Panasonic Intellectual Property Management Co., Ltd.

Sanyo Electric Co., Ltd.

Osaka Gas Company Limited

Hitachi Zosen Corporation

Panasonic Corporation

Kabushiki Kaisha Komatsu Seisakusho

Shionogi Company Limited

Cateye Co., Ltd.

Tottori Sanyo Electric Co., Ltd.

Gateway 2000, Inc.

Kabushiki Kaisha Konoike Gumi

Hiroshi Tanaka

Yoji Miyazaki

Kazumasa Iijima

Ryosuke Shimomura

Tsuyoshi Ikushima

Osamu Shibata

Masayuki Iida

Takuya Hayashi

Takeshi Nakayama

Shigeyuki Okada

Yusuke Suzuki

Hideki Yamauchi

Michael R Flannery

Hiroshi Suenaga

Kohei Masuda

Yuichi Abe

Kiyoshi Kodani

Kota Yokoyama

Toshiro Fujii

Masaki Kanemaru

Satoshi Sakuma

Masanori Miyatake

Ajay Gupta

Shozo Sugishita

Shinji Takuno

Tamotsu Kotani

Takashi Sugai

Eiko Kameoka

Hidenori Kadono

Hitoshi Kadota

Ryoji Kobayashi

Howard K Fullmer

Teruo Hoshi

Hiroaki Kawaguchi

Nobumichi Yamamura

Shinji Baba

Yukio Fujiwara

Isao Umezawa

Kazuhiro Nakashima

Tsutomu Taguchi

Tsutomu Kanamaru

Kouji Shiroyama

A connector includes a housing, an outer shield including a tubular portion, and a terminal surrounded by the tubular portion of the outer shield. The connector is connected to a mating connector by moving toward the mating connector in a predetermined direction relatively with respect to the mating connector. A first end of the tubular portion of the outer shield is located in the predetermined direction in the tubular portion. The tubular portion of the outer shield has an inner circumferential surface facing a hollow space, an outer circumferential surface opposite to the inner circumferential surface, and a distal end surface provided at the first end. At least one of the distal end surface, the outer circumferential surface, and the inner circumferential surface is seamless over an entire circumference of the tubular portion surrounding the hollow space along a circumferential direction of the tubular portion.

Electrical connector with protrusions on the outer peripheral wall of the shield and device using the same

In a connector, each of housings of a socket and a header serving as connector parts includes: a terminal holder extending in a first direction and includes a terminal section of the associated connector part; and a side wall connector extending in a second direction intersecting the first direction, and connected to one end of the terminal holder of the associated connector part in the first direction. The shield member includes a first portion on the side wall connector, and a second portion aligned with the terminal holder of the connector part in the second direction. The socket and the header are inserted into each other in a third direction intersecting the first and second directions. The second portion of at least one of the shield members includes a shield bent portion with a curved portion curving toward the other connector part to be inserted.

Connector and socket and header used for the connector

A connector includes plural terminals, a housing holding the terminals, and an inner shield. The connector is configured to be connected to a mating connector by moving toward the mating connector in a first direction relatively with respect to the mating connector. The terminals include two terminals arranged on both sides of the inner shield in a second direction perpendicular to the first direction. The inner shield includes a base extending in a third direction perpendicular to the first direction and the second direction, and an extension protruding from the base. The housing includes a shield holder holding the extension. This connector reduces noise propagation between the terminals.

Electrical connector with shielding between low and high frequency terminals and electrical connector device using the same

A connector includes an outer shield, a terminal surrounded by the outer shield, a housing fixed to the outer shield and holding the terminal; and an inner shield surrounded by the outer shield. The outer shield, the inner shield, and two virtual paths that connect the two tip regions of the inner shield to the outer shield by shortest distances, respectively, constitute plural electrically-closed loops surrounding the terminal. The electrically-closed loops include one or more particular electrically-closed loops. Each of the one or more particular electrically-closed loops does not surround any electrically-closed loop among the plurality of electrically-closed loops other than the each of the one or more particular electrically-closed loops. A longest loop length of the one or more loop lengths of the one or more particular electrically-closed loops is shorter than a wavelength of a maximum frequency of a transmission signal flowing through the terminal. This connector reduces resonance of a transmission signal.

Connector and connector device

A connector includes a housing, an outer shield fixed to the housing and including a tubular portion, and a terminal held by the housing and surrounded by the tubular portion of the outer shield. The tubular portion has a first end and a second end opposite to each other. The first end and the second end of the tubular portion open. The tubular portion surrounds a hollow space. The connector is configured to be connected to a mating connector by moving toward the mating connector in a predetermined direction relatively with respect to the mating connector. The first end of the tubular portion of the outer shield is located in the predetermined direction in the tubular portion. The tubular portion of the outer shield has an inner circumferential surface facing the hollow space, an outer circumferential surface opposite to the inner circumferential surface, and a distal end surface provided at the first end. At least one of the distal end surface, the outer circumferential surface, and the inner circumferential surface is seamless over an entire circumference of the tubular portion surrounding the hollow space along a circumferential direction of the tubular portion.

Electrical connector with socket and header having mating shielding parts

A pressure swing adsorption gas production device that enables performing a desorption process in adsorption towers is provided. The device includes an off gas discharge route connected to the adsorption towers, a membrane separation unit with a separation membrane allowing miscellaneous gas in the off gas discharge route to pass faster than purification target gas, an off gas tank, and a pressure boosting unit that raises the pressure of and supplies the off gas to the membrane separation unit. The off gas tank and the pressure boosting unit are upstream of the membrane separation unit. The device includes a recycle gas return route via which some recycle gas is returned to the source gas supply route. The operation control unit adjusts the off gas adjustment unit so the off gas discharge flow rate is a flow rate where the amount of off gas discharged from one adsorption tower during the desorption process is equivalent to the amount of off gas discharged from the off gas tank when the one adsorption tower starts the desorption process until another starts the desorption process.

Pressure swing adsorption type of gas production device

An exhaust gas purifying facility of a combustion engine includes: a marine combustion engine; a reducing device for feeding urea water into an exhaust gas in an exhaust gas line of the marine combustion engine; and a generation device for generating the urea water from urea powder. The generation device includes a storage-generation tank device and an adjustment tank device capable of adjusting the density of the urea water. The storage-generation tank device has a storage-generation tank for storing the urea powder and feeding water to the urea powder for dissolution. The adjustment tank device has an adjustment tank for storing the urea water withdrawn from the storage-generation tank.

Combustion engine exhaust gas purifying facility

Provided herein is a method for improving a gas recovery rate during generation of a high-purity gas. The method includes providing three or more adsorption towers filled with an adsorbent that adsorbs an adsorption target gas. Performing a pressure lowering equalization process in a first adsorption tower in which an adsorption process has been finished, and in a source gas supply state in which a source gas is supplied to at least a second adsorption tower in which a pressure increasing equalization process has been finished and the adsorption process is to be subsequently performed; and transferring a non-adsorbed gas from an upper portion of the first adsorption tower to the upper portion of the second adsorption tower, thereby performing an adsorption and pressure lowering equalization process in the first adsorption tower and an adsorption and pressure increasing equalization process in the second adsorption tower.

Gas concentration method

A cyclocomputer includes: a body; a display provided on an upper surface of the body and displaying prescribed information; a storage provided in the body and storing therein data including at least a portion of the prescribed information; and an NFC tag provided in the body and allowing data communication with an NFC reader writer incorporated in a mobile wireless communication terminal. The cyclocomputer can transmit via the NFC tag to the mobile wireless communication terminal at least a portion of the data stored in the storage, and the cyclocomputer can receive from the mobile wireless communication terminal via the NFC tag at least a portion of other data stored in the mobile wireless communication terminal or input to the mobile wireless communication terminal via an operation unit of the mobile wireless communication terminal.

Cyclocomputer

A video data transmitter apparatus generates and transmits a multi-value amplitude modulation signal by performing a multi-value amplitude modulation of a plurality of N bits per one symbol according to video data of a video signal or a color signal constituting the video signal, or a brightness signal and a color-difference signal. A data separator portion separates the video data into first to N-th pixel data, a difference calculator portion calculates (N&#x2212;1) pieces of predetermined difference information based on the separated first to N-th pixel data, and a multi-value amplitude modulator portion performs a multi-value modulation so that predetermined N-bit data corresponds to a multi-value signal level closest to an intermediate level having an intermediate value between a maximum level and a minimum level of the multi-value signal level of the multi-value amplitude modulation signal.

Video data transmitter apparatus and video data receiver apparatus for transmission system using multi-value amplitude modulation

Growing community of inventors

Osaka, Japan

Hiroshi Tanaka