Kureha Kagaku Kogyo Kabushiki Kaisha

Kabushiki Kaisha Toshiba

Sinfonia Technology Co., Ltd.

Shinko Electric Company, Ltd.

Mitsubishi Heavy Industries Engine & Turbocharger, Ltd.

Kureha Chemical Industry Company, Limited

Takayoshi Fujii

Chikao Yoshikumi

Kenichi Matsunaga

Fumio Hirose

Takao Ando

Masanori Ikuzawa

Yoshio Ohmura

Minoru Ohhara

Takashi Fukunaga

Hiroshi Nakagawa

Masahiko Fujii

Takashi Onoue

Koichi Niimura

Yasushi Muragishi

Yuji Maeda

Hideaki Moriya

Takao Furusho

Kenichi Saito

Katsuyoshi Nakano

Shigeaki Muto

Yoshiharu Oguchi

Yushi Sato

Minoru Ohara

Toshihiko Wada

Tadaaki Kato

Saburo Ueno

Eiichi Takahashi

Masaaki Narihisa

Akihiro Kojima

Hideyuki Yamato

Yoshio Omura

Akihiko Kanno

Yasuhiko Kobayashi

Yasuhiro Sakai

Noriyuki Toyoda

Tamotsu Kanoh

Yoshiaki Sugizaki

Kazuhito Higuchi

Susumu Obata

Takeo Ito

Akira Kobayashi

Taisuke Sato

Yasutomo Shiomi

Yusaku Konno

Makoto Kaneko

Takeshi Tomizaki

Toshitake Kitagawa

Kazufumi Shiozawa

Isamu Motokawa

Yoko Onishi

Tokio Morohoshi

Yudai Fujioka

Shinya Nunoue

Yosuke Akimoto

Yuichiro Yamazaki

Koichi Tachibana

Toshiyuki Oka

Toshiyuki Terada

Haruhiko Okazaki

Kazumichi Kato

Tetsuo Sakai

Hiroshi Takizawa

Shinichi Imai

Tetsuyuki Kimura

Hidefumi Yasuda

Naomichi Shibata

Shigeyuki Takagi

Yuko Kato

Hidehiko Yabuhara

Hideo Shiozawa

Toshiaki Kawabata

Akira Maekawa

Miyuki Shimojuku

Hidetoshi Katada

Toshihiro Kuroki

Yosuke Muraguchi

Nobuhiro Saito

Tomoko Morioka

Yuushi Sato

Shigeto Ohtsuka

Tsuneo Akatsu

Mitsutoshi Watabiki

Yusuke Ilda

Yaushi Muragishi

Kiminori Yoshino

Yusuke Iida

A rotary electrical machine includes a housing which includes a flow passage portion in which a refrigerant flow passage through which a refrigerant flows is formed and which houses a rotor and a stator. The refrigerant flow passage includes a first flow passage of which a length from the inlet to the outlet in the circumferential direction is a predetermined length, and a second flow passage of which a length from the inlet to the outlet in the circumferential direction is shorter than that of the first flow passage. The second flow passage is provided with a partition wall portion between the inner peripheral wall and the outer peripheral wall in the radial direction. A slit penetrating the partition wall portion in the circumferential direction is formed in the partition wall portion. A width of the slit is smaller than a width of the first flow passage.

Rotary electrical machine refrigerant flow passage partition wall gap

A rotary electrical machine includes a rotor, a stator, and a housing having a flow passage section. The flow passage section has an inner circumferential wall that makes contact with an outer circumferential surface of the stator, an outer circumferential wall arranged on the outside of the inner circumferential wall in the radial direction, and a partition wall section, which is provided in a portion in the circumferential direction, and connects the inner circumferential wall and the outer circumferential wall in the radial direction. The stator has a yoke section extending in the circumferential direction, and a plurality of teeth extending radially inward from the yoke section. The yoke section has a first portion connected to each of the teeth, and a second portion arranged between two first portions adjacent to each other in the circumferential direction. The partition wall section faces the second portion in the radial direction.

Rotary electrical machine

According to one embodiment, a display control device extracts a first feature from a first image of a welding operation, and causes a display device to display the first feature and a guide, the guide being related to the welding operation. The guide preferably includes a second feature corresponding to the first feature. The first feature and the second feature each may indicate a shape and position of a component related to the welding operation.

Display control device, display system, welding system, welding method, display control method, storage medium

A linear actuator is provided that has a configuration capable of inhibiting contact between an inner core and a plate spring that is connected to the inner core and an outer core, and which is realized by a configuration that is easy to assemble. A stator is arranged in an opening section of a through-hole in the inner core, and has a spacer through which a shaft passes. An outer frame section of the plate spring is connected to the outer core, and a fixed section of the plate spring is connected to the inner core through the spacer in a state in which the shaft passes therethrough. The spacer includes a penetration section having an insertion hole which the shaft is inserted through, and restriction sections and which restrict a displacement of a predetermined amount or more of the plate spring to the inner core side.

Linear actuator

The linear actuator includes an inner core (), and an outer core () provided outside the inner core in a radial direction while being supported by a pair of flat springs (and). Permanent magnets (and) are formed at one of the inner core and the outer core, and magnetic pole portions (and) are formed at the other of the inner core and the outer core to face the permanent magnet with predetermined gaps formed therebetween. Spacers (and) are respectively provided between the inner core and the flat springs, abutting portions are respectively configured by abutting facing surfaces of the spacers and the inner core and facing surfaces of the spacers and the flat springs adjacent to the spacers in the axial direction, and at least an engagement portion including a recess and a protrusion are arranged at the abutting portions.

A linear actuator includes an inner core, and an outer core that is provided outside the inner core in a radial direction while being supported by a pair of flat springs. Permanent magnets are formed at one of the inner core and the outer core, and magnetic pole portions are formed at the other of the inner core and the outer core to face the permanent magnet with predetermined gaps formed therebetween. Spacers are respectively provided between the inner core and the flat springs, abutting portions are respectively configured by abutting facing surfaces of the spacers and the inner core and facing surfaces of the spacers and the flat springs adjacent to the spacers in the axial direction, and a plurality of engagement portions including recesses and protrusions are arranged at the abutting portions.

A semiconductor laser includes: a stacked body having an active layer including a quantum well layer, the active layer having a cascade structure including a first region capable of emitting infrared laser light with a wavelength of not less than 12 &#x3bc;m and not more than 18 &#x3bc;m by an intersubband optical transition of the quantum well layer and a second region capable of relaxing energy of a carrier alternately stacked, the stacked body having a ridge waveguide and being capable of emitting the infrared laser light; and a dielectric layer provided so as to sandwich both sides of at least part of side surfaces of the stacked body, a wavelength at which a transmittance of the dielectric layer decreases to 50% being 16 &#x3bc;m or more, the dielectric layer having a refractive index lower than refractive indices of all layers constituting the active layer.

Semiconductor laser

In accordance with an embodiment, a pattern inspection method includes applying a light to a substrate including an inspection target pattern in a plurality of optical conditions, detecting a reflected light from the substrate to acquire a pattern image for each of the optical conditions, outputting a gray value difference between the pattern image and a reference image for each of the optical conditions, and specifying a position of the defect in a stacking direction of the stacked film from a relation of the obtained gray value difference between the optical conditions. The pattern is formed by a stacked film, the optical conditions includes at least a first optical condition for detection of a defect on a surface of the stacked film.

Pattern inspection method and pattern inspection apparatus

According to one embodiment, a semiconductor light emitting device includes a stacked body, first and second electrodes. The stacked body includes a light emitting layer. The first and second electrodes are provided on the stacked body. The device further includes an insulating layer covering the stacked body, a first conversion electrode electrically connected to the first electrode, a second conversion electrode electrically connected to the second electrode (), and a light blocking body covering a side surface of the stacked body. The first conversion electrode, the second conversion electrode, and the light blocking body include, in a portion contacting with the insulating layer, a member with a reflectance of 80 percent or more for light emitted from the light emitting layer.

Semiconductor light emitting device

According to one embodiment, a light emitting device includes a base, a light emitting element, and a fluorescent body-containing layer. The light emitting element is installed on the base, has an upper surface and a lower surface, and includes a light emitting unit on the upper surface. The fluorescent body-containing layer is provided on the light emitting element and has a lower surface having an area smaller than an area of the light emitting unit and an upper surface having an area larger than an area of the light emitting unit.

Light emitting device

There is provided a movable iron core linear actuator, which includes a magnetic circuit which causes a moving element to reciprocate. The magnetic circuit includes an iron core constituting the moving element, a stator core including a facing portion which faces the iron core, a pair of permanent magnets disposed in the facing portion along a reciprocating direction and having inverted magnetic poles at their surfaces which face the iron core, and a coil wound around the stator core. Energization to coil causes the moving element to reciprocate. When the coil is energized, the spring force of magnetic spring which changed in accordance with a relative position of the moving element with respect to the stator core is superimposed on the electromagnetic driving force produced by the energization of the coil and is applied to the moving element by the magnetic flux produced by the permanent magnets.

Movable iron core linear actuator

According to one embodiment, a semiconductor light emitting device includes a semiconductor layer, a p-side electrode, an n-side electrode, an inorganic insulating film, a p-side interconnection portion, an n-side interconnection portion, and an organic insulating film. The organic insulating film is provided on the inorganic insulating film, at least on a portion between the p-side interconnection portion and the n-side interconnection portion. An end portion of the p-side interconnection portion on the n-side interconnection portion side and an end portion of the n-side interconnection portion on the p-side interconnection portion side override the organic insulating film.

There is provided a movable iron core linear actuator, which includes a magnetic circuit (mc) which causes a moving element () to reciprocate. The magnetic circuit (mc) includes an iron core () constituting the moving element (), a stator core () including a facing portion () which faces the iron core (), a pair of permanent magnets () disposed in the facing portion () along a reciprocating direction and having inverted magnetic poles at their surfaces which face the iron core, and a coil () wound around the stator core (). Energization to coil () causes the moving element () to reciprocate. When the coil () is not energized, offset force (F) is applied to the moving element () by the magnetic flux produced by the permanent magnets ().

A semiconductor light emitting device includes a light emitting unit, a first and second conductive pillar, a sealing unit, a translucent layer, and a wavelength conversion layer. The light emitting unit includes a first and second semiconductor layer and a light emitting layer. The first semiconductor layer has a first and second major surface. The first major surface has a first and second portion. The second major surface is opposed the first major surface and has a third and fourth portion. The light emitting layer is provided on the first portion. The second semiconductor layer is provided on the light emitting layer. The first conductive pillar is provided on the second portion. The second conductive pillar is provided on the second semiconductor layer. The translucent layer is provided on the fourth portion. The wavelength conversion layer is provided on the third portion and on the translucent layer.

According to one embodiment, a semiconductor light emitting device includes a semiconductor layer, a p-side electrode, an n-side electrode, and an inorganic film. The semiconductor layer includes a first surface having an unevenness, a second surface opposite to the first surface, and a light emitting layer. The semiconductor layer includes gallium nitride. The inorganic film is provided to conform to the unevenness of the first surface and in contact with the first surface. The inorganic film has main components of silicon and nitrogen. The inorganic film has a refractive index between a refractive index of the gallium nitride and a refractive index of air. An unevenness is formed also in a surface of the inorganic film.

Semiconductor light emitting device and method for manufacturing same

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Tokyo, Japan

Takayoshi Fujii