Abstract:
A stabilizer (1) comprises a main bar (11) that is elastically deformable, a pair of connecting plates (12) respectively configured to be connected to a pair of left and right suspension apparatuses (50), and transition sections (13) connecting both end portions of the main bar and the pair of connecting plates, a size of one transition section of the transition sections in a plate thickness direction of one connecting plate of the connecting plates gradually decreasing from the main bar toward the connecting plate, wherein the minimum value of the Vickers hardness of the transition section is 200 HV or more.
Abstract:
A heat dissipation structure having high joining strength during a cooling/heating cycle and a high cooling efficiency, a power module, a method of manufacturing the heat dissipation structure, and a method of manufacturing the power module is provided. A power module 1 of the present invention includes: a ceramic substrate 10 having an insulation quality; a metal member 50 containing a metal or an alloy and joined by a brazing material on a surface of the ceramic substrate 10; and a heat dissipation member 40 formed by accelerating a powder containing a metal or an alloy with a gas, and by spraying and depositing the powder in a solid phase state on a surface of the metal member 50, wherein a heat pipe 60 is embedded in the heat dissipation member 40.
Abstract:
In a method of manufacturing a stabilizer according to the present invention, forging processing is performed on a base material and a stabilizer having a through hole at each of both ends is produced. The method includes: a recess forming step of forming a recess at a through hole formation position for the through hole of the stabilizer at an end of the base material; and a through hole forming step of forming a through hole by performing perforation at the through hole formation position including the recess.
Abstract:
To provide a pipe embedded structure that improves adhesive properties between a pipe that forms a passage and a metal member, and a method of manufacturing the pipe embedded structure. A pipe embedded structure 1 includes a pipe 10, a base material 11, and a deposited layer 12. The pipe 10 is made of a metal or an alloy, and has a periphery that forms a circular shape in a transverse section. The base material 11 is made of a metal or an alloy, in which a recessed portion 11a is formed. The recessed portion 11a allows the pipe 10 to be fitted therein, and has an inner wall on which a part of the periphery abuts, and a ratio h/R of a protruding amount h by which the pipe 10 protrudes from the upper surface 11b and a curvature R of the periphery is not smaller than 0.3 and not greater than 0.7. The deposited layer 12 is formed such that powder formed of a metal or an alloy is accelerated together with a gas in a state where the pipe 10 is fitted into the recessed portion 11a, and the powder is sprayed and deposited on surfaces of the pipe 10 and the base material 11 while remaining in a solid phase state.
Abstract:
Provided is a pipe buried structure with improved adhesiveness between a pipe forming a flow path and a metal member, and a method of manufacturing the same. A pipe buried structure 1 is provided with a pipe 10 made of metal or alloy, an outer periphery on a cross section of which has a flattened shape obtained by curving both ends in a longitudinal direction, a base material 11 made of metal or alloy on which a concave portion 11a is formed, the portion including an inner wall which an outer peripheral portion 10c in the longitudinal direction abuts and to which the pipe 10 is fitted, and a deposition layer 12 formed by accelerating powder made of metal or alloy together with gas and spraying the same in a solid phase state on surfaces of the pipe 10 and the base material 11, thereby depositing the powder in a state in which the pipe 10 is fitted to the concave portion 11a, wherein a ratio h/R between a protruding amount h by which the pipe 10 protrudes from the surface of the base material 11 and a curvature R at ends 10a and 10b is not smaller than 0.25 and not larger than 0.5.