Abstract:
According to an embodiment of the present invention, a thermal spraying device including a thermal spraying machine that includes a thermal spraying torch which thermally sprays a material to a base material, one or more peripheral devices that are used together with the thermal spraying machine, and a centralized control board that is capable of collectively controlling the thermal spraying machine and the one or more peripheral devices is provided. According to an embodiment of the present invention of the present invention, a spraying control method that is executed by a thermal spraying device including a thermal spraying machine, one or more peripheral devices that are used together with the thermal spraying machine, and a centralized control board, the method including collectively controlling the thermal spraying machine and the one or more peripheral devices by the centralized control board is provided.
Abstract:
A lamination having a high interface strength, in which a copper film is laminated on an aluminum substrate, or a lamination in which an aluminum film is laminated on a copper substrate, are manufactured by a cold spray method. A lamination 10 of the present invention includes: a substrate 1 formed of aluminum or aluminum alloy; an intermediate layer 2 formed of any one metal or nonmetal selected from the group consisting of silver, gold, chromium, iron, germanium, manganese, nickel, silicon, and zinc, or an alloy containing the any one metal, on a surface of the substrate 1; and a film layer 3 formed by accelerating powder material of copper or copper alloy together with gas heated to a temperature lower than a melting point of the powder material and spraying and depositing a solid-phase powder material onto a surface of the intermediate layer 2.
Abstract:
For a laminate according to the present invention, a metallic coating is formed by accelerating copper powder containing 0.002% to 0.020% by weight of phosphorus and having been subjected to reduction treatment together with gas heated to a temperature lower than the melting point of the copper powder, spraying the copper powder onto the surface of a substrate while keeping the copper powder in the solid state, and depositing the copper powder on the substrate.
Abstract:
To provide a laminate having a high heat dissipation effect, having no problem such as cracking of an insulating substrate even when a thermal load is applied, and having no void or the like in a metal film, and a method of manufacturing the laminate. A laminate according to the present invention includes an insulating substrate 10, an intermediate layer 50 formed on a surface of the substrate 10 and containing a metal or an alloy as a main component, and a circuit layer 20 that is a metal film formed of a copper powder having a hydrogen content of 0.002% by mass or less and laminated on the intermediate layer 50. In the laminate, an interface between the intermediate layer 50 and the circuit layer 20 is plastically deformed.
Abstract:
A member with flow passage that is improved in adhesion between a wall surface constituting a flow passage and a metallic member, and a method for manufacturing the same are provided. A member with flow passage 100 includes: a base member 101 made of metal or alloy; a plate-like member 102 made of metal or alloy in a plate-like shape, including two flat plate portions 11 that are positioned at both widthwise ends and have main surfaces passing over one and the same plane, and a convex portion 12 that is provided between the two flat plate portions 11 and has a cross section shaped in a thickness direction so as to protrude with respect to the flat plate portions, and forming the flow passage 106; and a metal deposit layer 105 that is formed by, while main surfaces of the flat plate portions 11 opposite to a top of the convex portion 12 are facing the base member 101, accelerating powder of metal or alloy together with a gas, and spraying and depositing the powder in a solid-phase state on a surface of the plate-like member 101 at the top side of the convex portion 12 and a surface of the base member 101.
Abstract:
Provided is a film forming method and the like by which, while implementing a cold spray method, it is possible to inject material powder at a high speed while preventing the material powder from being heated excessively. The film forming method is used for forming a film by spraying material powder to deposit on a surface of a base member while the material powder remains in a solid phase state. The film forming method includes: a mixing distance adjusting step of adjusting, in accordance with the type of the material powder, the distance between the position in which the diameter of a through passage is smallest and a mixing position in which the material powder introduced to a nozzle is mixed with gas, the through passage being formed inside the nozzle and being configured so that the diameter thereof first decreases and then increases from a base end toward a distal end; an injecting step of mixing the material powder with the gas in the mixing position, introducing the mixture to the nozzle, accelerating the mixture toward the position in which the diameter is the smallest, and injecting the material powder and the gas from the distal end of the nozzle; and a spraying step of spraying the material powder and the gas injected from the distal end onto the base member.
Abstract:
A film forming method and a film forming apparatus are provided, which achieve: suppression of oxidation of a film being formed; a simple and inexpensive configuration of the apparatus; and replacement of a base member to be subjected to film formation without time and effort. A film forming apparatus 100 is a film forming apparatus that forms a film by accelerating powder 2 of a material with gas and spraying and depositing the powder 2 onto a surface of a substrate 1 with the powder 2 being kept in a solid state; the film forming apparatus 100 includes a chamber 10, a holding unit 11 that is provided in the chamber 10 and holds the base member 1, a spray nozzle 12 that jets out the powder with inert gas, and a drive unit 15 that moves any one of the spray nozzle 12 and holding unit 11 with respect to the other; and inside of the chamber 10 is caused to be under positive pressure by the inert gas jetted out from the spray nozzle 12.