Abstract: Object: To provide an ion exchange membrane which can achieve both high proton transport ability and high ion permeation selectivity, a membrane-electrode assembly including said ion exchange membrane, and a redox flow battery including said membrane-electrode assembly. Resolution Means: One aspect of the present disclosure provides an ion exchange membrane for a redox flow battery including an ion-conductive polymer and a non-woven fabric, wherein the non-woven fabric is disposed in the ion-conductive polymer. Another aspect of the present disclosure provides a membrane-electrode assembly including a positive electrode, a negative electrode, and the ion exchange membrane for a redox flow battery of the present disclosure, wherein the ion exchange membrane for a redox flow battery is disposed between the positive electrode and the negative electrode. Another aspect of the present disclosure provides a redox flow battery including a membrane-electrode assembly of the present disclosure.

Abstract: The present application relates to a pavement marker including a core from which extends protrusions and a cavity between adjacent protrusions. The microsphere lenses are fixed within the cavity by one of a softening material disposed in the core and an adhesive agent disposed in the cavity.

Abstract: The present application relates to a pavement marker including a core from which extends protrusions and a cavity between adjacent protrusions. The microsphere lenses are fixed within the cavity by one of a softening material disposed in the core and an adhesive agent disposed in the cavity.

Abstract: The present disclosure provides a thermoelectric material which can be formed into a flexible and thin type material. The thermoelectric material is a composite that includes a binder resin, thermoelectric material particles dispersed in the binder resin, and fine metal particles supported on a surface of the thermoelectric material particles.

Abstract: An electrically conductive composite material that includes an electrically conductive polymer, and at least one metal nanoparticle coated with a protective agent, wherein said protective agent includes a compound having a first part that has at least part of the molecular backbone of said electrically conductive polymer and a second part that interacts with said at least one metal nanoparticle.

Abstract: An electrically conductive composite material that includes an electrically conductive polymer, and at least one metal nanoparticle coated with a protective agent, wherein said protective agent includes a compound having a first part that has at least part of the molecular backbone of said electrically conductive polymer and a second part that interacts with said at least one metal nanoparticle.

Abstract: An electrically conductive composite material that includes an electrically conductive polymer, and at least one metal nanoparticle coated with a protective agent, wherein said protective agent includes a compound having a first part that has at least part of the molecular backbone of said electrically conductive polymer and a second part that interacts with said at least one metal nanoparticle.

Abstract: A thermoelectric conversion device including a thermoelectric conversion material including a polythienylenevinylene including units represented by formula (1), wherein R1 and R2 are each independently a hydrogen atom, or an alkoxy or alkyl group, and the thermoelectric conversion material is doped with a dopant.

Abstract: The present disclosure provides a thermoelectric material which can be formed into a flexible and thin type material. The thermoelectric material is a composite that includes a binder resin, thermoelectric material particles dispersed in the binder resin, and fine metal particles supported on a surface of the thermoelectric material particles.

Abstract: An electrically conductive composite material that includes an electrically conductive polymer, and at least one metal nanoparticle coated with a protective agent, wherein said protective agent includes a compound having a first part that has at least part of the molecular backbone of said electrically conductive polymer and a second part that interacts with said at least one metal nanoparticle.

Abstract: A thermoelectric conversion device including a thermoelectric conversion material including a polythienylenevinylene including units represented by formula (1), wherein R1 and R2 are each independently a hydrogen atom, or an alkoxy or alkyl group, and the thermoelectric conversion material is doped with a dopant.

Abstract: A sheet-forming composition is provided which has a construction comprising a combination of a heat-polymerizable binder component containing at least one (meth)acrylic monomer or its partial polymer, a heat conductive filler, a heat polymerization initiator for the binder component and a foaming agent. A process for making a heat conductive foam sheet also is provided.

Abstract: Provided is a thermally conductive composition which shows a low thermal resistance, and good releasability after service. For example, one composition includes an acrylic-based thermally conductive composition comprising a binder component containing a crystalline acrylic polymer with an alkyl group of 18 carbons or more and a thermally conductive filler.

Abstract: Disclosed is a method for making flexible circuits in which portions of a tie layer are removed by etching the underlying polymer. Also disclosed are flexible circuits made by this method.

Abstract: There is provided a thermally conductive composition including: a thermally conductive filler, and a binder component. The thermally conductive filler includes: a particulate central portion comprising metal aluminum, and an electrically-insulated oxide layer having an average thickness of 500 nm or more formed on a surface of said central portion. The thermally conductive composition is capable of giving a thermally conductive sheet which has high thermal conductivity, which may not cause a problem such as a short circuit even if it is disposed in an integrated circuit (IC), or the like, and which has superior reliability.

Abstract: A thermally conductive sheet made of a composition comprising (A) a (meth)acrylic polymer, (B) a halogen-free flame retardant selected from the group consisting of an organophosphorus compound, a triazine skeleton-containing compound, an expanded graphite and polyphenylene ether, and (C) a hydrated metal compound, wherein the composition including the hydrated metal compound in an amount of 40-90 vol % of the total volume of the composition.

Abstract: A sheet-forming composition is provided which has a construction comprising a combination of a heat-polymerizable binder component containing at least one (meth)acrylic monomer or its partial polymer, a heat conductive filler, a heat polymerization initiator for the binder component and a foaming agent. A process for making a heat conductive foam sheet also is provided.

Abstract: Provided is a thermally conductive composition which shows a low thermal resistance, and good releasability after service. For example, one composition includes an acrylic-based thermally conductive composition comprising a binder component containing a crystalline acrylic polymer with an alkyl group of 18 carbons or more and a thermally conductive filler.

Abstract: Disclosed is a method for making flexible circuits in which portions of a tie layer are removed by etching the underlying polymer. Also disclosed are flexible circuits made by this method.

Abstract: A sealing method comprising affixing an adhesive tape (e.g., a pressure-sensitive adhesive tape) to an adherend to be sealed, placing a sealing article that contains a hot-melt/fluidizable thermosetting sealing material on the adhesive tape, and heating the sealing article to a temperature sufficient to allow the article hot-melt/fluidize and thermoset. The adhesive tape has a substrate that suppresses penetration of air trapped in the affixing step between the adherend and adhesive tape into the sealing article.