Daikin Industries, Ltd.

National Institute of Advanced Industrial Science and Technology

Funai Electric Company Ltd.

Funai Electric Advanced Applied Technology Research Institute Inc.

Other

Yazaki Corporation

Daikin Kogyo Kabushiki Kaisha

Dow Corning Corporation

Daikin Kogyo Co., Ltd.

Baikin Industries, Ltd.

Tetsuo Shimizu

Takayuki Araki

Masahiro Kumegawa

Yoshito Tanaka

Yoshihisa Yamamoto

Nobuhiko Tsuda

Takahisa Aoyama

Takafumi Yamato

Seitaro Yamaguchi

Noritoshi Oka

Michio Asano

Kazutaka Hosokawa

Masami Kato

Taketo Kato

Yoshinori Nanba

Shoji Kawachi

Shigeo Furuta

Tsuyoshi Takahashi

Yasuhisa Naitoh

Masatoshi Ono

Yasuhiko Sawada

Masaji Komori

Tsuyoshi Miyamori

Hisato Sanemasa

Masayo Horikawa

Noriyasu Yamane

Takayuki Nakamura

Yuichiro Masuda

Takeshi Inaba

Takuya Arase

Makoto Ono

Hirokazu Yukawa

Shigehito Sagisaka

Norihito Otsuki

Masuo Kokumai

Shingo Tanigawa

Mitsuru Kishine

Shigeru Morita

Yutaka Hayashi

Yoshihiro Yamamoto

Kazuo Ishiwari

Yoshihide Higashihata

Hiroshi Suga

Takahiro Kitahara

Tomohiro Iimura

Peter Cheshire Hupfield

Toshimi Fukuoka

Katsuhiko Imoto

Masamichi Sukegawa

Hiroyuki Yoshimoto

Takahiro Taira

Shunji Kasai

Chie Sawauchi

Hirotoshi Sakashita

Ken Okanishi

Shun Koizumi

Toshio Mizuno

Taizo Ono

Tatsuo Suzuki

Hidekazu Abe

Shinichi Yano

Katsuhide Otani

Masayuki Hayashi

Yoshio Negishi

Masafumi Akamatsu

Kazuhide Sawada

Tetsuo Kitahaba

Shigeru Ichiba

Touru Sumiya

Hirokazu Aoyama

Nobuyuki Tomihashi

Meiten Koh

Masayuki Tsuji

Fumihiko Yamaguchi

Masayoshi Tatemoto

Masayasu Tomoda

Tatsuya Morikawa

Tadashi Ino

Masahiko Oka

Tatsuya Higuchi

Toshiyuki Fukushima

Hitoshi Imamura

Kenji Ichikawa

Eiji Hayashi

Tomohiro Isogai

Takeshi Shimono

Takuji Ishikawa

Norimasa Honda

Kiyohiko Ihara

Hiroki Kawai

Hirofumi Nishibayashi

Yoshihiro Soda

Haruhiko Fukaya

Hiromichi Momose

Eiji Kitaura

Mihoko Ohashi

Hidenori Ozaki

Toshirou Miura

Yuji Yutani

Katsuhide Ohtani

A connector pair includes a first connector, and a second connector electrically connected to the first connector. The first connector includes a first electrical contact part provided with a graphene film on a metal base material. The second connector includes a second electrical contact part electrically connected to the first connector via the graphene film. A contact area between the first electrical contact part and the second electrical contact part is smaller than an area of the graphene film coating the metal base material.

Connector and connector pair

An electrical connection component includes a connecting part that is electrically conductive, and an electrical contact on at least a part of a surface of the connecting part, the electrical contact including a graphene oxide film. The graphene oxide film is graphene oxide or a stack of graphene oxide, and a thickness of the graphene oxide film is 1 nm or more and 50 nm or less. The electrical connection component may be either a male terminal or a female terminal.

Electrical connection component and method of manufacturing the same

The present invention aims to provide a fluororesin composition for a molded product that is excellent in tensile strength and flex resistance. The present invention relates to a fluororesin composition that contains a fluororesin and a fluorinated nanodiamond. The amount of the fluorinated nanodiamond is 0.001 to 5% by mass based on the fluororesin.

Fluororesin composition containing fluorinated nano-diamond

A storage element includes a first electrode and a second electrode separated by a gap and a dielectric layer provided between the first electrode and the second electrode to fill the gap. A separation distance of the gap changes in response to application of a voltage to a space between the first electrode and the second electrode, such that a switching phenomenon is produced which switches a resistance state between the first electrode and the second electrode between a high resistance state in which it is difficult for tunnel current to flow and a low resistance state in which it is easy for tunnel current to flow.

Storage element

In a drive method for a memory element that includes an insulating substrate, a first electrode and a second electrode provided on the insulating substrate, and an inter-electrode gap portion provided between the first electrode and the second electrode and having a gap of the order of nanometers where a phenomenon of a change in resistance value between the first and second electrodes occurs, and that can perform a transition from a predetermined low-resistance state to a predetermined high-resistance state and a transition from the high-resistance state to the low-resistance state, a current pulse is applied to the memory element by a constant current circuit upon the transition from the high-resistance state to the low-resistance state.

Drive method for memory element and storage device using memory element

A memory element includes an insulating substrate; a first electrode and a second electrode on the insulating substrate; and an inter-electrode gap portion that causes a change in resistance value between the first and second electrodes. Applied to the memory element from a pulse generating source is a first voltage pulse for shifting from a predetermined low-resistance state to a predetermined high-resistance state, and a second voltage pulse for shifting from the high-resistance state to the low-resistance state through a series-connected resistor, by which current flowing to the memory element after the change to a low resistance value is reduced. When shifting from the high to the low-resistance state, a voltage pulse is applied such that an electrical resistance between the pulse generating source and the memory element becomes higher than the electrical resistance shifting from the low to the high-resistance state.

Drive method for memory element, and storage device using memory element

There is provided a curable fluorine-containing polymer composition which is quickly cured at relatively low temperatures by hydrosilylation reaction and provides a coating film which has high hardness, excellent solvent resistance and flexibility. The curable fluorine-containing polymer composition comprises a fluorine-containing polymer comprising a fluorinated ethylenic monomer unit and a non-fluorinated ethylenic monomer unit, in which a part or the whole of the non-fluorinated ethylenic monomer units is a unit represented by the formula: wherein Ris hydrogen or methyl; Ris a hydrocarbon group having ethylenic C&#x2550;C; X is &#x2014;C(O)NH&#x2014; or &#x2014;C(O)&#x2014;; Ris &#x2014;O&#x2014;, &#x2014;O[CH(R)]O&#x2014;, &#x2014;(CH)O&#x2014;, &#x2014;OC(O)&#x2014;(CH)O&#x2014; or &#x2014;(CH)OC(O)&#x2014;(CH)O&#x2014;, where Ris &#x2014;H, &#x2014;OH, &#x2014;CHOH or &#x2014;O&#x2014;X&#x2014;R, a siloxane compound having hydrogen atom bonded to silicon atom, and a catalyst for hydrosilylation reaction.

Curable fluorine-containing polymer composition

The present invention provides a tetrafluoroethylene polymer aqueous dispersion obtained by carrying out a TFE polymerization in an aqueous medium in the presence of a fluorovinyl group-containing emulsifier, wherein the TFE polymer aqueous dispersion contains a particle comprising a TFE polymer dispersed in the aqueous medium, the fluorovinyl group-containing emulsifier comprises a fluorovinyl group-containing compound, and the TFE polymer aqueous dispersion has a fluorine-containing surfactant content of not higher than 1000 ppm by mass.

Aqueous tetrafluoroethylene polymer dispersion, process for producing the same, tetrafluoroethylene polymer powder, and molded tetrafluoroethylene polymer

A material for solid polyelectrolytes which comprises a polymer comprising two or more fluoropolymer segments differing in monomer composition, wherein at least one of the fluoropolymer segments has sulfonic acid type functional groups.

Material for solid polyelectrolyte suitable for use in fuel cell

There is provided a switching element which facilitates integration with higher density and lamination in a device, the switching element including: an insulating substrate; a first electrode provided on the insulating substrate; a second electrode provided above the first electrode; and a between-electrode gap section provided between the first electrode and the second electrode and including a nanometer-scale gap for causing a switching phenomenon of a resistor by applying a prescribed voltage between the first electrode and the second electrode.

Switching element

The present invention is contemplated for providing a resistance switching device having a very small device size of approximately 20 nm&#xd7;20 nm in its entirety, by taking advantage of a small diameter of a multilayered carbon nanotube or a multilayered carbon nanofiber per se, via a simpler manner that does not require any molecule inclusion step, with an excellent electric conductivity. Provided is a two-terminal resistance switching device, which has multilayered carbon nanofibers or multilayered carbon nanotubes disposed with a nano-scale gap width therebetween.

Two-terminal resistance switching device and semiconductor device

A switching element comprising: an insulative substrate; a first electrode and a second electrode provided on one surface of the insulative substrate; and an interelectrode gap which is provided between the first electrode and the second electrode, and which has a gap on the order of nanometers in which switching phenomenon of resistance occurs by applying predetermined voltage between the first electrode and the second electrode, wherein the one surface of the insulative substrate contains nitrogen.

A switching elementincludes an insulating substrate, a first electrodeprovided on the insulating substrate, a second electrodeprovided on the insulating substrate, and an interelectrode gapprovided between the first electrodeand the second electrode, a distance G between the first electrodeand the second electrodebeing 0 nm&#x3c;G&#x2266;50 nm.

Switching element relying on nanogap electrodes

The present invention provides a method of producing a fluoropolymer, wherein polymerization using a carboxylate ester bond-containing carboxylic acid derivative as a surfactant in an aqueous medium to give the fluoropolymer is conducted, the above carboxylate ester bond-containing carboxylic acid derivative has a carboxylate ester bond and &#x2014;COOM (M representing H, NH, Li, Na or K), the above carboxylate ester bond may optionally be substituted by fluorine atom.

Method for producing fluorine-containing polymer, aqueous dispersion of fluorine-containing polymer, 2-acyloxycarboxylic acid derivative, and surface active agent

A curable polymer composition that is quickly curable to form a cured article having excellent adhesion and followability to a substrate and at least including (A) an acrylic copolymer having a hydrogen atom bonded to a silicon atom, (B) a compound having at least two aliphatic unsaturated bonds in one molecule thereof, (C) a fluoroolefin copolymer including vinylidene fluoride as main component, and (D) a catalyst for hydrosilylation reaction.

Curable polymer composition

Growing community of inventors

Settsu, Japan

Tetsuo Shimizu