40results about How to "Longer be performed" patented technology

A computer system on a network uses IP multicast to recruit other computer stems to share in the processing of a job. If a computer system on the network wants to be available to process shared jobs, it first registers for job sharing by invoking an IP multicast router at a particular IP address. All messages sent to the IP multicast router are broadcast to all computer systems that are registered with the router. When a computer system has ajob to share, it recruits other computer systems to help process the job by sending a message to the IP multicast router that corresponds to a request to share the job. The candidate computer systems that receive the recruiter's broadcast determine if they can share the job according to one or more job sharing parameters. These parameters may relate to the job itself, network performance, security, or other criteria for sharing. If a computer system meets the parameters for taking on the particular job, it responds to the recruiter. If the recruiter still needs help (e.g., if not enough candidate systems have responded yet), the recruiter grants the response and delivers the job to the computer system. The computer system then performs the job (or task) and returns the results to the recruiter.

A compensated ensemble crystal oscillator clock system for use in a well borehohe system. The clock system includes preferably four quad compensated clocks, a compensated temperature sensor, and software for processing and correcting system response. Physical fabrication of elements of the quad compensated clocks, the compensated temperature sensor and cooperating software minimized drift in frequency of the oscillator clock system in harsh borehole environments encountered while drilling a borehole. The clock system exhibits a frequency stability of 2.8×10−9 or less over a temperature range of from 0° C. to 185° C. The compensated ensemble crystal oscillator clock system is particularly applicable to seismic-while-drilling operations wherein precise downhole measurements of time are required typically over a period of days.

A first recording apparatus acquires first data and records the first data in a first recording unit, transmits to a second recording apparatus first priority information which is information relating to priority data representing priority of recording the first data to the second recording apparatus, receives second priority information which is information relating to priority data representing priority of recording second data acquired at the second recording apparatus which is transmitted from the second recording apparatus, determines priority data of the first recording apparatus and the second recording apparatus, based on the first priority information and the second priority information, and transfers the first data to the second recording apparatus, based on the priority data of the second recording apparatus, if the recording capacity of the first recording unit falls below a stipulation value corresponding to the priority data of the first recording apparatus.

A first recording apparatus acquires first data and records the first data in a first recording unit, transmits to a second recording apparatus first priority information which is information relating to priority data representing priority of recording the first data to the second recording apparatus, receives second priority information which is information relating to priority data representing priority of recording second data acquired at the second recording apparatus which is transmitted from the second recording apparatus, determines priority data of the first recording apparatus and the second recording apparatus, based on the first priority information and the second priority information, and transfers the first data to the second recording apparatus, based on the priority data of the second recording apparatus, if the recording capacity of the first recording unit falls below a stipulation value corresponding to the priority data of the first recording apparatus.

Embodiments of the invention allow relatively simple circuits to provide a coding device capable of coding longer bit-length data suitably for disk apparatus and a decoding device capable of decoding the data coded by the coding device. In one embodiment, a coding device comprises: a coder which, based on an M bits code string, produces an (M+1) bits coded string where each of the plural bits which may appear in the M bits code string is limited in run length; a preprocessor which produces an M bits code string by removing (N−M) bits respectively from predefined (N−M) positions of an incoming N bits code string and outputs the M bits code string to the coder; and a postprocessor which produces and outputs an (N+1) bits code string by inserting the (N−M) bits, which are removed by the preprocessor, into predefined (N−M) respective insertion positions of the (M+1) bits coded string output from the coder.

The present invention provides a process for producing an optically active fluoro compound represented by formula (3) through reaction between a specific fluoroamine and an optically active diol; and a process for producing an optically active fluoroalcohol through hydrolysis of the optically active fluoro compound. According to the process of the present invention, such optically active fluoro compounds and optically active fluoroalcohols can be produced at high optical purity and high yield in a simple manner. Such optically active fluoroalcohols are a useful source for producing drugs, pesticides, and other functional chemicals

Provided is a shredder that prevents particles from jamming in a shredding mechanism, and shreds the sheet-like objects into such an extremely small size that the sheet-like objects cannot be reproduced. A shredding mechanism (3) includes blade drums (4, 5) in a pair, and a plurality of scraping members (6) for scraping off particles (1a) formed by shredding from an inside of recessed portions located between the cutter portions (4b, 5b) of each of the blade drums (4, 5). A control device (12) includes a determination unit (13) for determining a jam condition of the particles (1a) in the shredding mechanism (3) based on a load applied to a drive device (10) during idling of the shredding mechanism (3), which is carried out by driving the drive device (10) under a state in which the sheet-like object (1) to be shredded is not conveyed in the shredding mechanism (3).

An exhaust gas purification system includes, as an exhaust gas path of an engine to be mounted in a ship, a main path which is in communication with outside, a bypass path which branches off from a halfway portion of the main path, and a combined casing with which both the main path and the bypass path are in communication. A selective catalyst reduction device is accommodated in the combined casing at a location close to the main path. A path-switching member which switches exhaust gas moving direction is placed in a branched portion between the main path and the bypass path. A reducing agent injection body is placed in the main path between the path-switching member and the combined casing.

A motor generator (27) is connected mechanically to an engine (21) and a hydraulic pump (23). The hydraulic pump (23) delivers pressurized oil to cylinders (11D) to (11F) in a working mechanism (11), a traveling hydraulic motor (25) and a revolving hydraulic motor (26). The revolving hydraulic motor (26) drives a revolving device (3) in cooperation with a revolving electric motor (33). The motor generator (27) and the revolving electric motor (33) are connected electrically to an electricity storage device (31). An HCU (36) sets a target electricity storage rate (SOC0) of the electricity storage device (31) and a pump output limit (POL0) of the hydraulic pump (23) corresponding to a mode selected by a mode selection device (38). The HCU (36) controls the engine (21), the motor generator (27), the revolving electric motor (33) and the electricity storage device (31) corresponding to the target electricity storage rate (SOC0) and the pump output limit (POL0).

An example breast pump system can include: a control unit including a processor and memory, the control unit including an interface to control the breast pump system; a vacuum unit controlled by the control unit, the vacuum unit including pump motors to create suction for pumping milk; a support mechanism located remotely from the control unit; and a member extending between the control unit and the support mechanism, the member being movable to allow the control unit to be repositioned relative to the support mechanism. The memory encodes instructions which, when executed by the processor, cause the breast pump system to: select at least a first pump motor from the plurality of pump motors for a first pumping timeframe; and select at least a second pump motor from the plurality of pump motors for a second pumping timeframe.

Disclosed is a flexible electronic device having an adhesive function, including an adhesive tape that includes a flexible film and an adhesive layer formed on one side of the flexible film, and an electronic device formed on a remaining side of the flexible film of the adhesive tape. Accordingly, the flexible electronic device of the present invention is transferred on a surface of various flexible materials or materials having a curved surface so as to freely adhere and minimize breakage of the electronic device and maintain performance over a long period of time, even if the substrate is modified or repeatedly bent.