Nagoya University

Kabushiki Kaisha Tokai Rika Denki Seisakusho

Mitsubishi Denki Kabushiki Kaisha

Osamu Takai

Nagahiro Saito

Junichi Nakaho

Masaharu Hattori

Atsushi Yamaguchi

Takahiro Ishizaki

Hiroyuki Sugimura

Akira Ito

Hiroyuki Honda

Yunying Wu

Atsushi Hozumi

Shiro Yamauchi

Minoru Kimura

Goro Yamauchi

Hirokazu Terauchi

Disclosed is a method for producing a biological organic material in a liquid droplet comprising a culture medium composed of specified ingredient. The method comprises the steps of: providing a substantially spherical liquid droplet on a substrate in an unadhered state, the substrate preferably having such a water-repellent surface that the water contact angle becomes 150&#xb0; or greater; and culturing a biological organic material in the liquid droplet.

Method for production of biological organic material and culture vessel

A base plate for use in cell culture which comprises a base material, a water-repellent layer having a water-repellent surface formed on the above base material and a hydrophilic surface having a prescribed pattern formed on the base material; a method for producing the above base plate; and a method for producing a cell culture product using the base plate. It is preferred that the water-repellent surface has a water contact angle of more than 150&#xb0;. The above method for producing a cell culture product using the base plate base plate is a novel method which allows the production of a cell culture product of a fine pattern.

Production of cell culture product and material for use in said production

An electrochromic mirror includes an electrochromic film, an electrically conductive reflective film formed at one thickness direction side of the electrochromic film, an electrically conductive film provided at one thickness direction side of the electrochromic film and at a side of the electrically conductive reflective film that is opposite from the electrochromic film, an electrolytic solution containing lithium ions and enclosed between the electrically conductive reflective film and the electrically conductive film, and a reduction reaction compensation unit. In the electrolytic solution, due to applying a voltage such that the electrically conductive film is made positive and electrically conductive reflective film is made negative, the lithium ions move toward the side of the electrochromic film and are provided to a reduction reaction of the electrochromic film. The reduction reaction compensation unit compensates the reduction reaction.

Electrochromic mirror

An electrochromic mirror includes an electrically conductive reflective film capable of reflecting light that is incident thereto and having electrical conductivity in which plural fine penetration holes are formed, an electrochromic film that is provided at a side of the electrically conductive reflective film at which the light is incident and reflected, an electrically conductive film that is provided at a side of the electrically conductive reflective film that is opposite from the electrochromic film, and an electrolytic solution that contains lithium ions and is enclosed between the electrically conductive film and the electrically conductive reflective film. The plural penetration holes formed in the electrically conductive reflective film penetrate in a thickness direction thereof, and a ratio between a distance between respective centers of the penetration holes and an inner peripheral diameter dimension of the penetration holes is 7 or more.

An electrochromic mirror includes a transparent electrode film, an electrochromic film formed at one thickness direction side of the transparent electrode film, a light reflective film that reflects light that has transmitted through the transparent electrode film and the electrochromic film, a lithium ion transmissive film provided between the electrochromic film and the light reflective film, an electrically conductive film provided at the one thickness direction side of the transparent electrode film and at a side of the light reflective film opposite from the lithium ion transmissive film, and an electrolytic solution that comprises lithium ions and is enclosed between the light reflective film and the electrically conductive film. The lithium ion transmissive film transmits lithium ions and imposed diffusion of silver from the side of the light reflective film to the side of the electrochromic film.

An organic monomolecular film is formed on a first substrate, and micro processed using photolithography technique to form an organic monomolecular film pattern. Then, a thin film is selectively grown on the organic monomolecular film pattern, and transcribed onto a second substrate to form a micro pattern made of the thin film on the second substrate.

Method for forming a micro pattern, micro pattern, method for fabricating a mold for forming the micro pattern through transcription, and mold for forming the micro pattern through transcription

Making a larger difference in water activity between electrodes elevates an output voltage of an electrochemical element. The electrochemical element includes a solid electrolyte membranemade of a solid electrolyte and possessing a hydrogen ion conductivity, a first electrodeformed on one side of the solid electrolyte membraneand functioning as a catalyst and possessing a hydrophilic property, and a second electrodeformed on the other side of the solid electrolyte membraneand functioning as a catalyst and possessing a water-repellent property.

Electrochemical element and electrochemical element apparatus

A process for producing the ceramic porous body comprising the steps of (1) forming micelles in liquid by mixing {circle around (1)} surfactant molecules, {circle around (2)} surfactant molecules and given organic molecules, or {circle around (3)} different kinds of surfactant molecules, (2) forming a precursor of a ceramic porous body having an organic-inorganic structure is formed through mixing a ceramic material or a precursor of the ceramic material into the liquid containing the micelles, the precursor of the ceramic porous body comprising a template having the micelles arranged in a hexagonal, cubic or lamella form and the ceramic material or the ceramic material precursor adsorbed around the micelles, (3) removing the surfactant molecules or the surfactant molecules and the given organic molecules in the precursor of the ceramic porous body by photo-oxidation through irradiating vacuum ultraviolet light upon the precursor to leave an inorganic skeleton alone, and (4) thereby forming the ceramic porous body having nanometer-scale pores at a low temperature.

Process for producing ceramic porous bodies having hollow structures at low temperatures

A surface of a given base material is hydrophilized by irradiating, for example, a vacuum ultraviolet light to itself. Then, on the surface is formed a monomolecular film made of a fluoroalkylsilane preferably having at least one of a long fluoroalkyl-chain and a long alkyl-chain which preferably have lengths of not less than 1 nm. Then, the base material and the monocular film are thermally treated and thereby a member having a high lubricative surface can be obtained which has strong couplings between the base material and the molecular film through a dehydrating condensation reaction.

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Nagoya, Japan

Osamu Takai