Abstract: Apparatuses, computer readable mediums, and methods of processor unit testing using cache resident testing are disclosed. The method may include loading a test program in a cache on a chip comprising one or more processor units. The method may include the one or more processor units executing the test program to generate one or more results. The method may include redirecting a first memory reference to the cache, wherein the first memory reference is generated during the execution of the test program. The method may include determining whether the one or more generated results match one or more test results. The method may include redirecting a memory request to a memory location resident in the cache if the memory request includes a memory location not resident in the cache. The method may include redirecting a memory request to the cache if the memory request is not directed to the cache.

Abstract: Described herein is a method and apparatus for en route translation of data by a data translation logic (DTL) on a solid state graphics (SSG) device as the data moves from a first memory architecture on the SSG device to a second memory architecture associated with a graphics processing units (GPU) on the SSG device or from the first memory architecture on the SSG device to a host memory in a host system that is connected to the SSG device.

Abstract: A system and method for scalable video coding that includes base layer having lower resolution encoding, enhanced layer having higher resolution encoding and the data transferring between two layers. The system and method provides several methods to reduce bandwidth of inter-layer transfers while at the same time reducing memory requirements. Due to less memory access, the system clock frequency can be lowered so that system power consumption is lowered as well. The system avoids having prediction data from base layer to enhanced layer to be up-sampled for matching resolution in the enhanced layer as transferring up-sampled data can impose a big burden on memory bandwidth.

Abstract: A video device having data lanes and a method of operating the video device includes obtaining a stream of debug data in response to a test operation, framing the stream of debug data independent of establishing a video blanking period, and transmitting the framed stream of debug data across one or more data lanes of the video link for operation between a video source device and a video sink device. The method also includes generating a stream of video data related to the test operation, framing the stream of video data to establish a video blanking period, and transmitting the framed stream of debug data concurrently with the framed stream of video data across the one or more data lanes of the video link.

Abstract: Processes for the production of nickel-titanium mill products are disclosed. A nickel-titanium alloy workpiece is cold worked at a temperature less than 500° C. The cold worked nickel-titanium alloy workpiece is hot isostatic pressed (HIP'ed).

Abstract: A method and apparatus controls power consumption of a computing unit by determining a discrete frame buffer memory usage condition, such as when there is little real 3D activity (or other condition). When the discrete frame buffer memory usage condition is favorable for power savings, the method and apparatus reduces power to at least one bank of discrete frame buffer memory during runtime of an associated discrete graphics processor. The associated discrete graphics processor uses a portion of a system memory's frame buffer memory instead of the at least one bank of discrete frame buffer memory during runtime of the discrete graphics processor. When a user runs more intense 3D programs, the apparatus and method dynamically enables the discrete frame buffer or portion thereof such as one or more banks and reverts from using the system memory back to using the discrete frame buffer memory.

Abstract: A technique for recovering from a hang in a virtualized accelerated processing device (“APD”) is provided. In the virtualization scheme, different virtual machines are assigned different “time-slices” in which to use the APD. When a time-slice expires, the APD stops operations for a current VM and starts operations for another VM. To stop operations on the APD, a virtualization scheduler sends a request to idle the APD. The APD responds by completing work and idling. If one or more portions of the APD do not complete this idling process before a timeout expires, then a hang occurs. In response to the hang, the virtualization scheduler informs the hypervisor that a hang has occurred. The hypervisor performs a function level reset on the APD and informs the VM that the hang has occurred. The VM responds by stopping command issue to the APD and re-initializing the APD for the function.

Abstract: In a stack of chips which each include active circuit regions, a plurality of through-silicon via (TSV) structures are formed for thermally conducting heat from the multi-chip stack by patterning, etching and filling with thermally conductive material a plurality of TSV openings in the multi-chip stack, including a first larger TSV opening that extends through substantially the entirety of the multi-chip stack without penetrating any active circuit region, and a second smaller TSV opening that extends down to but not through an active circuit region.

Abstract: A processor includes a scheduler that governs which of a plurality of pending graphics contexts is selected for execution at a graphics pipeline of the processor. The processor also includes a plurality of flip queues storing data ready to be rendered at a display device. The executing graphics context can issue a flip request to change data at stored at one of the flip queues. In response to determining that the flip request targets a flip queue that is being used for rendering at the display device, the scheduler executes a context switch to schedule a different graphics context for execution at the graphics pipeline.

Abstract: A processor employs a hardware encryption module in the memory access path between an input/out device and memory to cryptographically isolate secure information. In some embodiments, the encryption module is located at a memory controller of the processor, and each memory access request provided to the memory controller includes VM tag value identifying the source of the memory access request. The VM tag is determined based on a requestor ID identifying the source of the memory access request. The encryption module performs encryption (for write accesses) or decryption (for read accesses) of the data associated with the memory access based on an encryption key associated with the VM tag.

Abstract: A technique for varying firmware for different virtual functions in a virtualized device is provided. The virtualized device includes a hardware accelerator and a microcontroller that executes firmware. The virtualized device is virtualized in that the virtualized device performs work for different virtual functions (with different virtual functions associated with different virtual machines), each function getting a “time-slice” during which work is performed for that function. To vary the firmware, each time the virtualized device switches from performing work for a current virtual function to work for a subsequent virtual function, one or more microcontrollers of the virtualized device examines memory storing addresses for firmware for the subsequent virtual function and begins executing the firmware for that subsequent virtual function. The addresses for the firmware are provided by a corresponding virtual machine at configuration time.

Abstract: A non-transitory computer-readable medium includes instructions that, when provided to and executed by a processor, cause the processor to receive a first placement of domain instances of an integrated circuit layout provided as a tile having a group of multiple power domain modules. The first placement of domain instances is scanned to identify instances associated with a preselected power specification. A heuristic is applied to the first placement of domain instances to form an observation area. the heuristic demarcates select instances to form the observation area. Each instance associated with the preselected power specification is identified in the observation area. A contiguous region of instances is formed from the select instances in the observation area. The first placement of domain instances in the integrated circuit layout is modified to provided revised placement for instances associated with the contiguous region of instances.

Abstract: A technique for efficient time-division of resources in a virtualized accelerated processing device (“APD”) is provided. In a virtualization scheme implemented on the APD, different virtual machines are assigned different “time-slices” in which to use the APD. When a time-slice expires, the APD performs a virtualization context switch by stopping operations for a current virtual machine (“VM”) and starting operations for another VM. Typically, each VM is assigned a fixed length of time, after which a virtualization context switch is performed. This fixed length of time can lead to inefficiencies. Therefore, in some situations, in response to a VM having no more work to perform on the APD and the APD being idle, a virtualization context switch is performed “early.” This virtualization context switch is “early” in the sense that the virtualization context switch is performed before the fixed length of time for the time-slice expires.

Abstract: A register protection mechanism for a virtualized accelerated processing device (“APD”) is disclosed. The mechanism protects registers of the accelerated processing device designated as physical-function-or-virtual-function registers (“PF-or-VF* registers”), which are single architectural instance registers that are shared among different functions that share the APD in a virtualization scheme whereby each function can maintain a different value in these registers. The protection mechanism for these registers comprises comparing the function associated with the memory address specified by a particular register access request to the “currently active” function for the APD and disallowing the register access request if a match does not occur.

Abstract: A processing system selectively renders pixels or blocks of pixels of an image and leaves some pixels or blocks of pixels unrendered to conserve resources. The processing system generates a motion vector field to identify regions of an image having moving areas. The processing system uses a rendering processor to identify as regions of interest those units having little to no motion, based on the motion vector field, and a large amount of edge activity, and to minimize the probability of unrendered pixels, or “holes”, in these regions. To avoid noticeable patterns, the rendering processor applies a probability map to determine the possible locations of holes, assigning to each unit a probability indicating the percentage of pixels within the unit that will be holes, and assigning a lower probability to units identified as regions of interest.

Abstract: A system, method and a computer program product are provided for hybrid rendering with deferred primitive batch binning. A primitive batch is generated from a sequence of primitives. Initial bin intercepts are identified for primitives in the primitive batch. A bin for processing is identified. The bin corresponds to a region of a screen space. Pixels of the primitives intercepting the identified bin are processed. Next bin intercepts are identified while the primitives intercepting the identified bin are processed.

Abstract: A device may receive a direct memory access request that identifies a virtual address. The device may determine whether the virtual address is within a particular range of virtual addresses. The device may selectively perform a first action or a second action based on determining whether the virtual address is within the particular range of virtual addresses. The first action may include causing a first address translation algorithm to be performed to translate the virtual address to a physical address associated with a memory device when the virtual address is not within the particular range of virtual addresses. The second action may include causing a second address translation algorithm to be performed to translate the virtual address to the physical address when the virtual address is within the particular range of virtual addresses. The second address translation algorithm may be different from the first address translation algorithm.

Abstract: A system and method for continuous casting. The system includes a melt chamber, a withdrawal chamber, and a secondary chamber therebetween. The melt chamber can maintain a melting pressure and the withdrawal chamber can attain atmospheric pressure. The secondary chamber can include regions that can be adjusted to different pressures. During continuous casting operations, the first region adjacent to the melt chamber can be adjusted to a pressure that is at least slightly greater than the melting pressure; the pressure in subsequent regions can be sequentially decreased and then sequentially increased. The pressure in the final region can be at least slightly greater than atmospheric pressure. The differential pressures can form a dynamic airlock between the melt chamber and the withdrawal chamber, which can prevent infiltration of the melt chamber by non-inert gas in the atmosphere, and thus can prevent contamination of reactive materials in the melt chamber.

Abstract: A system and method for efficient arbitration of memory access requests are described. One or more functional units generate memory access requests for a partitioned memory. An arbitration unit stores the generated requests and selects a given one of the stored requests. The arbitration unit identifies a given partition of the memory which stores a memory location targeted by the selected request. The arbitration unit determines whether one or more other stored requests access memory locations in the given partition. The arbitration unit sends each of the selected memory access request and the identified one or more other memory access requests to the memory to be serviced out of order.

Abstract: Described herein is a method and apparatus for en route translation of data by a data translation logic (DTL) on a solid state graphics (SSG) device as the data moves from a first memory architecture on the SSG device to a second memory architecture associated with a graphics processing units (GPU) on the SSG device or from the first memory architecture on the SSG device to a host memory in a host system that is connected to the SSG device.