38results about How to "Increased hardware resources" patented technology

One or more processes are offloaded from one virtual machine running on one host computer to another virtual machine running on another host computer so that load balancing can be performed on a per process level and physical servers supporting the virtual machines can be more optimally utilized. Migrating one or more processes from a virtual machine running on a first host computer to a second host computer includes replicating the virtual machine on the second host computer, terminating the migrated processes from the virtual machine running on the first host computer, and terminating all user-level processes running on the replicated virtual machine other than the migrated processes.

Users of client devices can take any number of actions using applications of an application system to achieve an outcome. A monitoring system aggregates the interactions into a user interaction path. Over time, the monitoring system generates a large number of user interaction paths. The monitoring system analyzes the user interaction paths for correlation between interactions and outcomes. The monitoring system can correlate user interaction paths to generated interactions of a system interaction path. The monitoring system determines a correlation between interactions and outcomes by calculating a success factor based on an efficiency score and a prevalence score. The success factor is a measure correlation between a particular interaction of the application system and an outcome, the prevalence score is a measure of how often a particular interaction occurs, and the efficiency score is a measure of the application system performance for a particular interaction.

In the present invention, in order that a busy judgment of a register can be made without fail and without increasing the number of hardware resources for storing a request into the register provided at the final stage of a pipeline register in a stage in which the request is retained halfway in the pipeline register in a pipeline processor, a first counter for counting the number of valid requests in the registers between a judgment section interposed in the pipeline register and for judging whether the request is a valid request and a request queue and a busy judgment section for judging whether the request queue is in a busy state based on the number of valid requests counted by the first counter are provided and a judgment is made by the judgment section based on the result of the busy state judgment by the busy judgment section.

The invention discloses a pipelined Montgomery modular multiplication operation method and a pipelined Montgomery modular multiplication operation device, relates to the technical field of data cryptography algorithms, adopts a pipelined mode to improve Montgomery modular multiplication algorithm performance, increases throughput of a single Montgomery modular multiplier, and consumes less hardware resources and area than a traditional method using a plurality of Montgomery modular multipliers under the condition of the same throughput. Therefore, the modular multiplication number in unit timeis increased by dozens of times, and the Montgomery modular multiplier has higher performance / resource ratio than a non-pipelined Montgomery modular multiplier. Meanwhile, the asymmetric key algorithm hardware using the pipelined Montgomery modular multiplier can achieve higher performance with fewer hardware resources, and the throughput of Montgomery modular multiplication operation of any length is improved.

A method and a system are disclosed for allocating program components to distributed control devices of a control system, comprising the following steps: a) creating at least two program modules, which each comprise program components, data interfaces and performance parameters for the definition of a performance requirement; b) linking the program modules via data connections between the data interfaces to form a control program; c) ascertaining available control devices and the performance capability thereof in the control system; d) ascertaining possible allocations of the program modules and verification by a comparison between the requirement and performance capability; c) selecting and allocating a verified allocation; and f) configuring data exchange channels between the distributed control devices.

Disclosed is a link server (201) that is provided with a service data acquisition unit(352) for acquiring first data having a first format from an external service server (202) for providing data accumulated in a database through an electrical communication line; a data conversion unit (353) for converting the first data into second data having a second format which is usable by a program operating upon a reproduction device; and a communication control unit (351) for transmitting the second data converted by the data conversion unit (353) to the program operating upon the reproduction device (101).

A method utilizes event-driven reoptimization to reallocate one or more logical partitions within a pool of logically-partitioned data processing systems in a logically-partitioned computing environment in response to detection of a system event that is likely to increase or decrease the collective resource demands of logical partitions resident in a logically-partitioned computing environment. The reoptimization may be used to consolidate logical partitions on fewer processor nodes to improve the potential for powering down hardware resources and thereby reduce power consumption.

The present invention provides a capacitance-type inertial sensor digital servo circuit. The capacitance-type inertial sensor digital servo circuit comprises a capacitance-type sensor, a reading-out amplification circuit, an analog-digital converter (ADC), a digital loop filter, a multi-digit quantizer and a pulse-width modulation generator. The capacitance-type sensor, the reading-out amplification circuit, the analog-digital converter (ADC), the digital loop filter, the multi-digit quantizer and the pulse-width modulation generator are connected in order and form a loop. Through adoption of the digital loop filter, the capacitance-type inertial sensor digital servo circuit is high in flexibility and accuracy; through adoption of the multi-digit quantizer, the capacitance-type inertial sensor digital servo circuit realizes multi-digit quantification and has small quantification noise, high linearity and high duty ratio; and moreover, through adoption of the pulse-width modulation generator, the capacitance-type inertial sensor digital servo circuit generates differential force feedback control signals to realize multi-digit force feedback control so as to greatly reduce the nonlinearity introduced by a common analog-digital converter (DAC) and improve the inhibition capability for common-mode noise.

Amobile terminal UE accesses a CN and utilizes the Internet via a base station (Node-B) . When riding an electric train, the mobile terminal UE receives a disembarkation notification and an embarkation notification from a RFID tag writer equipped on a train, and notifies the base station Node-B that the terminal is on-board the train. While on-board the train, the terminal accesses an in-vehicle AP by employing a WLAN, Bluetooth, or similar system, and the in-vehicle AP communicates with the base station (Node-B) . This configuration enables the in-vehicle AP to handle all of the mobile devices existing on a train in a centralized manner, thereby eliminating the need for each of the mobile devices to individually access the base station (Node-B).