Abstract:
Apparatus and method for injected spin echo sequences in a quantum processor. For example, one embodiment of a processor includes a decoder to decode quantum instructions to generate quantum microoperations (uops) and to decode non-quantum instructions to generate non-quantum uops, execution circuitry to execute the quantum uops and non-quantum uops, and a corrective sequence data structure to identify and/or store corrective sets of uops for one or more of the quantum instructions. The decoder is to query the corrective sequence data structure upon receiving a first quantum instruction to determine if one or more corrective uops exist, and if the one or more corrective uops exist, the decoder is to submit the one or more corrective uops for execution by the execution circuitry.
Abstract:
In some embodiments, a PPM interface may be provided with functionality to facilitate to an OS memory power state management for one or more memory nodes, regardless of a particular platform hardware configuration, as long as the platform hardware is in conformance with the PPM interface.
Abstract:
An example includes accessing multiple configurations stored in a memory, where each configuration is associated with a corresponding circuit function implementable by an electronic device and associated with a corresponding set of resources of the electronic device. The example includes determining that one or more sets of resources of the electronic device are available for use by one or more configurations of the multiple configurations. Based on the determination, an embodiment includes representing a first configuration of the one or more configurations, using a graphical interface, and generating instructions that when executed cause the electronic device to be configured according the first configurations.
Abstract:
A processor including a memory controller for interfacing an external memory and a programmable functional unit (PFU). The PFU is programmed by a PFU program to modify operation of the memory controller, in which the PFU includes programmable logic elements and programmable interconnectors. For example, the PFU is programmed by the PFU program to add a function or otherwise to modify an existing function of the memory controller enhance its functionality during operation of the processor. In this manner, the functionality and/or operation of the memory controller is not fixed once the processor is manufactured, but instead the memory controller may be modified after manufacture to improve efficiency and/or enhance performance of the processor, such as when executing a corresponding process.
Abstract:
Embodiments of apparatuses, methods, and systems for modifying the behavior of a guest installed to run within a VM are disclosed. In one embodiment, an apparatus includes virtualization logic, first storage, second storage, decode logic, and multiplexing logic. The virtualization logic is to provide a mode in which to operate a virtual machine. The first storage is to store a first plurality of micro-instructions to control the apparatus. The second storage is to store a second plurality of micro-instructions to control the apparatus. The decode logic is to decode a macro-instruction into one of a first plurality and a second plurality of micro-instructions. The multiplexing logic is to cause the macro-instruction to be decoded into the second plurality of micro-instructions instead of the first plurality of micro-instructions only when issued from the virtual machine.
Abstract:
A legacy application may be executed as a Web Service by receiving from a client application a request comprising application input data that includes target legacy program identifying information and a template identifier, loading the specified template, translating the input data into a data format compatible with the application, executing the application and translating the output data for transmission to the client application. The template corresponds to the legacy application and comprises metadata describing the application flow and the required input data and output data for the application.
Abstract:
Described is a computing platform, which comprises: a non-volatile memory having a firmware boot program; and a CPU to execute the firmware boot program when the CPU is reset, the firmware boot program including instructions to create Power and Performance Measurement (PPM) interface data structures including an error injection table structure to provide error injection services to an OS.
Abstract:
Methods and apparatus relating to pre-OS (pre Operating System) image rewriting to provide cross-architecture support, security introspection, and/or performance optimization are described. In an embodiment, logic rewrites a non-native firmware interface driver into a native firmware interface driver in response to a determination that sufficient space is available in an integrity cache storage device to store the native firmware interface driver. The logic rewrites the non-native firmware interface driver into the native firmware interface driver by performing one or more of its operations during operating system runtime. Other embodiments are also claimed and described.
Abstract:
A microprocessor supports an instruction set architecture that specifies: processor modes, architectural registers associated with each mode, and a load multiple instruction that instructs the microprocessor to load data from memory into specified ones of the registers. Direct storage holds data associated with a first portion of the registers and is coupled to an execution unit to provide the data thereto. Indirect storage holds data associated with a second portion of the registers and cannot directly provide the data to the execution unit. Which architectural registers are in the first and second portions varies dynamically based upon the current processor mode. If a specified register is currently in the first portion, the microprocessor loads data from memory into the direct storage, whereas if in the second portion, the microprocessor loads data from memory into the direct storage and then stores the data from the direct storage to the indirect storage.
Abstract:
Technologies for local power gate (LPG) interfaces for power-aware operations are described. A processor includes locally-gated circuitry of a core, main core circuitry of the core, the main core, and local power gate (LPG) hardware. The LPG hardware is to power gate the locally-gated circuitry according to local power states of the LPG hardware. The main core decodes a first instruction of a set of instructions to perform a first power-aware operation of a specified length, including computing an execution code path for execution. The main core monitors a current local power state of the LPG hardware, selects one of the code paths based on the current local power state, the specified length, and a specified threshold, and issues a hint to the LPG hardware to power up the locally-gated circuitry and continues execution of the first power-aware operation without waiting for the locally-gated circuitry to be powered up.