Abstract: An apparatus and method are described for executing both latency-optimized execution logic and throughput-optimized execution logic on a processing device. For example, a processor according to one embodiment comprises: latency-optimized execution logic to execute a first type of program code; throughput-optimized execution logic to execute a second type of program code, wherein the first type of program code and the second type of program code are designed for the same instruction set architecture; logic to identify the first type of program code and the second type of program code within a process and to distribute the first type of program code for execution on the latency-optimized execution logic and the second type of program code for execution on the throughput-optimized execution logic.

Abstract: An apparatus and method are described for providing low-latency invocation of accelerators. For example, a processor according to one embodiment comprises: a command register for storing command data identifying a command to be executed; a result register to store a result of the command or data indicating a reason why the command could not be executed; execution logic to execute a plurality of instructions including an accelerator invocation instruction to invoke one or more accelerator commands; and one or more accelerators to read the command data from the command register and responsively attempt to execute the command identified by the command data.

Abstract: Techniques to manage operational parameters for a processor are described. For instance, a method includes monitoring performance values representing physical characteristics for multiple components of a computing platform, and managing a performance level for a processor based on the performance values and one or more operational parameters for the processor. The operational parameters may include one or more transitory operational parameters that cause the processor to temporarily exceed operational parameters set by a thermal design power limit. Other embodiments are described and claimed.

Abstract: In one embodiment, the present invention includes a method for directly communicating between an accelerator and an instruction sequencer coupled thereto, where the accelerator is a heterogeneous resource with respect to the instruction sequencer. An interface may be used to provide the communication between these resources. Via such a communication mechanism a user-level application may directly communicate with the accelerator without operating system support. Further, the instruction sequencer and the accelerator may perform operations in parallel. Other embodiments are described and claimed.

Abstract: In one embodiment, the present invention includes a method for directly communicating between an accelerator and an instruction sequencer coupled thereto, where the accelerator is a heterogeneous resource with respect to the instruction sequencer. An interface may be used to provide the communication between these resources. Via such a communication mechanism a user-level application may directly communicate with the accelerator without operating system support. Further, the instruction sequencer and the accelerator may perform operations in parallel. Other embodiments are described and claimed.

Abstract: An apparatus and method are described for executing both latency-optimized execution logic and throughput-optimized execution logic on a processing device. For example, a processor according to one embodiment comprises: latency-optimized execution logic to execute a first type of program code; throughput-optimized execution logic to execute a second type of program code, wherein the first type of program code and the second type of program code are designed for the same instruction set architecture; logic to identify the first type of program code and the second type of program code within a process and to distribute the first type of program code for execution on the latency-optimized execution logic and the second type of program code for execution on the throughput-optimized execution logic.

Abstract: A semiconductor chip is described having a load collision detection circuit comprising a first bloom filter circuit. The semiconductor chip has a store collision detection circuit comprising a second bloom filter circuit. The semiconductor chip has one or more processing units capable of executing ordered parallel threads coupled to the load collision detection circuit and the store collision detection circuit. The load collision detection circuit and the store collision detection circuit is to detect younger stores for load operations of said threads and younger loads for store operations of said threads.

Abstract: A processor having one or more processing cores is described. Each of the one or more processing cores has front end logic circuitry and a plurality of processing units. The front end logic circuitry is to fetch respective instructions of threads and decode the instructions into respective micro-code and input operand and resultant addresses of the instructions. Each of the plurality of processing units is to be assigned at least one of the threads, is coupled to said front end unit, and has a respective buffer to receive and store microcode of its assigned at least one of the threads.

Abstract: An apparatus and method are described for providing low-latency invocation of accelerators. For example, a processor according to one embodiment comprises: a command register for storing command data identifying a command to be executed; a result register to store a result of the command or data indicating a reason why the command could not be executed; execution logic to execute a plurality of instructions including an accelerator invocation instruction to invoke one or more accelerator commands; and one or more accelerators to read the command data from the command register and responsively attempt to execute the command identified by the command data.

Abstract: In one embodiment, the present invention includes a multicore processor having first and second cores to independently execute instructions, the first core visible to an operating system (OS) and the second core transparent to the OS and heterogeneous from the first core. A task controller, which may be included in or coupled to the multicore processor, can cause dynamic migration of a first process scheduled by the OS to the first core to the second core transparently to the OS. Other embodiments are described and claimed.

Abstract: In one embodiment, the present invention includes a multicore processor with first and second groups of cores. The second group can be of a different instruction set architecture (ISA) than the first group or of the same ISA set but having different power and performance support level, and is transparent to an operating system (OS). The processor further includes a migration unit that handles migration requests for a number of different scenarios and causes a context switch to dynamically migrate a process from the second core to a first core of the first group. This dynamic hardware-based context switch can be transparent to the OS. Other embodiments are described and claimed.

Abstract: In one embodiment, the present invention includes a method for directly communicating between an accelerator and an instruction sequencer coupled thereto, where the accelerator is a heterogeneous resource with respect to the instruction sequencer. An interface may be used to provide the communication between these resources. Via such a communication mechanism a user-level application may directly communicate with the accelerator without operating system support. Further, the instruction sequencer and the accelerator may perform operations in parallel. Other embodiments are described and claimed.

Abstract: Forming a plurality of pipeline orderings, each pipeline ordering comprising one of a sequential, a parallel, or a sequential and parallel combination of a plurality of stages of a pipeline, analyzing the plurality of pipeline orderings to determine a total power of each of the orderings, and selecting one of the plurality of pipeline orderings based on the determined total power of each of the plurality of pipeline orderings.

Abstract: A 3-D camera is disclosed. The 3-D camera includes an optical system, a front-end block, and a processor. The front-end block further includes a combined image sensor to generate an image, which includes color information and near infra-red information of a captured object and a near infra-red projector to generate one or more patterns. The processor is to generate a color image and a near infra-red image from the image and then generate a depth map using the near infra-red image and the one or more patterns from a near infra-red projector. The processor is to further generate a full three dimensional color model based on the color image and the depth map, which may be aligned with each other.

Abstract: Forming a plurality of pipeline orderings, each pipeline ordering comprising one of a sequential, a parallel, or a sequential and parallel combination of a plurality of stages of a pipeline, analyzing the plurality of pipeline orderings to determine a total power of each of the orderings, and selecting one of the plurality of pipeline orderings based on the determined total power of each of the plurality of pipeline orderings.

Abstract: Forming a plurality of pipeline orderings, each pipeline ordering comprising one of a sequential, a parallel, or a sequential and parallel combination of a plurality of stages of a pipeline, analyzing the plurality of pipeline orderings to determine a total power of each of the orderings, and selecting one of the plurality of pipeline orderings based on the determined total power of each of the plurality of pipeline orderings.

Abstract: Techniques to manage operational parameters for a processor are described. For instance, a method includes monitoring performance values representing physical characteristics for multiple components of a computing platform, and managing a performance level for a processor based on the performance values and one or more operational parameters for the processor. The operational parameters may include one or more transitory operational parameters that cause the processor to temporarily exceed operational parameters set by a thermal design power limit. Other embodiments are described and claimed.

Abstract: Forming a plurality of pipeline orderings, each pipeline ordering comprising one of a sequential, a parallel, or a sequential and parallel combination of a plurality of stages of a pipeline, analyzing the plurality of pipeline orderings to determine a total power of each of the orderings, and selecting one of the plurality of pipeline orderings based on the determined total power of each of the plurality of pipeline orderings.

Abstract: In one embodiment, the present invention includes a method for directly communicating between an accelerator and an instruction sequencer coupled thereto, where the accelerator is a heterogeneous resource with respect to the instruction sequencer. An interface may be used to provide the communication between these resources. Via such a communication mechanism a user-level application may directly communicate with the accelerator without operating system support. Further, the instruction sequencer and the accelerator may perform operations in parallel. Other embodiments are described and claimed.

Abstract: A method of emulating an interactive connection, comprising: generating a request for interactive data from an interactive server, at a client; intercepting said request by an agent; responsive to said request, retrieving at least some of said data from a continuous retransmission of said data, by said agent; and displaying said data including said retrieved data at said client.