Sanyo Electric Co., Ltd.

Rigaku Corporation

Rigaku Industrial Corporation

Hiroaki Kita

Tatsuya Inoue

Hiroyuki Mihara

Yasumasa Kojima

Takashi Inamura

Hiroyuki Kawakami

Yoshihisa Yamamoto

Seiji Fujimura

Tisato Magara

Yu Aoki

Seiitsu Kurita

Akira Arake

Hiroshi Kobayashi

Voltage detection line includes: first flexible printed circuit board including a plurality of first conductive wires and first insulating film covering the plurality of first conductive wires; second flexible printed circuit board including a plurality of second conductive wires and second insulating film covering the plurality of second conductive wires; and connection part that is soldered to each of first conductive wires and each of second conductive wires corresponding to each other to electrically connect the plurality of first conductive wires and the plurality of second conductive wires, in which the plurality of first conductive wires and the plurality of second conductive wires are electrically connected to a plurality of batteries to detect voltages of the plurality of batteries.

Voltage detection line and voltage detection line module

Protective element-mounted flexible flat cable includes a plurality of conductive wires, insulating sheet covering the plurality of conductive wires, and protective element that is disposed in the middle of at least one of conductive wires and limits an overcurrent flowing through the at least one of conductive wires.

Flexible flat cable including protective element in middle of conductive wire covered by insulating sheet, battery module having the same, and method for manufacturing the same

An overcurrent protection element includes: chip fuse; a printed circuit board configured by mounting chip fuse on a surface thereof; external connection part configured by being coupled to the printed circuit board; and insulating layer configured by being provided on the printed circuit board. The printed circuit board is provided with conductive parts on a surface of an insulating substrate. External connection part is electrically connected to the conductive parts of the printed circuit board. Chip fuse is electrically connected to the conductive parts, and chip fuse is connected to external connection part via the conductive parts.

Overcurrent protection element and battery system

A power supply device including a plurality of battery cells electrically connected with each other by bus bar. The power supply device has a structure where bus bar includes: rod having conductivity and extending in an arrangement direction of the battery cells; and arm being elastically deformable and being connected to rod, arm is configured such that distal end of arm is welded to an electrode terminal of the battery cell, and rear end of arm is connected to rod so as to electrically connect the plurality of battery cells to each other via the rod, arm is formed of a conductive plate that is elastically deformable, deformation gap extending from rear end toward a distal end is formed between arm and rod, and arm is elastically deformable so as to displace distal end to be welded to the electrode terminal.

Power supply device, electric vehicle comprising power supply device, and power storage device

A measurement system obtains its own measurement result through use of a different system's measurement result obtained by a different measurement system. The measurement system includes: an output data acquisition unit, a designated position acquisition unit configured to acquire a designated position, which is a position indicating an address at which the different system's measurement result is represented in the output data, by a user's designation, a different system's measurement result acquisition unit, a measurement result acquisition unit, and a position data storage unit configured to store position data indicating the designated position. The different system's measurement result acquisition unit acquires, when the position data is already stored in the position data storage unit in a case where the output data acquisition unit acquires different output data obtained by the different measurement system, the different system's measurement result included at the designated position indicated by the position data.

Measurement system, program, and measurement system control method

An X-ray fluorescence spectrometric system includes: a job execution unit configured to execute a job; a storage unit configured to store in advance a time required for each of operations in association with the each of the operations; a calculation unit configured to calculate, when the job is generated, a time to be taken until execution of the job is completed, for each job based on the time stored in the storage unit; and a control unit configured to newly store, when the job is executed, a time taken for the operation in the storage unit in association with the operation. The calculation unit is configured to further calculate, when the job is executed, the time to be taken until the execution of the job is completed, based on the time newly stored in the storage unit.

X-ray fluorescence analysis system

The X-ray fluorescence spectrometer of the present invention includes a sample table () for a sample (S) having a crystalline structure, an X-ray source (), a detecting unit () for detecting secondary X-rays () from the sample (S), a rotating unit () for rotating the sample table (), a parallel translating unit () for causing the sample table () to undergo a parallel translational movement, a selecting unit () for selecting three of circumvent angles, at which diffracted X-rays can be circumvented, based on a diffraction profile obtained from the angle of rotation of the sample (S) and the intensity of secondary X-rays (), the interval between the neighboring circumvent angles being smaller than 180&#xb0;, and a control unit () for controlling the rotating unit () so as to set the sample (S) at the circumvent angle at which the sample table () will not interfere with any other structures.

X-ray fluorescence spectrometer and X-ray fluorescence analyzing method

An analyzing apparatus of the present invention includes a cassette unit () for generating a cassette identification signal identifying a type of a cassette (), a sample holder () having an insertion hole () and a ring shaped pedestal (), a transport section () for transporting the sample (S), a sample holder identifying section () for generating a sample holder identification signal identifying the type of the sample holder appropriate to the diameter of the sample to be placed, and a determining section () for determining, based on the cassette identification signal and the sample holder identification signal, whether or not the diameter of the sample to be accommodated in the cassette () and the diameter of the sample to be placed on the pedestal of the sample holder () match with each other.

Analyzing apparatus

An analyzing apparatus , such as a fluorescence X-ray analyzer, being able to analyze samples automatically, by transferring the samples into an analysis chamber, sequentially, comprising: an interruption recover device for automatically turning on an electric power supply for the analyzing apparatus, when electricity is re-established after interruption thereof; and a data processing computer , being connected through the uninterruptible power source to an electric power source, wherein, the data processing computer includes function for temporality memorizing analysis information of the automatic analyzing apparatus when the interruption of electricity occurs, and function for supplying electricity to the analyzing apparatus through the interruption recover device and also for re-starting the analysis of the samples upon the basis of the memorized analysis information at the time when the interruption occurs, when the electricity is recovered, thereby being suitable for unmanned operation thereof.

An analyzing apparatus,comprising: a single main body ( ); a single main computer ( ), being connected to the main body directly, and enabling analysis operations by the main body; and sub-computers ( ) being connected to the main computer ( ) through a network ( ), wherein real-time display about progress of analysis and/or reference to results of analysis are available, as well as off-line operation thereof, on either one of the sub-computers ( ) through which the operation is not made for the analysis.

Growing community of inventors

Osaka, Japan

Hiroaki Kita