Abstract: The present invention provides a cancer cell proliferation inhibitor and a health food, suppressing cancer cell proliferation by using nucleic acid and RNA. A cancer cell proliferation inhibitor and a health food containing RNA extracted from torula yeast can inhibit a cell cycle of a cancer cell.

Abstract: A vacuum heat insulating material is provided with: a sheath material; and a core material that is sealed inside the sheath material in a hermetically sealed decompressed state. The sheath material includes a gas barrier layer containing a layered material. The sheath material is configured such that a product d×E of a thickness d (unit: mm) and a tensile modulus E (unit: Pa) of the sheath material is set to be less than or equal to 600 MPa·mm, the tensile modulus being measured with a dynamic viscoelasticity measuring device. Accordingly, it is possible to provide a vacuum heat insulating material capable of effectively preventing the brittleness of the sheath material including the gas barrier layer that contains the layered material.

Abstract: A vacuum heat insulating material includes a sheath material and a core material that is sealed inside the sheath material in a hermetically sealed decompressed state. The sheath material comprises a gas barrier layer and heat sealing layer. Heat sealing layer contains a heat sealing resin and filler with an aspect ratio exceeding 1. In heat sealing layer, at least some of filler is oriented, with a long-axis direction intersecting with a direction in which heat sealing layer spreads. Accordingly, there is provided a vacuum heat insulating material capable of preventing entry of a gas to the inside and favorably ensuring the hermetically sealed decompressed state on the inside.

Abstract: A vacuum heat-insulating material includes: an outer cover material; and a core material which is sealed in a tightly closed and decompressed state on the inside of the outer cover material. Outer cover material has gas barrier properties and satisfies at least one of a condition that a linear expansion coefficient is 80×10?5/° C. or lower when a static load is 0.05 N within a temperature range of ?130° C. to 80° C., inclusive, a condition that an average value of a linear expansion coefficient is 65×10?5/° C. or higher when a static load is 0.4 N within a temperature range of ?140° C. to ?130° C., inclusive, a condition that an average value of a linear expansion coefficient is 20×10?5/° C. or higher when a static load is 0.4 N within a temperature range of ?140° C. to ?110° C., inclusive, and a condition that an average value of a linear expansion coefficient is 13×10?5/° C. or higher when a static load is 0.4 N within a temperature range of +50° C. to +65° C., inclusive.

Abstract: A dwelling wall includes: a vacuum heat-insulating material including an outer cover material, and an inner member which is sealed in a tightly closed and decompressed state on the inside of the outer cover material; and a wall material. In addition, the vacuum heat-insulating material is disposed on a rear surface side of the wall material, and the inner member is configured of a material which does not generate hydrogen in a case of coming into contact with moisture of liquid. According to the configuration, even in a case where the vacuum heat-insulating material used in the dwelling wall is ruptured and water of liquid comes into contact with the inner member, it is possible to realize excellent stability of the dwelling wall.

Abstract: A sealed container (1) includes at least an outer container (2) and a gas adsorption device (4) being provided in a sealed space (3) within the outer container (2) and being capable of adsorbing a gas. The gas adsorption device (4) includes at least a copper ion-exchanged ZSM-5 type zeolite and a primary material having a lower gas barrier property than the outer container (2) does.

Abstract: A heat-insulating container being used under an environment where exposure to water of liquid is possible, includes a container main body having a substance holding portion which holds a substance at a temperature which is lower than a normal temperature on the inside of the substance holding portion; and a heat-insulating structure body which is provided in the container main body and includes at least a vacuum heat-insulating material. In addition, the vacuum heat-insulating material includes an outer cover material and an inner member sealed in a tightly closed and decompressed state on an inside of the outer cover material. In addition, the inner member is configured of a material which does not generate hydrogen in a case of coming into contact with the moisture of the liquid.

Abstract: A vacuum heat-insulating material includes: an outer cover material; and a core material which is sealed in a tightly closed and decompressed state on the inside of the outer cover material. Outer cover material has gas barrier properties and satisfies at least one of a condition that a linear expansion coefficient is 80×10?5/° C. or lower when a static load is 0.05 N within a temperature range of ?130° C. to 80° C., inclusive, a condition that an average value of a linear expansion coefficient is 65×10?5/° C. or higher when a static load is 0.4 N within a temperature range of ?140° C. to ?130° C., inclusive, a condition that an average value of a linear expansion coefficient is 20×10?5/° C. or higher when a static load is 0.4 N within a temperature range of ?140° C. to ?110° C., inclusive, and a condition that an average value of a linear expansion coefficient is 13×10?5/° C. or higher when a static load is 0.4 N within a temperature range of +50° C. to +65° C., inclusive.

Abstract: A vacuum heat-insulating material includes: an outer cover material; and a core material which is sealed in a tightly closed and decompressed state on the inside of the outer cover material. Outer cover material has gas barrier properties and satisfies at least one of a condition that a linear expansion coefficient is 80×10?5/° C. or lower when a static load is 0.05 N within a temperature range of ?130° C. to 80° C., inclusive, a condition that an average value of a linear expansion coefficient is 65×10?5/° C. or higher when a static load is 0.4 N within a temperature range of ?140° C. to ?130° C., inclusive, a condition that an average value of a linear expansion coefficient is 20×10?5/° C. or higher when a static load is 0.4 N within a temperature range of ?140° C. to ?110° C., inclusive, and a condition that an average value of a linear expansion coefficient is 13×10?5/° C. or higher when a static load is 0.4 N within a temperature range of +50° C. to +65° C., inclusive.

Abstract: A heat-insulating container being used under an environment where exposure to water of liquid is possible, includes a container main body having a substance holding portion which holds a substance at a temperature which is lower than a normal temperature on the inside of the substance holding portion; and a heat-insulating structure body which is provided in the container main body and includes at least a vacuum heat-insulating material. In addition, the vacuum heat-insulating material includes an outer cover material and an inner member sealed in a tightly closed and decompressed state on an inside of the outer cover material. In addition, the inner member is configured of a material which does not generate hydrogen in a case of coming into contact with the moisture of the liquid.

Abstract: A vacuum heat-insulating material includes: an outer cover material; and a core material which is sealed in a tightly closed and decompressed state on the inside of the outer cover material. Outer cover material has gas barrier properties and satisfies at least one of a condition that a linear expansion coefficient is 80×10?5/° C. or lower when a static load is 0.05 N within a temperature range of ?130° C. to 80° C., inclusive, a condition that an average value of a linear expansion coefficient is 65×10?5/° C. or higher when a static load is 0.4 N within a temperature range of ?140° C. to ?130° C., inclusive, a condition that an average value of a linear expansion coefficient is 20×10?5/° C. or higher when a static load is 0.4 N within a temperature range of ?140° C. to ?110° C., inclusive, and a condition that an average value of a linear expansion coefficient is 13×10?5/° C. or higher when a static load is 0.4 N within a temperature range of +50° C. to +65° C., inclusive.

Abstract: A dwelling wall includes: a vacuum heat-insulating material including an outer cover material, and an inner member which is sealed in a tightly closed and decompressed state on the inside of the outer cover material; and a wall material. In addition, the vacuum heat-insulating material is disposed on a rear surface side of the wall material, and the inner member is configured of a material which does not generate hydrogen in a case of coming into contact with moisture of liquid. According to the configuration, even in a case where the vacuum heat-insulating material used in the dwelling wall is ruptured and water of liquid comes into contact with the inner member, it is possible to realize excellent stability of the dwelling wall.

Abstract: A sealed container (1) includes at least an outer container (2) and a gas adsorption device (4) being provided in a sealed space (3) within the outer container (2) and being capable of adsorbing a gas. The gas adsorption device (4) includes at least a copper ion-exchanged ZSM-5 type zeolite and a primary material having a lower gas barrier property than the outer container (2) does.

Abstract: Provided is a carbon dioxide adsorbent with which large quantities of carbon dioxide can be adsorbed and removed even under conditions having low carbon dioxide concentrations such as when under subatmospheric pressure or when under an environment having a carbon dioxide partial pressure of less than atmospheric pressure, said carbon dioxide adsorbent exhibiting excellent adsorption activity. A carbon dioxide adsorbent including at least a ZSM-5 zeolite including barium (Ba) or strontium (Sr) is characterized in that the ZSM-5 zeolite includes M-O-M bonds (M being Ba or Sr, and O being oxygen). The M-O-M bonds interact strongly with carbon dioxide, and thus carbon dioxide can be adsorbed effectively and in large volumes even under conditions having low carbon dioxide concentrations.

Abstract: Insulators (10A to 10C) according to the present invention include: a core material (11) that retains a space; a sheath material (12) that has a gas bather ability and encloses the core material (11) therein in a decompressed and closed state; and gas adsorbents (20A to 20D) enclosed in the sheath material (12) together with the core material (11). The gas adsorbents (20A to 20D) are each a copper ion-exchanged ZSM-5 type zeolite compact (21) which contains ZSM-5 type zeolite subjected to copper ion exchange, and is molded in such a manner that the density of the zeolite is higher than the density of the core material (11) decompressed and sealed in the sheath material (12).

Abstract: A battery pack comprising: a secondary battery including a safety valve; a gas absorption portion including a gas absorbent represented by zeolite and a container hermetically enclosing the gas absorbent; and a case housing the secondary battery and the gas absorption portion. The safety valve is configured to discharge a gas produced in the secondary battery at the time of abnormality. The container includes a principal surface facing the safety valve, for example, and when the gas is discharged, the container is unsealed by rupturing of at least the principal surface of the container by an effect of heat or pressure of the gas.

Abstract: Insulators (10A to 10C) according to the present invention include: a core material (11) that retains a space; a sheath material (12) that has a gas bather ability and encloses the core material (11) therein in a decompressed and closed state; and gas adsorbents (20A to 20D) enclosed in the sheath material (12) together with the core material (11). The gas adsorbents (20A to 20D) are each a copper ion-exchanged ZSM-5 type zeolite compact (21) which contains ZSM-5 type zeolite subjected to copper ion exchange, and is molded in such a manner that the density of the zeolite is higher than the density of the core material (11) decompressed and sealed in the sheath material (12).

Abstract: Provided is a carbon dioxide adsorbent with which large quantities of carbon dioxide can be adsorbed and removed even under conditions having low carbon dioxide concentrations such as when under subatmospheric pressure or when under an environment having a carbon dioxide partial pressure of less than atmospheric pressure, said carbon dioxide adsorbent exhibiting excellent adsorption activity. A carbon dioxide adsorbent including at least a ZSM-5 zeolite including barium (Ba) or strontium (Sr) is characterized in that the ZSM-5 zeolite includes M-O-M bonds (M being Ba or Sr, and O being oxygen). The M-O-M bonds interact strongly with carbon dioxide, and thus carbon dioxide can be adsorbed effectively and in large volumes even under conditions having low carbon dioxide concentrations.

Abstract: An acoustic speaker device (10) according to the present invention comprises at least two types of gas adsorption materials in a cabinet (12) thereof. A porous carbon material package member (14A), which is one of the gas adsorption materials, can adsorb or eliminate air in the cabinet (12) by a porous carbon material (41) during the operation of a speaker unit (13) so as to buffer compression or expansion of air in the cabinet (12). A sheet-like moisture adsorbing material (14B), which is the other of the gas adsorbing materials, is formed by dispersing copper ion-exchanged ZSM-5 zeolite (43) in a thermoplastic resin composition (44), and is stuck on at least a section of an inner wall of the cabinet (12). This configuration allows moisture in the cabinet (12) to be rapidly adsorbed.

Abstract: A sheet-shaped gas adsorbent according to the present invention is composed of at least a thermoplastic resin and copper ion-exchanged ZSM-5 type zeolite (12), and typically represented by, for example, a single layer sheet-shaped gas adsorbent (10), which is configured of dispersing the copper ion-exchanged ZSM-5 type zeolite (12) in the thermoplastic resin sheet (11). Also, the insulating body according to the present invention comprises a sheet-shaped gas adsorbent having the aforementioned configuration, and typically represented by, for example, a configuration, in which a core member and a sheet-shaped gas adsorbent are covered with a sheath member.