Abstract: A method of one aspect may include receiving a rotate instruction. The rotate instruction may indicate a source operand and a rotate amount. A result may be stored in a destination operand indicated by the rotate instruction. The result may have the source operand rotated by the rotate amount. Execution of the rotate instruction may complete without reading a carry flag.

Abstract: Embodiments of a microelectronic assembly comprise a first integrated circuit (IC) die including a plurality of first circuits separated by scribe regions, and a plurality of second IC dies coupled to the first IC die, each one of the second IC dies being coupled proximate and adjacent to a corresponding one of the first circuits and conductively coupled to the corresponding one of the first circuits. One or more of the second IC dies comprises a second circuit different from the first circuit, adjacent ones of the first circuits are coupled by a conductive pathway through the corresponding scribe regions, and the first IC die and the second IC die are coupled by interconnects having a pitch not more than 10 micrometers between adjacent interconnects.

Abstract: Described herein is a modular parallel processor and associated manufacturing method in which the parallel processor is assembled from multiple chiplets that populate multiple chiplet slots of an active base chiplet die. The multiple chiplets are tested to determine characteristics of the chiplet, such as a number of functional units or a power consumption metric for the chiplet. The multiple chiplet slots can be configured to be populated by one or more chunks of multiple chiplets, where each chunk has a pre-determined collective value. The pre-determined collective value can be a total number of functional execution cores within a chunk or a collective power metric for the chunk.

Abstract: Described herein is a modular parallel processor comprising an active base die including hardware logic, interconnect logic, and a plurality of chiplet slots and a plurality of chiplets vertically stacked on the active base die and coupled with the plurality of chiplet slots of the active base die. The plurality of chiplets is interchangeable during assembly of the modular parallel processor and include a group of hardware logic chiplets having a plurality of different functional units and a group of memory chiplets having a plurality of different memory devices. The hardware logic chiplets and the memory chiplets interconnect via the interconnect logic within the active base die.

Abstract: A method of one aspect may include receiving a rotate instruction. The rotate instruction may indicate a source operand and a rotate amount. A result may be stored in a destination operand indicated by the rotate instruction. The result may have the source operand rotated by the rotate amount. Execution of the rotate instruction may complete without reading a carry flag.

Abstract: A method of one aspect may include receiving a rotate instruction. The rotate instruction may indicate a source operand and a rotate amount. A result may be stored in a destination operand indicated by the rotate instruction. The result may have the source operand rotated by the rotate amount. Execution of the rotate instruction may complete without reading a carry flag.

Abstract: A method in one aspect may include receiving a multiply instruction. The multiply instruction may indicate a first source operand and a second source operand. A product of the first and second source operands may be stored in one or more destination operands indicated by the multiply instruction. Execution of the multiply instruction may complete without writing a carry flag. Other methods are also disclosed, as are apparatus, systems, and instructions on machine-readable medium.

Abstract: Techniques to suppress redundant reads to register addresses and to replicate read data are disclosed. The redundant reads are suppressed when multiple source operands specify the same register address to read. Additionally, the read data is replicated to a data stream or data location corresponding to the source operands where the data read was suppressed.

Abstract: A method of one aspect may include receiving a rotate instruction. The rotate instruction may indicate a source operand and a rotate amount. A result may be stored in a destination operand indicated by the rotate instruction. The result may have the source operand rotated by the rotate amount. Execution of the rotate instruction may complete without reading a carry flag.

Abstract: A method in one aspect may include receiving a multiply instruction. The multiply instruction may indicate a first source operand and a second source operand. A product of the first and second source operands may be stored in one or more destination operands indicated by the multiply instruction. Execution of the multiply instruction may complete without writing a carry flag. Other methods are also disclosed, as are apparatus, systems, and instructions on machine-readable medium.

Abstract: A method in one aspect may include receiving a multiply instruction. The multiply instruction may indicate a first source operand and a second source operand. A product of the first and second source operands may be stored in one or more destination operands indicated by the multiply instruction. Execution of the multiply instruction may complete without writing a carry flag. Other methods are also disclosed, as are apparatus, systems, and instructions on machine-readable medium.

Abstract: A method of one aspect may include receiving a rotate instruction. The rotate instruction may indicate a source operand and a rotate amount. A result may be stored in a destination operand indicated by the rotate instruction. The result may have the source operand rotated by the rotate amount. Execution of the rotate instruction may complete without reading a carry flag.

Abstract: A method of one aspect may include receiving a rotate instruction. The rotate instruction may indicate a source operand and a rotate amount. A result may be stored in a destination operand indicated by the rotate instruction. The result may have the source operand rotated by the rotate amount. Execution of the rotate instruction may complete without reading a carry flag.

Abstract: A method of one aspect may include receiving a rotate instruction. The rotate instruction may indicate a source operand and a rotate amount. A result may be stored in a destination operand indicated by the rotate instruction. The result may have the source operand rotated by the rotate amount. Execution of the rotate instruction may complete without reading a carry flag.

Abstract: One aspect provides a method including: identifying a task to be scheduled for execution on an information handling device having two or more cores of different size; determining an appropriate scheduling of the task for execution on the two or more of cores of different size, wherein the appropriate scheduling of the task is determined via a core signature for the task; directing the task to an appropriate core for execution based on the appropriate scheduling determined; and executing the task on the appropriate core. Other aspects are described and claimed.

Abstract: Systems and methods described herein provide for a process for managing continuity of experience between operation of a hybrid computer system in the connected state and the slate component independently in the disconnected state. Embodiments further provide for the continuity of experience for devices operating under multiple processors or multiple platforms. According to embodiments, one or more states and conditions of the connected hybrid computer system may be synchronized with the slate component when the slate component is disconnected from the hybrid computer system. Alternatively, embodiments provide for the synchronization of one or more states and conditions of the independent slate component with the hybrid computer system responsive to connecting the slate component to the hybrid computer system. Non-limiting examples of states and conditions according to embodiments are web pages, applications, documents, lists of recently opened files and web pages, and web browser active tabs.

Abstract: Techniques to suppress redundant reads to register addresses and to replicate read data are disclosed. The redundant reads are suppressed when multiple source operands specify the same register address to read. Additionally, the read data is replicated to a data stream or data location corresponding to the source operands where the data read was suppressed.

Abstract: Embodiments operating shared peripherals in a hybrid computing system are described. Embodiments control one or more shared peripheral devices variously between a primary system and a secondary system via one or more communication links, where the secondary system is detachable from the primary system and operates as an independent computing device in the disconnected state, while operating as a display device in the connected state.

Abstract: A method of one aspect may include receiving a rotate instruction. The rotate instruction may indicate a source operand and a rotate amount. A result may be stored in a destination operand indicated by the rotate instruction. The result may have the source operand rotated by the rotate amount. Execution of the rotate instruction may complete without reading a carry flag.

Abstract: Systems and methods described herein provide for communication between a base component and a slate component of a hybrid computing system. The hybrid computing system is in a connected state when the base component and slate component are connected. Embodiments provide that the base component may control the slate component when the hybrid computing system is in a connected state. In addition, embodiments provide that a server module running on the display component and a client module running on the base component facilitate communication between the hybrid computing system components. Furthermore, systems and methods described herein provide that the base component may control hardware devices, peripheral devices, or software applications of the display component through communications between the server module and client module.