, the first high speed link IP indicating the data is not scrambled. The received non-scrambled data is scrambled by the first SERDES PHY circuit and transmitted to a second chip. The received scrambled data is descrambled by a second SERDES PHY circuit located on the second chip. The non-scrambled data is transmitted by the second SERDES PHY circuit to a second high speed link IP circuit located on the second chip to a third circuit for further processing or transmission.

Abstract: A memory fence or other similar operation is executed with reduced latency. An early fence operation is executed and acts as a hint to the processor executing the thread that executes the fence. This hint causes the processor to begin performing sub-operations for the fence earlier than if no such hint were executed. Examples of sub-operations for the fence include operations to make data written to by writes prior to the fence operation available to other threads. A resolving fence, which occurs after the early fence, performs the remaining sub-operations for the fence. By triggering some or all of the sub-operations for a memory fence that will occur in the future, the early fence operation reduces the amount of latency associated with that memory fence operation.

Abstract: A processor receives a request to access one or more levels of a partially resident texture (PRT) resource. The levels represent a texture at different levels of detail (LOD) and the request includes normalized coordinates indicating a location in the texture. The processor accesses a texture descriptor that includes dimensions of a first level of the levels and one or more offsets between a reference level and one or more second levels that are associated with one or more residency maps that indicate texels that are resident in the PRT resource. The processor translates the normalized coordinates to texel coordinates in the one or more residency maps based on the offset and accesses, in response to the request, the one or more residency maps based on the texel coordinates to determine whether texture data indicated by the normalized coordinates is resident in the PRT resource.

Abstract: Address-based filtering for load/store speculation includes maintaining a filtering table including table entries associated with ranges of addresses; in response to receiving an ordering check triggering transaction, querying the filtering table using a target address of the ordering check triggering transaction to determine if an instruction dependent upon the ordering check triggering transaction has previously been generated a physical address; and in response to determining that the filtering table lacks an indication that the instruction dependent upon the ordering check triggering transaction has previously been generated a physical address, bypassing a lookup operation in an ordering violation memory structure to determine whether the instruction dependent upon the ordering check triggering transaction is currently in-flight.

Abstract: A method operates a first-in-first-out (FIFO) buffer with a first clock, and operates one of a read pointer or a write pointer of the FIFO buffer with the first clock while operating the other one of the read pointer or write pointer with a second clock. One of a serializer fed from the FIFO buffer output, or a de-serializer feeding the FIFO buffer input, is operated with the second clock. Timing pulses indicate that the pointer operating with the second clock has reached a predetermined point in its cycle. The phase of the second clock is adjusted based on a relationship between the timing pulses and an advance period of the pointer operating with the first clock. The pointer operating with the first clock is reset to achieve a desired value for the relationship. A skew created from adjusting the phase of the second clock is corrected.

Abstract: A hybrid mechanism for operating on a data item in connection with an associative structure combines first-fit and K-choice. The hybrid mechanism leverages advantages of both approaches by choosing whether to insert, retrieve, delete, or modify a data item using either first-fit or K-choice. Based on the data item, a function of the data item, and/or other factors such as the load statistics of the associative structure, one of either first-fit or K-choice is used to improve operation on the associative structure across a variety of different load states of the associative structure.

Abstract: A system and method for protecting memory instructions against faults are described. The system and method include converting the slave instructions to dummy operations, modifying memory arbiter to issue up to N master and N slave global/shared memory instructions per cycle, sending master memory requests to memory system, using slave requests for error checking, entering master requests to the GM/LM FIFO, storing slave requests in a register, and comparing the entered master requests with the stored slave requests.

Abstract: A technique for manipulating a generic tensor is provided. The technique includes receiving a first request to perform a first operation on a generic tensor descriptor associated with the generic tensor, responsive to the first request, performing the first operation on the generic tensor descriptor, receiving a second request to perform a second operation on generic tensor raw data associated with the generic tensor, and responsive to the second request, performing the second operation on the generic tensor raw data, the performing the second operation including mapping a tensor coordinate specified by the second request to a memory address, the mapping including evaluating a delta function to determine an address delta value to add to a previously determined address for a previously processed tensor coordinate.