Jx Nippon Oil Energy Corporation

The University of Tokyo

Nippon Oil Corporation

Eneos Corporation

Yokohama National University

Jxtg Nippon Oil & Energy Corporation

De Nora Permelec Ltd

Nippon Sanso Kabushiki Kaisha

Tokico System Solutions, Ltd.

Shinji Oshima

Yoshihiro Kobori

Daisuke Watanabe

Yasushi Sato

Kota Miyoshi

Kojiro Nakagawa

Yuki Yamamoto

Yoshinori Nishiki

Masashi Takahashi

Tsuneo Suzuki

Masahiro Sakamoto

Hiroshi Nishihara

Akiyoshi Manabe

Shigenori Mitsushima

Akihiro Kato

Susumu Kitagawa

Shigeto Suzuki

Tadashi Seike

Tatsuya Rembutsu

Toshio Tezuka

Yasuhiko Satomi

Shunsuke Maekawa

Tadayoshi Iwasaki

Tetsu Yonezawa

Yasutomo Takakuwa

Ai Minoda

Yukio Kobayashi

Seiji Okino

Yasunobu Shimada

Shozo Tanaka

Yoshinori Yamanoi

Rudy Coquet

A gas filling device is provided with a first gas supply pipeline, a second gas supply pipeline, and an integrated control panel. The first gas supply pipeline supplies hydrogen gas from a multistage accumulator to a first filled tank mounted on a first vehicle. The second gas supply pipeline supplies hydrogen gas from the multistage accumulator to a second filled tank mounted on a second vehicle different from the first vehicle. At the time of filling the hydrogen gas into both of the first filled tank and the second filled tank from the multistage accumulator, the integrated control panel sets a pressure rise rate of the first filled tank or a pressure rise rate of the second filled tank to be lower than a reference pressure rise rate in accordance with a difference in pressure between the first filled tank and the second filled tank.

Gas filling device

A device for producing an organic hydrideof an aspect of the present invention has an electrochemical cell provided with an anodeon a surface of an electrolyte membraneand a cathode including a cathode catalyst layerand a cathode diffusion layeron another surface of the electrolyte membrane. A gap is provided between the anodeand the electrolyte membrane. The anodehas a network structure with an aperture ratio of 30 to 70%, and has an electrical supply supporting material formed of an electronic conductor and the electrode catalyst held by the electrical supply supporting material.

Device for manufacturing organic hydride

An electrochemical reduction device includes an electrode unit, a power control unit, a concentration measurement unit, and a control unit. The electrode unit includes an electrolyte membrane, a reduction electrode, and an oxygen evolving electrode. The control unit controls the power control unit such that a current value I flowing through the reduction electrode and the oxygen evolving electrode satisfies Equation, I&#x2264;Imax (C). In Equation, a maximum current value Imax (C) is defined according to a concentration C of an aromatic compound obtained by the concentration measurement unit such that Faraday efficiency is to be a predetermined value or more.

Electrochemical reduction device and method for manufacturing hydride of aromatic compound

The invention provides a hydrogen storage material comprising a porous carbon material having oxygen-containing functional groups on the surface, and Li bonded to the surface of the porous carbon material. The hydrogen storage material of the invention has more excellent hydrogen storage capacity than the prior art.

Hydrogen storage material

The porous coordination polymer of the invention contains metal complexes formed by coordination bonding between a trivalent metal ion and an aromatic tricarboxylic acid represented by formula (1). The porous coordination polymer also has a pore structure formed by integration of a plurality of the metal complexes. [In formula (1), n represents an integer of 0 to 4.]

Porous coordination polymer, process for producing same, gas storage method, and gas separation method

The hydrogen storage material of the invention is a hydrogen storage material comprising metal fine particles with hydrogen storage capacity, and an organic compound that has at least two specific groups that can bind with the metal fine particles, and that is bonded with the metal fine particles by the specific groups.

A process is provided for producing a porous substance, which is lightweight, and has a highly developed pore structure and an excellent gas absorbability, by dehydrogenating a compound having two or more amine-borane adduct structures per molecule.

Porous substance and process for producing the same

A breathing apparatus includes: a vessel member having a mouth piece and internal influx chamber; a tubular communication member having opposite ends connected respectively to the intake and outgo ports of the vessel member in such a manner that the vessel member and the communication member define a circular passage for a respirable gas; an oxygen-supplying mechanism for supplying the circular passage with the respirable gas; a pair of check valves, disposed respectively at the intake and outgo ports of the vessel member, for limiting the flow of the respirable gas in the circular passage to a single direction so that, when the person breathes into the influx chamber, the respirable gas in the influx chamber is introduced into the communication member through the outgo port and, when the person inhales through the mouth piece, the respirable gas in the communication member is recycled into the influx chamber through the intake port; and an outlet port for discharging excess respirable gas out of the circular passage. The communication member includes: an inflatable member for receiving the respirable gas upon the person's exhaling, and for releasing the respirable gas to the influx chamber upon the person's inhaling; and carbon dioxide-removing mechanism for removing carbon dioxide from the respirable gas passing through the communication member.

Breathing apparatus

Growing community of inventors

Tokyo, Japan

Shinji Oshima