Abstract:
The exemplary embodiments provide a reconfigurable integrated circuit architecture comprising: a configurable circuit element configurable for a plurality of data operations, each data operation corresponding to a context of a plurality of contexts; a plurality of input queues; a plurality of output queues; one or more configuration and control registers to store, for each context of the plurality of contexts, a plurality of configuration bits, a run status bit, and a plurality of bits designating at least one data input queue and at least one data output queue; and an element controller coupled to the configurable circuit element and to the one or more configuration and control registers, the element controller to allow loading of a context configuration and execution of a data operation upon the arrival of input data in the context-designated data input queue when the context run status is enabled and the context-designated data output queue has a status to accept output data.
Abstract:
The exemplary embodiments provide a reconfigurable integrated circuit capable of on-chip configuration and reconfiguration, comprising: a plurality of configurable composite circuit elements; a configuration and control bus; a memory; and a sequential processor. Each composite circuit element comprises: a configurable circuit; and an element interface and control circuit, the element interface and control circuit comprising an element controller and at least one configuration and control register to store one or more configuration and control words. The configuration and control bus is coupled to the plurality of configurable composite circuit elements, and comprises a plurality of address and control lines and a plurality of data lines. The sequential processor can write configurations to the configuration and control registers of an addressed configurable composite circuit element to configure or reconfigure the configurable circuit.
Abstract:
A system for enrollment processing optimization for controlling batch job processing traffic transmitted to a mainframe computer includes an enrollment data input operations system operatively coupled to the mainframe computer and configured to provide a universal front end for data entry of enrollment information. Enrollment records based on the enrollment information is then created. A database system stores the enrollment records, and a workflow application module operatively coupled to the database system is configured to manage processing of the enrollment records and manage transmission of the enrollment records to the mainframe computer for batch processing. A batch throttling control module operatively coupled to the workflow application module and to the mainframe computer controls the rate and the number of enrollment records transmitted by the workflow application module to the mainframe computer for batch processing.
Abstract:
A method of determining a uniform global view (GS) of the system status of a distributed computer network (VRNW) comprising at least three computers (R1, R2, R3) is provided in that the computers exchange messages over communication links (KV12, KV13, KV32) in successive transmission rounds, with each of the computers receiving a message from each of the other computers in each transmission round in the absence of an error. In each transmission round, each of the computers evaluates messages received from the other computers and, based on the result of the evaluation, assigns one of at least three differently defined computer states to each of the other computers and determines a local view (LS) of the system status therefrom. The computers exchange the local views of the system status determined by them, and each of the computers determines a uniform global view (GS) of the system status from the local views exchanged.
Abstract:
A storage device, and a method for operating a storage device. In some embodiments, the storage device includes storage media, and the method includes: determining, by the storage device, that the storage device is in a fault state from which partial recovery is possible by operating the storage device in a first read-only mode; and operating the storage device in the first read-only mode, the operating in the first read-only mode including: determining that the age of a first data item stored in a page of the storage device has exceeded a threshold age, and copying the first data item into a rescue space in the storage device.
Abstract:
A data processing system includes a system interconnect, a first master, and a bridge circuit. The bridge circuit is coupled between the first master and the system interconnect. The bridge circuit is configured to, in response to occurrence of an error in the first master, isolate the first master from the system interconnect, wherein the isolating by the bridge circuit is performed while the first master has one or more outstanding issued write commands to the system interconnect which have not been completed. The bridge circuit is further configured to, after isolating the first master from the system interconnect, complete the one or more outstanding issued write commands while the first master remains isolated from the system interconnect.
Abstract:
A lane within a processor bus that communicatively connects a transmitter and a receiver is dynamically assigned as a clock lane. The clock lane subsequently transmits a reference clock signal to coordinate data communications from the transmitter to the receiver. The clock lane may be assigned by determining signal margins of various lanes of the processor bus. The signal margins are determined by the transmitter sending a test pattern upon the various lanes and analyzing the received test pattern at the receiver. A dynamically assigned clock lane results increased overall signal integrity of communications between the transmitter and receiver. Further, a dynamically assigned clock lane may result in different lanes being assigned as the clock lane at distinct boot up instances, adding to the complexity of the unauthorized user determining the operational logic of the transmitter.
Abstract:
This disclosure generally provides an input device that includes a matrix sensor that includes a plurality of sensor electrodes arranged in rows on a common surface or plane. The input device may include a plurality of sensor modules coupled to the sensor electrodes that measure capacitive sensing signals corresponding to the electrodes. Instead of measuring sensor electrodes that are in the same column, the embodiments herein simultaneously measure capacitive sensing signals on at least two sensor electrodes that are in the same row. In one example, the sensor electrodes in the row being measured are spaced the same distance from a side of a substrate coupling the electrodes to the sensor modules and may have approximately the same electrical time constant.
Abstract:
A central processing unit (CPU) hot-remove method, including determining, by a controller of a server that has a non-full mesh first CPU topology comprising multiple CPUs, a first CPU of the multiple CPUs to be removed from the first CPU topology according to first indication information, determining at least one second CPU associated in the first CPU topology with the first CPU, where the at least one second CPU and the first CPU meet a preset condition associated with a relationship between the first CPU and the at least one second CPU, and sending second indication information to the first CPU topology, the second indication information instructing the first CPU topology to remove the first CPU and the at least one second CPU, resulting in a second CPU topology without the first CPU and other than the at least one second CPU.
Abstract:
Aspects extend to methods, systems, and computer program products for (re)configuring acceleration components over a network. (Re)configuration can be implemented for any of a variety of reasons, including to address an error in functionality at the acceleration component or to update functionality at the acceleration component. During (re)configuration, connectivity can be maintained for any other functionality at the acceleration component untouched by the (re)configuration. Network (re)configuration of acceleration components facilitates management of acceleration components and accelerated services from a centralized service. Network (re)configuration of acceleration components also relieves host components from having to store (potentially diverse and numerous) image files.