Sony Corporation

Mitsubishi Chemical Corporation

Mitsubishi Electric Corporation

Renesas Electronics Corporation

Mu Ionic Solutions Corporation

Sony Semiconductor Solutions Corporation

Nec Electronics Corporation

Sony Group Corporation

Daisuke Kawakami

Masatoshi Ueno

Hideyuki Suzuki

Toshiyuki Nakagawa

Katsutoshi Itoh

Tetsuro Goto

Tsubasa Tsukahara

Hisako Sugano

Shinobu Kuriya

Kenichi Kabasawa

Hiroyuki Tokuda

Masahiro Takehara

Hiroyuki Hamasaki

Ryo Yamaguchi

Katsuhito Ishida

Madoka Baba

Kyohei Yamaguchi

Junya Ohde

Yuta Atobe

Takashi Matsuo

Shinichi Shibahara

Yutaka Igaku

Hiroaki Yoshida

Koji Fukamizu

Kimiya Kato

Seiji Kobayashi

Masanori Sato

Akira Endo

Nabil Sven Loghin

Ryoji Ikegaya

Hideki Iwami

Hirotaka Ishikawa

Hiroshi Aoki

Hiroyuki Kamata

Akihiro Kikuchi

Toshihiro Fujiki

Sho Amano

Hiroyuki Mita

Toshiyuki Hiraki

Shinji Takae

Sawako Kiriyama

Chihiro Morita

Yusuke Yoneyama

Tatsuhiko Honda

Tomohiko Higashiyama

Hideshi Motoyama

Yasuo Aita

A nonaqueous electrolytic solution may include a nonaqueous solvent and a compound of formula (1): wherein, Rto Rare each independently H or an alkyl group with 1 to 3 carbon atoms and optionally a substituent; Ris an organic group with 1 to 8 carbon atoms and optionally a heteroatom; X is C, S, or P; when X is C, l=0, m=1, and n=1, when X is S, l=0, m=2, and n=1, and when X is P, l=0, m=1, and n=2 or l=1, m=1, and n=1; k is an integer of 2 to 4; and Y is a direct bond or a linking group with 1 to 8 carbon atoms and optionally a heteroatom, and when Y is a direct bond, the compound has an X-X bond and k=2.

Nonaqueous electrolytic solution and energy device including the same

The present invention relates to a vehicle control device. A vehicle control device includes an autonomous driving control unit configured to determine a travel route when implementing autonomous driving based on surrounding environment information and position information of a vehicle and calculate and output a control amount in accordance with the travel route, a monitoring unit configured to monitor a calculation time of the autonomous driving control unit, and a switching unit configured to receive output from the autonomous driving control unit and output the control amount or an alternative control amount in place of the control amount based on instruction of the monitoring unit, in which the monitoring unit is configured to, when the calculation time exceeds a threshold value, notify the autonomous driving control unit of a calculation interruption request, notify the switching unit of a control amount switching request.

Vehicle control device

The present invention relates to a method for producing lithium fluorosulfonate which comprises reacting a lithium salt and fluorosulfonic acid in a nonaqueous solvent, wherein the lithium salt is a lithium salt not generating water through the reaction step.

Method for producing lithium fluorosulfonate, lithium fluorosulfonate, nonaqueous electrolytic solution, and nonaqueous electrolytic solution secondary battery

Provided are: a non-aqueous electrolyte solution that can improve the charged storage characteristics of a non-aqueous electrolyte battery under a high-temperature environment while containing FSOLi; and a non-aqueous electrolyte battery having excellent charged storage characteristics under a high-temperature environment. The non-aqueous electrolyte solution contains FSOLi and a specific amount of ions of a specific metal element.

Non-aqueous electrolyte and non-aqueous electrolyte battery

A semiconductor device includes a processing unit that issue a memory access request with a virtual address, a first and a second memory management unit and a test result storage unit. The first and the second memory management unit are hierarchically provided, and each include address translation unit translating the virtual memory of the memory access request into a physical address and self-test unit testing for the address translation unit. The test result storage unit stores a first self-test result that indicates a result of the first self-test unit and a second self-test result that indicates a result of the second self-test unit.

Semiconductor device including a memory management unit

A nonaqueous electrolytic solution including an electrolyte, a nonaqueous solvent, and a compound represented by Formula (1) below. (in Formula (1), Xand Xeach independently represent C, S, or P; nand neach independently represent 1 when Xand Xrepresent C or P and 2 when Xand Xrepresent S; nrepresents 1 or 2; nrepresents 1 or 2; Yand Yeach independently represent a hydrocarbon group that may have a substituent or an —OW group (where W represents a hydrocarbon group that may have a substituent); mrepresents 1 or 2, and mrepresents 1 or 2; and Z represents a hydrocarbon group that may have a substituent, an —SiVgroup (where V represents a hydrocarbon group that may have a substituent), an organic onium, or a metal).

Nonaqueous electrolytic solution and electrical storage device including the same

A task is to provide a non-aqueous electrolytic solution exhibiting excellent cycle capacity maintaining ratio and excellent low-temperature resistance characteristics and a non-aqueous electrolyte secondary battery using the same. An object of the present invention is to provide a non-aqueous electrolytic solution which improves the cycle capacity maintaining ratio and low-temperature resistance characteristics, and a non-aqueous electrolyte secondary battery using the non-aqueous electrolytic solution. The present invention is a non-aqueous electrolytic solution comprising an electrolyte and a non-aqueous solvent dissolving therein the electrolyte, wherein the non-aqueous electrolytic solution contains a compound represented by formula (1) (wherein X represents an organic group containing a heteroatom, Y represents a sulfur atom, a phosphorus atom, or a carbon atom, n represents an integer of 1 or 2, m represents an integer of 2 to 4, l represents an integer of 1 or 2, and Z represents an organic group having 4 to 12 carbon atoms and optionally having a heteroatom), and a non-aqueous electrolyte secondary battery comprising the non-aqueous electrolytic solution.

Non-aqueous electrolytic solution and non-aqueous electrolyte secondary battery using the same

Provided is a vehicle control device configured to execute specific control while at the same time sequentially switching the specific control that defines an operation to be executed by each of a plurality of surrounding environment acquisition devices configured to acquire information on a surrounding environment of a vehicle, a recognition/determination ECU configured to generate a path on which the vehicle is to travel, and an integrated control ECU configured to control the vehicle based on the generated path along with an elapse of time since detection of an anomaly, when the anomaly is detected in any one of the plurality of surrounding environment acquisition devices, the recognition/determination ECU, and the integrated control ECU.

A semiconductor device includes an interrupt control circuit that receives a plurality of interrupt signals from the circuit blocks and outputs an interrupt request to the processor, and an interrupt monitoring circuit that corresponds to one of the interrupt signals and includes a setting circuit for setting a monitoring type and first and second monitoring periods. If the monitoring type indicates an asserted state of the interrupt signal, the interrupt monitoring circuit monitors the asserted state. If a first duration of the continuous asserted state exceeds the first monitoring period, the interrupt monitoring circuit detects the state as a failure. If the monitoring type indicates a negated state of the interrupt signal, the interrupt monitoring circuit monitors the negated state. If a second duration of the continuous negated state exceeds the second monitoring period, the interrupt monitoring circuit detects the state as a failure.

Interrupt monitoring systems and methods for failure detection for a semiconductor device

A nonaqueous electrolytic solution that includes lithium fluorosulfonate and a sulfate ion in an amount of from 1.0&#xd7;10mol/L to 1.0&#xd7;10mol/L.

A vehicle control apparatus includes an automatic driving control device determining a travel route at a time of executing an automatic driving based on surrounding environment information and position information of a vehicle, and outputting a control amount corresponding to the travel route, and a steering control device calculating a steering control amount based on the control target value. There is a performing of steering control of the vehicle based on the steering control amount, wherein the automatic driving control device dynamically determines a control amount threshold value for regulating a limit of the steering control amount based on automatic driving control information indicating a control state in an automatic driving of the vehicle, and provides the steering control device with the control amount threshold value, and the steering control device changes the steering control amount not to exceed the control amount threshold value.

Vehicle control apparatus

In a transfer control apparatus (), each function unit () specifies a transfer time and a device ID, and makes a transfer request of device data. A first control unit (), in response to the transfer request from a request source being any of a plurality of function units (), transfers the device data between a first area () corresponding to the request source, and a second area () corresponding to a combination of the transfer time and the device ID specified by the request source. A second control unit () transfers, when a second area () corresponding to a transfer time being same as a time notified by a timer () exists, the device data between that second area (), and a third area () corresponding to the same device ID as that second area ().

Transfer control apparatus, vehicle, and transfer control method

A control device including a failure diagnosis unit configured to identify a phenomenon that is a cause of the detected error, wherein the failure diagnosis unit is configured to: calculate a diagnosable time available to be spent on the identification of the phenomenon that is the cause of the error; and identify, for each detected error, a phenomenon that is the cause of the error based on a posterior probability, which is calculated for each phenomenon that is likely to be the cause of the error as a probability of occurrence of the phenomenon, on a diagnosis time, which is obtained for each phenomenon as a period of time required to identify the phenomenon as the cause of the error, and on the diagnosable time.

Control device, and processing method in event of failure in control device

LDPC coding is executed using a check matrix of an LDPC code whose code length is 736 bits and whose code rate is 1/4, and modulation is executed using a repetition unit that has an LDPC code obtained by the LDPC coding, repeatedly arranged therein. The LDPC code includes information bits and parity bits, the check matrix includes an information matrix portion corresponding to the information bits and a parity matrix portion corresponding to the parity bits, the parity matrix portion has a stepwise structure, the information matrix portion is indicated by a check matrix initial value table, and the check matrix initial value table is a predetermined table indicating positions of elements of '1' of the information matrix portion for each eight columns. This technique is applicable to, for example, information transmission using the LDPC code.

Transmitting apparatus and transmission method, receiving apparatus and reception method, and program

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Kanagawa, Japan

Daisuke Kawakami