Matsushita Electric Industrial Co., Ltd.

Panasonic Corporation

Mikuni Kogyo Kabushiki Kaisha

Other

Mitsubishi Denki Kabushiki Kaisha

Mitsubishi Heavy Industries Limited

Ricoh Company, Ltd.

Mikuni Kogyo Co., Ltd.

Mitsubishi Jidosha Kogyo Kabushiki Kaisha

Seiko Instruments Inc

Sony Corporation

Koninklijke Philips Corporation N.v.

Matsushita Electrical Industrial Co., Ltd.

Akita University

Koninklijke Philips Electronics N.v.

Takashi Ishida

Atsushi Nakamura

Mamoru Shoji

Shigeru Furumiya

Junichi Minamino

Hiromichi Ishibashi

Shunji Ohara

Toyoji Gushima

Motoshi Ito

Hiroshi Ueda

Yoshikazu Yamamoto

Isao Satoh

Yoshinari Takemura

Hironori Deguchi

Yoshito Aoki

Kenji Koishi

Makoto Usui

Takeshi Nakajima

Yuji Hisakado

Yoshikazu Goto

Shuichi Tasaka

Noboru Tominari

Shunji O'Hara

Kiyoka Takagi

Kenzo Ishibashi

Shin-ichi Kadowaki

Toshio Abe

Yoshiharu Kobayashi

Yuichi Kamioka

Shinji Kubota

Tadashige Furutani

Kazuhiko Nakane

Shinya Abe

Masato Nagasawa

Naoyasu Miyagawa

Yoshinobu Ishida

Kohei Nakata

Kazuaki Kishimoto

Takayuki Koyama

Kenichi Nishiuchi

Yuji Takagi

Shin-ichi Tanaka

Shigeaki Furukawa

Takahiro Nagai

Tetsuya Akiyama

Shinichi Konishi

Shuichi Kamiyama

Akira Mutoh

Kenji Narumi

Hiroyuki Ohata

Kenji Gotoh

Toshiya Akagi

Tatsuro Nakagami

Sota Kamo

Toyoaki Fukui

Yukihiro Yamasaki

Yoshiyuki Miyabata

Norio Endo

Mitsuaki Oshima

Shuichi Murakami

Shoei Kobayashi

Seiji Nishiwaki

Goro Katsuyama

Tamotsu Yamagami

Hideshi Ishihara

Sadao Mizuno

Koichi Hasegawa

Cornelis Marinus Schep

Shin Yamauchi

Hiroshi Yazawa

Tadao Iwaki

Takashi Yumiba

Tomio Yoshida

Toshiyuki Shimada

Shin-ichi Yamada

Jun Ishida

Kouichi Takamine

Paul Sagues

Isamu Takehara

Nobuyuki Kamihara

Masateru Kohno

Noboru Ito

Naomoto Ishikawa

Naoki Kawawada

Toshio Ohta

Bonnosuke Takamiya

Naoto Tsuruoka

Tadayoshi Katoh

Yoshio Nakano

Hirokazu Nakamura

Tetsuya Kato

Wataru Nishimura

Masanao Takahashi

Atsushi Minemura

Takashi Munakata

Mikio Muraoka

Masayoshi Tomizuka

Hermanus Johannes Borg

Yoshiyuki Iwamura

A method for forming a composite material including reinforcing fibers includes connecting end portions of the reinforcing fibers with equipotential materials to form an electroconductive loop including the reinforcing fibers in the composite material before reaction; and applying a magnetic field in a direction intersecting a plane formed by the electroconductive loop.

Composite material forming method

A bladder bag is a mold for molding inside of a composite material structure. The composite material structure includes a narrow portion formed by narrowing a part of the inside and a space portion formed so as to be adjacent to the narrow portion. The bladder bag includes a bladder bag main body and a cord-like member. The bladder bag main body includes a narrow molding portion for molding the narrow portion of the composite material structure, a space molding portion for molding the space portion of the composite material structure, and an air intake for introducing air. The cord-like member is provided inside the bladder bag main body, passes through the narrow molding portion from the air intake, and is connected to an inner surface of the space molding portion.

Bladder bag and molding method of composite material

An image forming apparatus includes an apparatus body, a wall face of the apparatus body having an ejection opening from which a sheet conveyed in a first direction is ejected, a sheet support to support the sheet discharged from the discharge opening in the first direction, and a mount to mount the sheet support to the apparatus body. The mount includes an abutting portion including an abutting face that contacts a wall face of the apparatus body, and a projection projecting in a second direction opposite to the first direction from the abutting face. The abutting face extends in a vertically downward direction from the projection, and the projection is fixed to the apparatus body in a vertical direction.

Image forming apparatus

A core () and a bag () are provided which are used to shape an FRP structure (). The bag () has a core bag section () which covers the outer circumference of the core (), and a coverture bag section () which covers a plurality of fiber components ().

FRP shaping jig and method of shaping FRP structure

An image processing apparatus includes circuitry that converts user voices that are input into a string of characters reflecting a statement made with the user voices, retrieves one or more items of information related to the string, stores the information being retrieved associated with identification information indicating a retrieval time when the information is retrieved, draws a graphical image including the information being stored on a projection target image to be projected by a projector, and controls the projector to project the projection target image including the graphical image, the graphical image having a size that is determined in accordance with the identification information associated with the information included in the graphical image being projected.

Image processing apparatus, image processing method, and recording medium

This structure is provided with a first composite material, a second composite materialjoined to the first composite materialby a film adhesiveprovided between the first composite materialand the second composite material, and a corner fillet partprovided on a corner partformed by the first composite materialand the second composite material. The shape of the corner fillet partis a design shape P designed in advance, and the corner fillet partis formed by curing the film adhesiveafter arranging the film adhesiveon the corner partso as to fit into the design shape P.

Composite structure and method for molding composite structure

Provided is a joint and an aircraft structure wherein it is possible to position a member relative to a preform with high accuracy. A groove into which a plate member () is inserted is formed in a pi-shaped joint () provided on the preform (), and the preform () and the plate member () are connected by being bonded. Moreover, a fitting shape (A-) into which the plate member () is fitted is formed on the pi-shaped joint () on the whole groove bottom face. Additionally, a fitting shape (A-) into which the plate member () is fitted is formed on a portion of the groove bottom face. Furthermore, fitting shapes (B-B-), into which the groove bottom face that is formed on the pi-shaped joint () is fitted, are formed on the surface of the plate material () that is fitted with the pi-shaped joint ().

Joint, and aircraft structure

A joint () joins a plate member () with a preform (), wherein an inclined part (), which is inclined relative to a surface that is orthogonal to the direction in which a tensile load is applied to the plate member (), is formed on a surface () that joins with the preform (). Moreover, an indented part () corresponding to the shape of the inclined part () is formed on the preform () so that the inclined part () of the joint () is embedded into the indented part (). The joint () is embedded in and bonded to the preform ().

Printer

An optical disc drive having an optical pickup head emitting a light beam to an optical storage medium, detecting the light beam reflected from the optical storage medium, and outputting a signal based on the received reflected light, having a jitter measuring unit measuring jitter in signals output from the optical pickup head and having an evaluation unit determining from the measured jitter if the optical storage medium is good or defective. The jitter measuring unit measures jitter in a train of 3T or longer marks or spaces from an optical storage medium to which digital information is recorded as a train of marks or spaces of length kT based on a period T and an integer k of two or more.

Optical disc drive, optical storage medium, optical storage medium inspection apparatus, and optical storage medium inspection method

A recording medium comprising a recording area, the recording area includes a first area and a second area, the first area includes a frame area, the frame area includes an area in which a second synchronization code sequence and at least a portion of data are to be recorded, and the second area includes an area of linking frames in which a third synchronization code sequence and a fourth synchronization code sequence are to be recorded.

Recording medium, recording method, reproduction method, recording apparatus and reproduction apparatus

An optical disk and a method for identifying the optical disk making it possible to identify a recording system of the optical disk easily in a short time by a recording and reproduction apparatus when a groove-recording system and a land-recording system are both employed in one kind of optical disk, such as, for example, a BD-R. Specifically, a polarity upon reproducing wobble information is made to be the same in both an optical disk of groove-recording system and the optical disk of a land-recording system. The recording system of the optical disk that shows the same wobble polarity irrespective of the recording system can be easily detected by finding a tracking polarity that can recognize the wobble information by changing the tracking polarity, whereby the start-up time of the recording and reproduction apparatus can be shortened.

Wobble information recording method, information recording medium, and recording and reproduction method and apparatus thereof

Copying machine

A recordable dual-layer optical disc which allows precise recording learning on both layers. A first information recording layer located further from the light incidence side includes a read-only control data area, a first test area, and a second test area. A second information layer located closer to the light incidence side includes a third test area located at a position opposite to the control data area, and a fourth test area located at a position opposite to the second test area.

Optical disc and optical disc apparatus

Growing community of inventors

Kyoto, Japan

Takashi Ishida