Abstract:
Provided is a carbon-dioxide capture and treatment system comprising: a carbon dioxide-enriched mixture gas generation device comprising a separation membrane capable of increasing a carbon dioxide concentration of a mixture gas taken therein, thereby generating a carbon dioxide-enriched mixture gas; a carbon dioxide conversion device configured to convert carbon dioxide in the enriched mixture gas received from the carbon dioxide-enriched mixture gas generation device, into a chemically stable compound; a final treatment device comprising an adsorbent, wherein the final treatment device is configured to adsorb the carbon dioxide by the adsorbent, thereby separating the carbon dioxide from other gas components; and a carbon dioxide direct capture device configured to take in air contained in an ambient environment, and supply the taken-in air to the final treatment device or an upstream side thereof in the carbon-dioxide capture and treatment system.
Abstract:
The present invention relates to a method for producing a formic acid including, a first step of allowing carbon dioxide and hydrogen to react with each other in a solution containing a solvent and a catalyst dissolved in the solvent and in the presence of an amine insoluble in the solvent, and allowing a generated formic acid to adsorb to the amine, in which the catalyst contains at least one metal element selected from the group consisting of metal elements belonging to Groups 8, 9, and 10 of a periodic table and the amine is an amine immobilized on a solid.
Abstract:
The present invention relates to a catalyst reaction method in which in a catalyst reaction using at least one catalyst selected from the group consisting of a metal complex represented by the general formula (1A) described in the specification, a tautomer or stereoisomer of the metal complex, and a salt of the metal complex or the tautomer or stereoisomer, a ligand represented by the general formula (1B) described in the specification is used in such a manner that a ratio of a substance amount of the ligand to a substance amount of the catalyst in a reaction system is greater than 0 to 15.
Abstract:
The present disclosure relates to a hydrogen gas production method including: a first step of generating a mixed gas containing hydrogen and carbon dioxide from a hydrogen storage agent by dehydrogenation reaction using a catalyst in a reactor; a second step of purifying the generated mixed gas to acquire a gas having a high hydrogen concentration; a third step of separating a solution in the reactor into a solution enriched with the catalyst and a permeate using a separation membrane unit; and a fourth step of supplying the solution enriched with the catalyst to the reactor for reusing in the first step.
Abstract:
An encapsulating sheet, for encapsulating an optical semiconductor element, includes an embedding layer for embedding the optical semiconductor element, a covering layer disposed at one side in a thickness direction with respect to the embedding layer, and a barrier layer interposed between the embedding layer and the covering layer; having a thickness of 50 μm or more and 1,000 μm or less; and for suppressing a transfer of a component contained in the covering layer to the embedding layer.
Abstract:
The invention relates to a method for producing a formate, the method including reacting hydrogen with carbon dioxide, a hydrogen carbonate or a carbonate using a catalyst in the presence of a solvent, wherein the reaction is a two-phase system in which an organic solvent and an aqueous solvent are present in a separated state in the solvent, and the catalyst is at least one selected from a ruthenium complex represented by the formula (1) in the specification, a tautomer or stereoisomer thereof, and a salt compound of the complex, tautomer or stereoisomer.
Abstract:
An encapsulating sheet, for encapsulating an optical semiconductor element mounted on a board by a wire-bonding connection, includes an embedding layer for embedding the optical semiconductor element and a wire and a cover layer covering the embedding layer. The embedding layer and the cover layer contain a catalyst containing a transition metal and are prepared from a silicone resin composition that is cured by accelerating a reaction by the catalyst. The ratio of the concentration of the transition metal in the cover layer to that of the transition metal in the embedding layer is 1 or more. The length from an interface between the embedding layer and the cover layer to a portion of the wire that is positioned closest to the cover layer-side is 150 μm or more.
Abstract:
The present invention relates to a formate production method including: a first step of producing a formate by causing a reaction between carbon dioxide and hydrogen in a solution containing a solvent, a catalyst dissolved in the solvent, and a metal salt or an organic salt; and a second step of separating, by a separation membrane, the catalyst from a reaction solution obtained in the first step, in which the catalyst contains at least one metal element selected from the group consisting of metal elements belonging to Group 8, Group 9, and Group 10 of a periodic table.
Abstract:
The present invention relates to a sheet-shaped, optical-semiconductor encapsulating material including: a first resin layer containing inorganic particles; and a second resin layer containing a phosphor and being superposed directly or indirectly on the first resin layer, and relates to a kit for optical-semiconductor encapsulation including: a sheet-shaped molded body including a first resin layer containing inorganic particles; and a sheet-shaped molded body including a second resin layer containing a phosphor.
Abstract:
The present invention relates to a method for producing hydrogen, in which hydrogen is generated from a formate using a metal catalyst in the presence of a solvent by a two-phase system reaction in which the solvent is present in a state where an organic phase and an aqueous phase are separated.