Abstract: First and second supported portions each made of silicon carbide and a supporting portion made of silicon carbide are arranged such that the first and second supported portions and the supporting portion face each other and a gap is provided between the first and second supported portions. By sublimating and recrystallizing silicon carbide of the supporting portion, the supporting portion is connected to each of the first and second single-crystal substrates. On this occasion, a through hole is formed in the supporting portion so as to be connected to the gap. Accordingly, a path is formed which allows a fluid to pass through the gap and the through hole. By closing this path, the fluid can be prevented from being leaked through the silicon carbide substrate.

Abstract: A method for manufacturing a silicon carbide substrate includes the steps of: preparing a base substrate made of silicon carbide, and a SiC substrate made of single-crystal silicon carbide; fabricating a stacked substrate by placing the SiC substrate on and in contact with a main surface of the base substrate; connecting the base substrate and the SiC substrate by heating the stacked substrate to allow the base substrate to have a temperature higher than that of the SiC substrate; and forming an epitaxial growth layer on an opposite main surface, to the SiC substrate, of the base substrate connected to the SiC substrate.

Abstract: The invention provides a methioninase inhibitor to suppress the production of methyl mercaptan that is a causative substance of a bad smell by inhibiting methioninase originated from bacteria, as well as a composition and a food or drink containing the same, wherein the methioninase inhibitor contains an extract obtained from a plant of the family Myrsinaceae, genus Myrsine, preferably Myrsine seguinii as an active ingredient; and further provides a methioninase inhibitor, as well as a composition and a food or drink containing the same, wherein the methioninase inhibitor contains as an active ingredient one or more selected from the group consisting of myrsinoic acid A, myrsinoic acid B, myrsinoic acid C, myrsinoic acid E and myrsinoic acid F; preferably the myrsinoic acid A, myrsinoic acid B, myrsinoic acid C, myrsinoic acid E and myrsinoic acid F are obtained from a plant of the family Myrsinaceae, genus Myrsine, preferably Myrsine seguinii.

Abstract: A heat pipe includes an air tight elongated container and a heat carrier sealed in the container. The elongated container has a flat bottom wall serving as a heat receiving portion and a top wall serving as a heat dissipating portion. A liquid passage for moving condensed heat carrier in a slanted direction and parallel directions with respect to the longitudinal axis by capillary action is provided on the inner wall surfaces of the container. The heat carrier which has been condensed into liquid flows along the liquid passage to be distributed entirely over the bottom wall surface where it efficiently absorbs heat to be evaporated again.

Abstract: A radiating device for radiating heat of an electronic component to the atmosphere, includes a container body, a cap for tight-sealing the inner space of the container body, and a working fluid serving as a heat carrier kept in the container body. The bottom wall of the container body is flat and serves as a heat receiving portion. The working fluid repeats evaporation and condensation in the container body. In a corner where the inner surface of the bottom wall of the container body meets the inner surface of a vertical cylindrical wall, a loop groove is formed running all along the corner. A plurality of horizontal grooves intersecting the loop groove are formed on the inner surface of the bottom wall. A plurality of second grooves intersecting the loop grooves are formed on the inner surface of the cylindrical wall. The working fluid condensed at the heat radiating portion returns to the bottom wall through the vertical grooves and through the loop groove.

Abstract: A radiating device 10 has a rectangular parallelepiped block 11. Block 11 includes a first group of holes 12 to 19 and a second group of holes 20 to 23 causing convection of air. Passages for circulating gas and liquid serving as a heat pipe, are formed to extend in X, Y and Z directions in block 11. Opening ends of respective passages are closed by pins 51. The air heated in the holes is discharged to the atmosphere from the top surface of the block through the second group of holes. Accordingly, cool air in the atmosphere absorbed in the holes of the first group, carries the heat generated from the inner wall surface of the holes, is discharged to the atmosphere from the top surface of the block. Working fluid sealed in the passage frequently repeats an evaporation and condensation. The liquid condensed at the radiating portion returns to the heated portion along an inner wall surface defining the passage.