Canon Kabushiki Kaisha

Hitachi, Ltd.

Tdk Corporation

Kao Corporation

Sumitomo Electric Industries, Limited

Kyocera Corporation

Fuji Xerox Co., Ltd.

The Furukawa Electric Co., Ltd.

Fujikura Limited

Sony Corporation

Nec Corporation

Texas Instruments Corporation

Dai Nippon Printing Co., Ltd.

Tokyo Shibaura Denki Kabushiki Kaisha

Mitsubishi Heavy Industries Limited

Hirokazu Takahashi

Kazunori Takei

Hitoshi Kikuchi

Akinori Hayashi

Masahiro Fukuda

Nobuyuki Hokari

Kazuhiro Sato

Kenzo Makino

Hiromichi Kato

Satoshi Kaneko

Noriaki Matsui

Osami Yokota

Hiromi Koizumi

Akio Yamada

Hiroyuki Horii

Keizo Isemura

Shohei Yoshida

Yoshitaka Hirata

Yoshikazu Ogura

Tokuharu Kaneko

Masahiro Serizawa

Kazuyuki Ozai

Yoshio Mizuno

Taisei Fukada

Masayoshi Taira

Susumu Ohishi

Tatsunori Hayashishita

Akihiko Satoh

Kazuya Watanabe

Tetsuya Roppongi

Masahiko Ogawa

Shigeo Yamagata

Yasutomo Suzuki

Masahiko Yamagishi

Koji Nishida

Tomohiko Miyamoto

Masayuki A Suzuki

Hiroyuki Kimura

Yoichi Yamagishi

Kengo Mitose

Yoshikazu Soeno

Tomomi Koganezawa

Satoru Kutsuwada

Hirofumi Okazaki

Atsushi Suzuki

Satoshi Dodo

Suguru Watanabe

Yasuteru Eguchi

Tatsuya Sekiguchi

Takuya Watanabe

Isao Kojima

Chikazu Yokoi

Yuki Mitsui

Kenichi Tateyama

Norio Tashiro

Toshifumi Sasao

Takuya Higeta

Tsuyoshi Sasagawa

Jinichi Mashiyama

Shinya Ishizuka

Tomoyuki Sasaki

Chiharu Yamazaki

Tadashi Suzuki

Shinji Hara

Tsuyoshi Maeda

Katsuyoshi Suzuki

Akira Takahashi

Takashi Yamazaki

Naoki Ohta

Satoshi Miura

Shigeaki Takada

Hiroshi Matsuura

Keisuke Miura

Yasuhiro Ueda

Yasuhiro Wada

Kensaku Kusaka

Tetsuo Sasada

Tomotaka Muramoto

Akiyoshi Kimura

Shingo Kitamura

Eiji Hayashishita

Hidehiko Asai

Tomohiro Asai

Hironobu Matsuzawa

Hidekazu Maruta

Atsushi Morihara

Minoru Ota

Seiji Shibaki

Minoru Nada

Zhenyao Tang

Keiji Shibata

Masashi Hori

Kazuhiko Ishiwata

Satoshi Kumagai

Issey Miyake

Hideki Shimizu

Hiroaki Tokoi

Takamasa Ishikawa

Masato Hida

Harunori Urai

A terminal-equipped electric wire includes a terminal and a coated conductive wire, which are electrically connected to each other. A crimp part of the terminal is a part that crimps the coated conductive wire and includes a conductive wire crimp part crimping a conductive wire exposed from a coating on a tip-end side of the coated conductive wire, and a coating crimp part crimping the coating of the coated conductive wire. The coated conductive wire includes a tension member disposed in an approximate center of a cross section, and a conductive wire including a plurality of conductors disposed on an outer periphery of the tension member. The tension member includes a plurality of strands. The conductive wire is crimped at the conductive wire crimp part from the entire circumference of the circumferential direction of the conductive wire. Preferably, a tensile strength of the tension member is greater than that of the conductive wire.

Terminal-equipped electric wire, wiring harness, and method for manufacturing terminal-equipped electric wire

A magnetic sensor includes an MR element and a support member. The support member has an opposed surface including a first inclined portion, and a bottom surface. In a given cross section, the first inclined portion is inclined at a first angle at a first position, and inclined at a second angle smaller than the first angle at a second position. The absolute value of a curvature of the first inclined portion at the first position is less than the absolute value of the curvature of the first inclined portion at the second position. The MR element is provided on the first inclined portion so that the first edge is located above the first position in a given cross section.

Magnetic sensor including electrode disposed on inclined portion whose curvature changes

A terminal-equipped electric wire includes a terminal and a coated conductive wire, which are electrically connected to each other. A crimp part of the terminal is crimped to the coated conductive wire, and has a conductive wire crimp part, which is crimped to a conductive wire that is exposed from a coating on the front-end side of the coated conductive wire, and a coating crimp part, which is crimped to the coating of the coated conductive wire. On the front-end side (terminal body side) of the conductive wire crimp part, an electric wire holding part, which applies a relatively strong holding force on the conductive wire, is provided, On the rear-end side (coating crimp part side) of the conductive wire crimp part, a conductive part for achieving conduction with the conductive wire is formed.

Terminal-equipped electric wire, wiring harness, terminal, terminal crimper, and method for producing terminal-equipped electric wire

A magnetic sensor includes an MR element. The MR element includes a free layer. The free layer has a first surface having a shape that is long in one direction and a second surface located opposite the first surface, and has a thickness that is a dimension in a direction perpendicular to the first surface. The first surface has a first edge and a second edge located at both lateral ends of the first surface. In a given cross section, the thickness at the first edge is smaller than the thickness at a predetermined point on the first surface between the first edge and the second edge.

Magnetic sensor

A holder may include a base, an antenna and a sensor. The base has a bar shape extended along a central axis from a first end toward a second end. The base may include a metal member and a first resin. The metal member may include a pocket that is attachable of an insert including a cutting edge. The first resin may be located closer to the second end than the metal member. The antenna may be covered with the first resin. The sensor may be located closer to the pocket than the antenna and may be wired connected to the antenna, and may be measurable a state of the base. This configuration may contribute to solving the problem that handling of wiring becomes complicated.

Holder, cutting tool, method for manufacturing machined product, and method for collecting data

A magnetic sensor device includes a magnetic sensor detecting a detection-target magnetic field, and a soft magnetic structure near the sensor. In an orthogonal coordinate system having two orthogonal axes for representing an applied field strength and a magnetization-corresponding value, coordinates representing the applied field strength and the magnetization-corresponding value move along a minor loop not in contact with a major loop as the strength of an external magnetic field including the detection-target magnetic field varies within a variable range, where the applied field strength is a strength of a magnetic field applied to the soft magnetic structure, the magnetization-corresponding value is a value corresponding to magnetization of the soft magnetic structure, and the major loop is, among loops traced by a path of the coordinates as the applied field strength is varied, a loop that is the largest in terms of area of the region enclosed by the loop.

Magnetic sensor device

One embodiment provides a solenoid valve. The solenoid valve includes a fixed core, a movable core and a coil. A first valve seat member and a second valve seat member are fixed in the fixed core, and a valve body member is disposed therebetween. A spring member is interposed between the valve body member and the second valve seat member such that the valve body member is normally seated on the first valve seat member. The valve body member can move away from the first valve seat member to be seated on the second valve seat member, by being pushed by the movable core. And, a guide member holds the valve body member and the spring member to the second valve seat member so as not to move away from the second valve seat member.

Solenoid valve, vehicle brake hydraulic pressure control apparatus and solenoid valve fabrication method

Provided is a component-manufacturing film that includes a first region Sand a second region Sdisposed so as to surround the region S; the region Sis formed of a base layer and an adhesive layer provided on one surface side of the base layer; the region Sis formed of the base layer, the adhesive layer, and an additional layer affixed onto the layer. In the temperature range of 190&#xb0; C. or lower, a tensile elastic modulus of the additional layer is equal to or greater than the tensile elastic modulus of the base layer. Further provided are a component-manufacturing tool and method, the latter including a component fixing step; a film placement step of performing placement so that the boundary between the region Sand the region Sis located inside with respect to an edge of the chuck table; a chucking step; and a heating step.

Component-manufacturing film, component-manufacturing tool, and component-manufacturing method

A magnetic sensor device includes a magnetic sensor, and a soft magnetic structure disposed near the magnetic sensor. The magnetic sensor and the soft magnetic structure are configured so that when an external magnetic field including a detection-target magnetic field is applied to the magnetic sensor, the external magnetic field is also applied to the soft magnetic structure, and when the soft magnetic structure has a magnetization, a magnetic field based on the magnetization of the soft magnetic structure is applied to the magnetic sensor. The soft magnetic structure has a stripe domain structure.

Magnetic sensor device having a soft magnetic structure

A magneto-resistive effect element includes a magnetization free layer, an intermediate layer, and a magnetization pinned layer. The magnetization free layer extends along a first plane. The intermediate layer extends along the first plane, and is stacked on the magnetization free layer. The magnetization pinned layer extends along the first plane, and is provided on side opposite to the magnetization free layer with the intermediate layer being interposed therebetween. Here, the magnetization free layer includes an end surface that has a maximum inclination angle of 42&#xb0; or less relative to the first plane.

Magneto-resistive effect element

In a gas turbine combustor, a sectional shape in a radial direction of either one of an inner peripheral surface of a second inner tube member and an outer peripheral surface of a first inner tube member, in a fitting portion of a crossfire tube assembly, has a plurality of small-curvature portions having a curvature smaller than a reference curvature, the reference curvature being a curvature of a portion at a maximum distance from the center of the sectional shape. This configuration ensures the crossfire tube assembly is cooled, and the Possibility of thermal deformation or fire damage is lowered, without lowering the temperature of a combustion exhaust gas passing through the crossfire tube assembly of the gas turbine combustor.

Crossfire tube assembly with inner tube having different curvatures

Growing community of inventors

Tokyo, Japan

Hirokazu Takahashi