Toyota Jidosha Kabushiki Kaisha

Sintokogio, Ltd.

Brother Kogyo Kabushiki-Kaisha

Jtekt Corporation

Xing Inc.

Daido Tokushuko Kabushiki Kaisha

Nidec Corporation

Toyo Kogyo Co., Ltd.

Inoac Corporation

Toyoda Koki Kabushiki Kaisha

Nissha Co., Ltd.

Ngk Insulators, Inc.

Kabushiki Kaisha Toyota Chuo Kenkyusho

Daiwa Kasei Industry Co., Ltd.

Jtekt Column Systems Corporation

Hiroaki Suzuki

Masato Umeoka

Kentaro Ushiyama

Yuji Kiyohara

Koichi Iijima

Yoshihiko Hibino

Toshihiko Shima

Takao Shimizu

Takayuki Migita

Hideki Matsuo

Noboru Yamamoto

Yoshiyuki Takeuchi

Masaki Tsuchiya

Hitoshi Rokutanda

Makoto Takahashi

Kazushi Numazaki

Takuya Koyama

Munetoshi Kuroyanagi

Hideaki Kaga

Shoichi Yamamoto

Kiyotaka Yoshida

Kazuyuki Shudo

Soichi Shirai

Kunio Ota

Seietsu Abe

Teppei Kimura

Shinobu Kato

Tomohiro Kudo

Osamu Tatebe

Yuetsu Kodama

Tomonori Sugiura

Hiroyasu Makino

Takuya Suzuki

Toshikatsu Kubo

Hideyuki Numata

Yasushi Yanagihara

Yoshikazu Harada

Naofumi Kawamura

Yoshikazu Shouji

Takanori Tsubaki

Shigeyuki Inagaki

Takao Inoue

Junichi Touura

Yoshinori Imoto

Kosuke Ito

Tadayoshi Kamiya

Nobuyuki Shirai

Yosuke Konno

Yutaka Inada

Kenji Mizuno

Takahiro Baito

Shizuo Takeda

Yusuke Ibi

Akihiko Murakami

Toshiyasu Funato

Tomokazu Hisadome

Tetsuya Ebisu

Yuki Fujioka

Kazuhisa Asakawa

Taketoshi Tomita

Takao Nakaaki

Yoshiaki Murakami

Takafumi Oba

Toshiaki Ando

Yoshinobu Enomoto

Makoto Suzuki

Akira Yamashita

Jin Won Kim

Hideki Hayashi

Tetsuya Nakagawa

Masayoshi Sakuda

Takeo Iwasaki

Nakaba Kataoka

Toshiyuki Nagafuchi

Tsukuo Ishitoya

Masaki Motozaki

Masatoshi Watanabe

Yasutaka Fukumoto

Chihiro Uchimura

Kentaro Iwanaga

Hirotsugu Horio

Jiro Okimoto

Takao Imaeda

Soshi Mitsuyama

Noritaka Watanabe

Katsunori Kohda

Rikiya Yoshinaga

Nozomi Morishita

Youhei Kusamoto

Katsuhiko Takeuchi

Shingo Ougita

Hideki Iwai

Hiroki Taguchi

Toshinobu Maeda

Kazuo Terasawa

Kouji Kamiya

Yuusuke Ito

Kentaro Furuki

Yasuhiro Tanioka

Takashi Yamaguchi

A MEMS gas sensor mount body includes a MEMS gas sensor chip and a printed circuit board. The MEMS gas sensor chip includes a base having a cavity, an insulating film having an opening portion, a gas sensing unit, and a plurality of pads. The printed circuit board includes a gas introduction path, and a plurality of connection terminals. The MEMS gas sensor chip is mounted on the printed circuit board to cover the opening portion, with the cavity and the gas introduction path overlapping in plan view, and with the plurality of pads electrically connected to the plurality of connection terminals. The gas introduction path is provided on the printed circuit board in a region other than a region on which the gas sensing unit is positioned.

MEMS gas sensor mount body

A gear includes an annular sleeve and a tooth portion provided by injection molding to cover a part of the sleeve. The sleeve is a stacked body including a plurality of annular steel plates stacked in an axial direction of the sleeve.

Gear and steering device

A steering column device includes a lower tube that is attached to a vehicle body so as to be pivotable in an up-down direction, a column shaft to which a steering wheel is attached, an upper tube that rotatably supports the column shaft and that also is attached to the lower tube so as to be movable in a front-rear direction, a motor for generating motor torque, a link mechanism that couples the lower tube and the upper tube so as to be capable of moving in conjunction, and a power transmission mechanism that acts to transmit the motor torque to the link mechanism. The link mechanism causes the pivoting of the lower tube in the up-down direction and the movement of the upper tube in the front-rear direction to be performed in conjunction, when the motor torque is transmitted to the link mechanism by the power transmission mechanism.

Steering column device

A honeycomb structure includes a pillar-shaped honeycomb structure body having a porous partition wall so as to surround a plurality of cells extending from a first end face to a second end face, and a circumferential coating layer composed of a circumferential coating material coated on at least a part of circumference of the honeycomb structure body, wherein the circumferential coating layer has a printing area for printing on the surface thereof, the printing area has a lightness (L*) in L*a*b* color space (CIE1976) defined by International Commission on Illumination (CIE) of 35 or more, and the printing area has a surface roughness Ra of 30 μm or less.

Honeycomb structure and manufacturing method of the same

To extend the life of a MEMS gas sensor, the MEMS gas sensor includes an insulator, a gas sensitive material, a first oxide film and an interlayer insulating film, a heater wiring pattern, a lower protective film, and an upper protective film. The insulator includes a cavity. The gas sensitive material is provided corresponding to the cavity. The first oxide film and the interlayer insulating film are provided on the insulator and arranged to overlap each other in a plan view. The heater wiring pattern serves to heat the gas sensitive material and is disposed between the first oxide film and the interlayer insulating film. The lower protective film and the upper protective film cover, in direct contact, an upper surface, a lower surface, and a side surface of the heater wiring pattern.

MEMS gas sensor and method for manufacturing MEMS gas sensor

A separation device that separates a mixture of magnetic bodies that are granular and non-magnetic bodies that is granular into the magnetic bodies and the non-magnetic bodies. The separation device includes a magnetic force separating mechanism, a wind force generation portion, a first wind force separating portion, and a second wind force separating portion. The magnetic force separating mechanism separates the mixture into first separated objects and second separated objects by attracting the magnetic bodies from the mixture of magnetic force. The first separated objects mainly contain the magnetic and non-magnetic bodies. The second separated objects mainly contain the non-magnetic bodies and magnetic bodies. The wind force generation portion generates wind force. The first wind force separates the first separated objects into the magnetic and non-magnetic bodies of wind force. The second wind force separates the second separated objects into the non-magnetic bodies and magnetic bodies of wind force.

Separation device

A magnetic separating apparatus and magnetic sorting method can precisely and efficiently separate magnetic and non-magnetic material with a simple structure. The apparatus includes a granular mixture supply portion that supplies a granular mixture so as to naturally fall; a rotating drum having a part of an outer surface located on a falling path of the granular mixture, the rotating drum being rotationally driven in an opposite direction relative to the falling direction of the granular mixture; a first magnet that imparts a magnetic attractive force to a certain area defined by rotation in the opposite direction with a sorting area as a starting point; a naturally falling area to which the granular mixture that has come into contact with the rotating drum naturally falls; and a conveyed falling area to which the granular mixture naturally falls after being magnetically attracted to and conveyed by the rotating drum.

Magnetic separating apparatus and magnetic sorting method

A package is configured such that a length in a direction parallel to a semiconductor chip is larger than a length in a direction orthogonal to the semiconductor chip, and the package includes a substrate to which the semiconductor chip is electrically connected and fixed, a side wall firmly attached to the substrate, and a cover firmly attached to the side wall. The package includes a detection space in which gas flows around the semiconductor chip. The package includes openings formed in the side wall and/or between the side wall and the cover and communicated with the detection space.

Gas sensor module and method of manufacturing gas sensor module

A non-transitory computer-readable storage medium stores computer-readable instructions for an information processing apparatus including: a processor; a display; and a memory storing at least one set of printer information. First and second type printers transmit status information to the information processing apparatus. The status information from the first type printer includes first information. The status information from the second type printer includes second information. The computer-readable instructions, when executed by the processor, cause the information processing apparatus to perform: setting target printer information to one of the at least one set of printer information; receiving the status information from a printer specified by the target printer information; and displaying, when the received status information includes the first information, a first screen on the display; and displaying, when the received status information includes the second information and does not include the first information, a second screen on the display.

Storage medium storing computer-readable instructions for causing information processing apparatus to display information of printer

The present invention is a centrifugal projector () for projecting projection material () toward a processing target, comprising a side plate (), a plurality of blades () attached to the side plate, a rotary shaft () for rotating the side plate and the blades, and an introducing part () for introducing the projection material between the blades; wherein the blades () includes a projection surface () for projecting the projection material, and the projection surface () has a first part () being a radial inner part of the blade and a second part () being a radial outer part of the blade; the first part () is formed to be pitched so that a radial outer side () of the first part is positioned to a rear in the rotational direction (R) compared to a radial inner side () of the first part, and the second part () of the blade is formed to be positioned to a front in the rotational direction (R) of an imaginary line (L) which extends the first part () of the blade toward a radial outer side of the projector.

Centrifugal projector and blade

The centrifugal projector () of the present invention has: a side plate (), a plurality of blades () attached to the side plate (), a control cage (-) disposed on a radial inner side of the side plate for releasing the projection material between blades from an opening portion (-), a distributor (), disposed on a radial inner side of the control cage, for mixing and supplying the projection material to the control cage, and a rotary shaft () for rotating the side plate, blades and distributor; wherein the blades are formed to be pitched so that a radial outer side () thereof is positioned to a rear in the rotational direction (R) compared to a radial inner side () thereof; the control cage (-) has a plurality of opening windows (-), or a single opening window in which a portion or all of a plurality of opening windows are respectively overlapped and integrated into a single piece.

Centrifugal projector

An objective is to provide a hitherto not-existing retention component that is for a wiring bundle and can be manufactured without tying the wiring bundle, a wire harness including the retention component, and a manufacturing method and a manufacturing device for the wire harness. A metal mold that is used has a penetration hole in which a wiring bundle is to be penetratingly disposed, an annular retention portion-molding space for surrounding the outer circumference of the wiring bundle, and an engagement portion-molding space communicatively connected with the retention portion-molding space. The wiring bundle is disposed in the penetration hole, a melt resin is poured in the retention portion-molding space from the engagement portion-molding space, and solidified through cooling to mold a retention portion integrally with a engagement portion in a state of being closely adhered to an outer circumference of the wiring bundle.

Method for manufacturing wire harness

A non-transitory computer-readable recording medium storing computer-readable instructions which causes an information processing terminal to transmit first request information requesting an image processing apparatus to transmit first information, receive the first information, as a response to the first request information, from the image processing apparatus, determine whether a set value of the received first information is the first value or the second value. When the first information is set to the first value, the instructions further cause the information processing terminal to transmit second request information requesting the image processing apparatus to transmit the second information, and receive the second information, as a response to the second request information, from the image processing apparatus. When the first information is set to the second value, the instructions do not cause the information processing terminal to transmit the second request information and to receive the second information.

Non-transitory computer-readable recording medium for information processing terminal

The present invention is a side plate unit () used in a centrifugal projector () which projects projection material () toward a processing target by rotating a plurality of blades (), and the side plate unit () being provided to attach the plurality of blades thereto, the side plate unit () comprising: a pair of side plates (); and a joining member () for joining the pairs of side plates; wherein guide channel portions () are respectively formed on mutually opposing surfaces of the pair of side plates (); and the side plate guide channel portions () are formed to be pitched so that the radial outer side thereof is positioned to a rear in the rotational direction (R) compared to the radial inner side thereof.

Side plate unit and centrifugal projector

Growing community of inventors

Nagoya, Japan

Hiroaki Suzuki