Canon Kabushiki Kaisha

Nippon Steel Corporation

Kabushiki Kaisha Toshiba

Fuji Xerox Co., Ltd.

Nippon Steel Sumitomo Metal Corporation

Aqua Power System, Japan

Fuji Jukogyo Kabushiki Kaisha

Bayer Intellectual Property Gmbh

Nec Corporation

Mitsubishi Heavy Industries Limited

Tadashi Ishikawa

Yoshitaka Watanabe

Ryuichi Honma

Koji Suzuki

Kazuyoshi Takahashi

Kunio Yoshihara

Yoshiaki Hasebe

Akihiko Kojima

Takashi Endo

Yoshiyuki Mizoguchi

Toshiharu Mamiya

Kiyotaka Nakashima

Toshiro Matsui

Katsuhiko Shibuya

Takashi Nakajima

Takashi Sakayama

Eiichi Shimojo

Tetsuya Murata

Manabu Hoshino

Teruyuki Ichihara

Shinichiro Suzuki

Daiei Yamazaki

Ryuji Uemori

Jyoji Nagahira

Kazutoshi Ichikawa

Tetsuro Nose

Mamoru Hatazawa

Atsushi Asayama

Joji Nagahira

Yoichiro Takeuchi

Ikuo Uchihori

Peter Bruechner

Michiaki Yoshihara

Tomonori Tominaga

Nobukiyo Sakai

Takehiro Inoue

Hiroshi Shimanuki

Tadashi Koseki

Reiner Fischer

Jiro Moriyama

Takashi Saito

Arnd Voerste

Takayuki Yagi

Ulrich Görgens

Takao Kinoshita

Masanori Yamada

Tatsuo Takeuchi

Takeshi Honjo

Kazuyoshi Hagiwara

Yasutomo Suzuki

Tsuyoshi Watanabe

Akihiko Tojo

Masataka Naito

Tomoya Ichikawa

Johannes-Rudolf Jansen

Masanori Minagawa

Hiroshi Satomura

Jun Ohtani

Hidekazu Watanabe

Yutaka Kikuchi

Hajime Motoyama

Simon Maechling

Koichi Araki

Toshiyuki Sekiya

Takeo Yamamoto

Jun Mihara

Akimitsu Hoshi

Michael Maue

Mihoko Tanaka

Kazuhiro Matsuo

Fumihiro Arahira

Isamu Sato

Takao Honda

Norio Sasaki

Kei Domon

Masanori Muramatsu

Toyokazu Mizogui

Tobias Kapferer

Hiroshi Sano

Makoto Yanagida

Kazutoshi Eguchi

Ryuji Sakai

Kazumi Matsuoka

Hidetoshi Kishikawa

Tadashi Kasuya

Ichirou Akimoto

Yuuji Hashiba

Youichi Tanaka

Daisuke Yokoi

Yuzuru Yoshida

Akira Itoh

Toshiei Hasegawa

Koji Homma

Yuji Nomiyama

Takuya Itou

Naoyuki Kamatani

George Nagahira

Toshiro Matui

Yakichi Higo

An object of the present disclosure is to provide a control apparatus that controls a plurality of communication systems so that the plurality of communication systems can perform analysis with high accuracy. The control apparatus () according to the present disclosure includes a communication unit () and a determination unit (). The communication unit () receives, from an analysis apparatus () configured to perform machine learning using communication logs collected from a communication apparatus in order to generate a learning model, statistical information about each of the communication logs and information about the learning model. The determination unit () determines an analysis apparatus () to which the information about the learning model is applied based on the statistical information.

Control apparatus, analysis apparatus, communication system, data processing method, data transmission method, and non-transitory computer readable medium

A steel for electron-beam welding according to the present invention includes at least C: 0.02% to 0.10%, Si: 0.03% to 0.30%, Mn: 1.5% to 2.5%, Ti: 0.005% to 0.015%, N: 0.0020% to 0.0060%, and O: 0.0010% to 0.0035%, further includes S: limited to 0.010% or less, P: limited to 0.015% or less, and Al: limited to 0.004% or less, with a balance including iron and inevitable impurities. An index value CeEBB obtained by substituting composition of the steel into following Formula 1 falls in the range of 0.42 to 0.65%, the number of oxide having an equivalent circle diameter of 1.0 &#x3bc;m or more is 20 pieces/mmor less at a thickness center portion in cross section along the thickness direction of the steel, and the number of oxide containing Ti of 10% or more and having an equivalent circle diameter of not less than 0.05 &#x3bc;m or more and less than 0.5 &#x3bc;m falls in the range of 1&#xd7;10to 1&#xd7;10pieces/mmat the thickness center portion.CeEBB=C+&#xbc;Mn+ 1/15Cu+ 1/15Ni+&#x2155;Cr+&#x2155;Mo+&#x2155;V&#x2003;&#x2003;(Formula 1)

Electron-beam welded joint, steel for electron-beam welding, and method of manufacturing the same

Provided is a magnesium-air fuel cell in which a conductive state is achieved when a lid is fastened, and a nonconductive state is achieved when the lid is loosened, so that the power supply can be turned ON and OFF based on a fastening state of the lid. A lid includes a lower end portion that comes into contact with a main body at a time of fastening, an anode body inserted in the main body, and an electrode plate made of metal coupled to an end of the anode body. The electrode plate includes a first terminal at least positioned at the lower end portion. The main body includes a second terminal positioned on a surface that comes into contact with the lower end portion of the lid at the time of fastening the lid. Electrical conduction is achieved when the first terminal and the second terminal come into contact with each other.

Magnesium-air fuel cell

A magnesium-air fuel cell includes, in an inner portion, a pair of cathode accommodating portions each having at least one end opened. Cathode bodies are each disposed in a corresponding cathode accommodating portion, while having a part exposed to the inner portion. The part of each cathode body is separated from and faces an anode body. A power supply device using the fuel cell includes a supporting portion including a water supply port for the reaction liquid, a base portion incorporating the fuel cell, and a main body including a water supply pipe from the water supply port to the base portion. The water supply pipe is in communication with a water injection port in the fuel cell, and the water supply pipe incorporates a discharge pipe that extends from the supporting portion into the inner portion of the fuel cell and discharges reaction gas produced in the inner portion.

Magnesium-air fuel cell and power supply device using the same

Provided is a highly water repellent, air permeable, and liquid leakage resistant magnesium-air fuel cell that can quickly achieve a discharge reaction peak and can discharge a predetermined amount of current for a relatively long period of time. In a magnesium-air fuel cell, a cathode body includes: a first layer including a porous body formed by mixing a conductive carbon material and fluororesin; and a second layer including a porous body formed by mixing activated carbon and fluororesin, the second layer being joined to one surface of the first layer to be in contact with reaction liquid in the outer frame.

Arylpyrrolidines of Formula (I): wherein each substituent is as defined in the specification, and use thereof as pesticides and animal parasite-controlling agents. 

Pesticidal arylpyrrolidines

A welding joint comprises a pair of steel materials, and a welding metal that is formed with a high-energy density beam at a butt welding portion between the pair of steel materials, wherein a transformation starting temperature Ms that is calculated by a following formula: Ms(&#xb0; C.)=371&#x2212;353C&#x2212;22Si&#x2212;24.3Mn&#x2212;7.7Cu&#x2212;17.3Ni&#x2212;17.7Cr&#x2212;25.8Mo, using a composition of mass % of the welding metal is 250&#xb0; C. or less.

Butt welding joint using high-energy density beam

To provide pesticidal allylAryl heterocycle derivatives that are useful as a pesticidal compound. Pesticidal allylAryl heterocycle derivatives that are expressed by the Formula (I), and pesticides and an agent for controlling animal parasites which include the allylAryl heterocycle derivatives as an effective component.

Pesticidal diaryl&#x2014;heterocyclyl derivatives

A butt-welded joint of a welded structure which includes a pair of target metals; a weld bead formed by irradiating a high-energy density beam to a butt portion between the pair of the target metals and has a width W on the irradiated side surface; and a pair of altered zones consisting of heat-affected zones formed by irradiating another high-energy density beam to both sides of the center of the weld bead in the weld bead width direction such that the pair of the altered zones are located on respective sides of the center of the weld bead and each has a band shape extending in the weld bead length direction and a method for manufacturing the butt-welded joint of the welded structure.

Butt-welded joint of welded structure, and method for manufacturing the same

A liquid leakage detection system requiring no power supply from an outer source and configured to be relatively simple and moderate in price. A liquid leakage detection system () including an infusion tube (), a syringe needle () coupled to the infusion tube (), an absorbent element () adapted to be placed in the vicinity of a point () of the syringe needle () to be pricked through a patient skin and a sensor unit () located on an upper side or within the absorbent element ().

Liquid leakage detection system

A butt-welded joint includes a pair of steel plates, a first weld metal that is formed at a butting portion of the pair of steel plates from a side of a first surface of the butt-welded joint to a side of a second surface opposite the first surface by irradiation of a first high-energy density beam from the side of the first surface, and a second weld metal that is formed by irradiation of a second high-energy density beam to cover an end surface of the first weld metal at the side of the first surface side of the first weld metal. A width Wof the first weld metal on the first surface and a width Wof the second weld metal on the first surface satisfy an equation 1.2&#x2266;W/W&#x2266;3.5, and a depth of the second weld metal from the first surface is 2.0 mm to 10.0 mm.

Butt-welded joint and method for manufacturing same

An electron-beam welded joint including, by mass %, C: 0.02% to 0.1%, Si: 0.03% to 0.30%, Mn: 1.5% to 2.5%, Ti: 0.005 to 0.015%, N: 0.0020 to 0.0060%, O: 0.0010% to 0.0035%, Nb: 0% to 0.020%, V: 0% to 0.030%, Cr: 0% to 0.50%, Mo: 0% to 0.50%, Cu: 0% to 0.25%, Ni: 0% to 0.50%, B: 0% to 0.0030%, S: limited to 0.010% or less, P: limited to 0.015% or less, Al: limited to 0.004% or less, and a balance consisting of iron and unavoidable impurities, wherein an index value CeEB is 0.49% to 0.60%, a number of oxides having an equivalent circle diameter of 1.0 &#x3bc;m or more is 20 pieces/mmor less, and a number of oxides having an equivalent circle diameter of 0.05 &#x3bc;m or more and less than 0.5 &#x3bc;m is 1&#xd7;10pieces/mmto 1&#xd7;10pieces/mmat a thickness center portion.

Electron-beam welded joint, steel for electron-beam welding, and manufacturing method

A powder transporting device includes: a dropping path through which developer drops; a loosening member that is arranged in the dropping path, and loosens the developer applied on an inner wall of the dropping path; a supporting portion that is provided on the inner wall of the developing path, and supports the loosening member; a rotary member that includes: a rotary center; and a reciprocation applying portion that is located at a position eccentric from the rotary center, the rotary member being arranged within the dropping path and rotationally driven; and a reciprocation applied portion that is provided on the loosening member, and is brought into contact with the reciprocation applying member, wherein the loosening member is moved along the inner wall of the dropping path by contact between the reciprocation applying member and the reciprocation applied portion while the rotary member rotates.

Powder transporting device and image forming apparatus

To form a welded joint having a sufficiently high fracture toughness value &#x3b4;c by butting welding high strength steel plates having a yield strength of the 355 MPa class or more and a plate thickness of over 50 mm by electron beam welding, the butt welded joint is made one where the hardness of the weld metal is 110% to 220% of the hardness of the base material and where the width of the weld metal is 20% A or less of the base material plate thickness.

Electron beam welded joint excellent in brittle fracture resistance

A developer collection device includes: a collection unit including: a collection container that contains a developer to be collected; an upstream connection part that is formed with an inlet port through which the developer flows in; and a collection conveying part that conveys the developer flown in through the inlet port toward the collection container; and a connection unit including: an upstream connection port that is connected to an upstream conveying path; a connection conveying part that conveys the developer flown in through the upstream connection port in a developer conveying direction; and a connection outlet port that is formed at a downstream end in the developer conveying direction, wherein the connection unit is configured to be movable between an extracted position and a retracted position.

Developer collection device and image forming apparatus

Growing community of inventors

Tokyo, Japan

Tadashi Ishikawa