Abstract: An object of the present disclosure is to provide a novel method for producing an ellagic acid-containing composition, the method capable of improving the solubility of ellagic acid. The present embodiment is a method for producing an ellagic acid-containing composition, including: a step of providing a solution containing at least an aqueous medium and a raw material derived from a plant of the genus Terminalia, containing ellagic acid; and a step of heat-treating the solution. The present embodiment is the production method, further including a step of a hydrolysis treatment to hydrolyze ellagitannin contained in the raw material to produce additional ellagic acid, wherein the hydrolysis-treated solution is heat-treated.

Abstract: Provided are: a fish rearing composition containing at least one selected from plantaricin and nisin; and a fish rearing composition containing bacterial cells or a cell culture product of a bacterium having at least one selected from a plantaricin gene and a nisin gene, or an extract thereof. Provided is a method for rearing an organism of fish, including administering bacterial cells or a cell culture product of a bacterium having at least one selected from a plantaricin gene and a nisin gene, or an extract thereof.

Abstract: An aspect of the present invention is directed to provide a novel dipeptidyl peptidase IV (DPP-4) inhibitor and a production method thereof. The DPP-4 inhibitor according to an aspect of the present invention contains a hydrolysate obtained by hydrolyzing a protein derived from a microorganism. An article according to another aspect of the present invention for preventing and/or improving abnormality involving DPP-4 contains the DPP-4 inhibitor. A method for producing the DPP-4 inhibitor according to another aspect of the present invention includes a step of hydrolyzing a protein derived from a microorganism with a protease.

Abstract: Provided are: a composition for rearing an organism belonging to the order Decapoda, comprising bacterial cells or a cell culture product of at least one bacterium selected from NITE-BP-03199, NITE-BP-03200, and NITE-BP-03201, or an extract thereof; and a method for rearing an organism belonging to the order Decapoda using the same. Provided are: a composition for preventing or treating an infection caused by a Vibrio bacterium in a decapod, comprising bacterial cells or a cell culture product of at least one bacterium selected from NITE-BP-03199, NITE-BP-03200, and NITE-BP-03201, or an extract thereof; and a method for preventing or treating an infection in a decapod using the same.

Abstract: Provided are a bacterium having a 16S rRNA gene that contains a nucleotide sequence with 98.80% or more identity to the nucleotide sequence of SEQ ID No: 1 and having the ability to assimilate mannitol and the ability to control a plant disease and a bacterium with Accession Number of NITE BP-03197, NITE BP-03198, NITE BP-03199, NITE BP-03200, NITE BP-03201, or NITE BP-03202, and a control agent against a plant disease caused by Ralstonia solanacearum or Ralstonia pseudosolanacearum, containing bacterial cells or a cell culture product of the bacterium, or an extract thereof.

Abstract: There is provided a wearable device including: a display that displays time; and a processor, in which the processor includes an acquisition unit that acquires moving object information related to a moving object which moves to a destination place and a time difference of the destination place with respect to standard time, and a correction unit that corrects the time to be displayed on the display unit based on the time difference when it is determined that a predetermined condition related to arrival of the moving object to the destination place is satisfied based on the moving object information.

Abstract: Solution is preparing a substrate; covering an electronic component mounting region and an antenna mounting region of the substrate with a resin material having viscosity or fluidity; curing the resin material to form a resin layer, and thereafter performing grinding or polishing so as to substantially flatten a surface of the resin layer on the electronic component mounting region and the antenna mounting region; and covering the flattened resin layer with a shielding material having viscosity or fluidity.

Abstract: An electronic component module includes: a substrate including a conductive pattern; an electronic component provided to the substrate; a sealing portion covering the electronic component and substrate, and having an upper surface and a side surface that form an edge portion; a contact portion configured to be electrically connected with the conductive pattern, the contact portion exposed on a vertical surface continuous with the side surface of the sealing portion; a removal portion formed by removing the predetermined edge portion formed by the upper surface and the side surface of the sealing portion; and a shielding film covering the upper surface, the side surface and the contact portion of the sealing portion. The removal portion is a region allowing a conductive material to pass therethrough so that the contact portion is covered with the shielding film, the conductive material being scattered in vacuum atmosphere lower than atmospheric pressure.

Abstract: A wireless module, including: a substrate; an electronic circuit mounted in a first region on a one face of the substrate; a conductive pattern formed in a second region on another face of the substrate and serving as an antenna; a resin layer sealing the electronic circuit in the first region; and a shielding layer formed on a surface of the resin layer and having conductivity.

Abstract: A wireless module, including: a substrate; an electronic circuit mounted in a first region on a one face of the substrate; a conductive pattern formed in a second region on another face of the substrate, the conductive pattern being connected to a radio communication section of the electronic circuit, and the conductive pattern serving as an antenna when transmitting/receiving radio wave, the second region being different from the first region; a resin layer sealing the electronic circuit in the first region; a shielding layer formed on a surface of the resin layer; and a shield disposed in either one of a top layer of the substrate and an inner layer of the substrate, the shield being for shielding noise radiated from the electronic circuit.

Abstract: Forming a groove in a dicing region so as to expose a conductive pattern material on a side surface, closer to a first side of each of mounting regions, of a substrate; when forming a first sealing portion enclosing a wireless region and a second sealing portion enclosing an antenna region adjacent to the wireless region on a side of a second side of each of the mounting regions, reducing a thickness in a height direction such that a thickness of the second sealing portion becomes smaller in thickness than a thickness of the first sealing portion; forming a shielding film such that a scattered matter made of a conductive material is allowed to pass through an upper surface of the second sealing portion, to be deposited onto the conductive pattern material exposed on a side surface of the substrate; and separating the substrate into the mounting regions individually.

Abstract: There is provided a wearable device including: a display that displays time; and a processor, in which the processor includes an acquisition unit that acquires moving object information related to a moving object which moves to a destination place and a time difference of the destination place with respect to standard time, and a correction unit that corrects the time to be displayed on the display unit based on the time difference when it is determined that a predetermined condition related to arrival of the moving object to the destination place is satisfied based on the moving object information.

Abstract: The present invention provides an agent for determining Alzheimer's disease, comprising an anti-S38AA antibody, a method of determining Alzheimer's disease in a test animal, comprising detecting an S38AA fragment in a sample collected from said animal, and a method of screening for a substance that treats or prevents Alzheimer's disease, comprising contacting a test substance with a cell permitting measurement of production of a S38AA fragment, measuring the production amount of the S38AA fragment in the cell, and comparing the production amount with that of the S38AA fragment in a control cell free of contact with the test substance, and selecting a test substance that down-regulates the production amount of the S38AA fragment as a substance capable of treating or preventing Alzheimer's disease, based on the comparison results.

Abstract: A method of manufacturing a plurality of identical electronic component modules includes: preparing an assembly substrate that includes a plurality of electronic components mounted thereon; digging a first groove along the dicing lines from a top surface of a sealing member that seals each electronic component, the first groove penetrating the sealing member and reaching an intermediate depth within a base substrate; widening an upper portion of the first grove to define a second groove that is continuous with the lower portion of the first groove; forming a shielding film by depositing a film made of a conductive material on the top surface of the sealing member and on inner walls of the first and second grooves that include the sidewalls of the sealing member; and thereafter, cutting the base substrate at a bottom of the lower portion of the first groove along dicing lines.

Abstract: The present invention provides an agent for determining Alzheimer's disease, comprising an anti-S38AA antibody, a method of determining Alzheimer's disease in a test animal, comprising detecting an S38AA fragment in a sample collected from said animal, and a method of screening for a substance that treats or prevents Alzheimer's disease, comprising contacting a test substance with a cell permitting measurement of production of a S38AA fragment, measuring the production amount of the S38AA fragment in the cell, and comparing the production amount with that of the S38AA fragment in a control cell free of contact with the test substance, and selecting a test substance that down-regulates the production amount of the S38AA fragment as a substance capable of treating or preventing Alzheimer's disease, based on the comparison results.

Abstract: A method of manufacturing a plurality of identical electronic component modules includes: preparing an assembly substrate that includes a plurality of electronic components mounted thereon; digging a first groove along the dicing lines from a top surface of a sealing member that seals each electronic component, the first groove penetrating the sealing member and reaching an intermediate depth within a base substrate; widening an upper portion of the first grove to define a second groove that is continuous with the lower portion of the first groove; forming a shielding film by depositing a film made of a conductive material on the top surface of the sealing member and on inner walls of the first and second grooves that include the sidewalls of the sealing member; and thereafter, cutting the base substrate at a bottom of the lower portion of the first groove along dicing lines.

Abstract: To provide an electronic component module capable of forming a shielding film in a state of an assembly substrate and enhancing productivity. An electronic component module includes: a substrate including a conductive pattern; an electronic component provided to the substrate; a sealing portion covering the electronic component and the substrate, the sealing portion having an upper surface and a side surface, the upper surface and the side surface forming an edge portion; a contact portion provided to the substrate, the contact portion being configured to be electrically connected with the conductive pattern, the contact portion having a vertical surface continuous with the side surface of the sealing portion and a horizontal surface continuous with the vertical surface; and a shielding film covering the upper surface and the side surface of the sealing portion and the contact portion.

Abstract: Forming a groove in a dicing region so as to expose a conductive pattern material on a side surface, closer to a first side of each of mounting regions, of a substrate; when forming a first sealing portion enclosing a wireless region and a second sealing portion enclosing an antenna region adjacent to the wireless region on a side of a second side of each of the mounting regions, reducing a thickness in a height direction such that a thickness of the second sealing portion becomes smaller in thickness than a thickness of the first sealing portion; forming a shielding film such that a scattered matter made of a conductive material is allowed to pass through an upper surface of the second sealing portion, to be deposited onto the conductive pattern material exposed on a side surface of the substrate; and separating the substrate into the mounting regions individually.

Abstract: An electronic component module includes: a substrate including a conductive pattern; an electronic component provided to the substrate; a sealing portion covering the electronic component and substrate, and having an upper surface and a side surface that form an edge portion; a contact portion configured to be electrically connected with the conductive pattern, the contact portion exposed on a vertical surface continuous with the side surface of the sealing portion; a removal portion formed by removing the predetermined edge portion formed by the upper surface and the side surface of the sealing portion; and a shielding film covering the upper surface, the side surface and the contact portion of the sealing portion. The removal portion is a region allowing a conductive material to pass therethrough so that the contact portion is covered with the shielding film, the conductive material being scattered in vacuum atmosphere lower than atmospheric pressure.

Abstract: Solution is preparing a substrate; covering an electronic component mounting region and an antenna mounting region of the substrate with a resin material having viscosity or fluidity; curing the resin material to form a resin layer, and thereafter performing grinding or polishing so as to substantially flatten a surface of the resin layer on the electronic component mounting region and the antenna mounting region; and covering the flattened resin layer with a shielding material having viscosity or fluidity.