Toyoda Gosei Co., Ltd.

Yamagata University

National University Corporation Yamagata Univ.

National University Corporation Yamagata University

Seitaro Taki

Hiroyuki Nakagawa

Hisashi Mizuno

Yasuhiko Shinoda

Masaru Tanaka

Atsuki Yoshimura

Shinji Oguchi

Masateru Yamazaki

Toshiyuki Hagiyama

Yasuhiko Ogisu

Chikako Sato

Ayano Sasaki

Rie Kimura

Tsuyoshi Ohta

Toshifumi Takahashi

A cell culture device includes a holding member including a main body cylindrical portion extending in a cylindrical shape in an axial direction and a holding portion provided at an axially intermediate portion of the main body cylindrical portion and holding a culture membrane; and a first cylindrical member detachably mounted on one axial side with respect to the holding member, extending in a cylindrical shape in the axial direction, and protruding from one axial end of the holding member toward the one axial side when being mounted to the holding member. Also included is a second cylindrical member detachably mounted on another axial side with respect to the holding member, extending in a cylindrical shape in the axial direction, and protruding from another axial end of the holding member toward the other axial side when being mounted to the holding member.

Cell culture device

Cell culture device and method of using the same

Provided is a test method performed using a lens which comes into contact with a human body during use, the test method including the steps of: providing a membrane member including a membrane swellable upon absorbing water and a supporting base having an annular shape to support an outer periphery of the membrane; allowing cells to adhere on the membrane of the membrane member; and bringing the membrane to which the cells are adhered into close contact with the surface of the lens, by immersing the membrane member and the lens into a liquid and deforming the membrane in a swollen state along the surface of the lens.

Test method performed using lens

A cell culture device comprises a first inner cylinder formed in a tubular shape, a cell culture membrane placed to cover over an entire one end of the first inner cylinder and configured to be folded down toward an outer surface of the first inner cylinder along an outer circumference at the one end of the first inner cylinder, and an outer cylinder formed in a tubular shape, configured to place the first inner cylinder inside thereof such that a height direction of the outer cylinder is identical with a height direction of the first inner cylinder, and provided with a first slit in an area overlapping with at least the one end of the first inner cylinder to be extended in the height direction, wherein the cell culture membrane is held between an inner wall surface of the outer cylinder and the outer surface of the first inner cylinder.

A cell culture device comprises a cell culture membrane and a substrate fixed to the cell culture membrane. The cell culture membrane is made from a thermosetting resin and has a plurality of pores that are open to at least one surface including a surface on a side that is in contact with the substrate. The substrate is made from a thermoplastic resin. In a contact region between the cell culture membrane and the substrate, part of the substrate is extended to form bulges in the pores of the cell culture membrane that are open in the contact region. This configuration suppresses reduction of the strength of the cell culture membrane and reduction of the flatness of the cell culture membrane (membrane accuracy) in the cell culture device in which the cell culture membrane and the substrate are fixed to each other.

Cell culture device and method of manufacturing the same

A polyurethane porous membrane is produced by a simple method to be used for at least one of applications of cell culture and cancer cell growth inhibition. The production method of the polyurethane porous membrane to be used for at least one of the applications of cell culture and cancer cell growth inhibition comprises: a first step of forming a layer of a polyurethane material which is uncured, on a substrate; and a second step of supplying water vapor to an exposed surface of the layer of the polyurethane material formed on the substrate, which is away from the substrate, so as to cure the polyurethane material and provide the layer of the polyurethane material with a porous structure having a plurality of irregularities on the exposed surface.

Production method of polyurethane porous membrane to be used for at least one of applications of cell culture and cancer cell growth inhibition

It is to provide a method for manufacturing a hydrocarbon, with which a hydrocarbon is produced at a high yield even under the condition of an ordinary temperature and an ordinary pressure. A method for manufacturing a hydrocarbon, in which carbon dioxide is reduced to produce the hydrocarbon, the method includes a step of producing the hydrocarbon by bringing magnesium or a magnesium compound such as magnesium oxide into contact with water and the carbon dioxide and reducing the carbon dioxide. Examples of the magnesium compound include magnesium oxide, magnesium hydroxide, magnesium carbonate, and basic magnesium carbonate.

Method for manufacturing hydrocarbon

The present invention provides a method for manufacturing a hydrocarbon, the method including bringing metal Mg into contact with water and carbon dioxide and reducing the carbon dioxide. In the method, one or more elements selected from the group consisting of Group 8 elements, Group 9 elements, B, C, S, Ca, V, Mn, Ni, Ge, Zr, Nb, Pd, Ag, Sn, Pt, Au, and Ce are used as combination element(s), and the contact is effected under presence of one or more of simple substance(s) of the combination element(s), water-soluble compound(s) of the combination element(s), and ion(s) of the combination element(s).

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Kiyosu, Japan

Seitaro Taki