C23C8/58

Brake rotor

A number of variations may include a brake rotor having a surface oxide layer and methods of making the same.

Brake rotor

A number of variations may include a brake rotor having a surface oxide layer and methods of making the same.

INSULATION FILM MANUFACTURING METHOD OF SEMICONDUCTOR PROCESS
20250105003 · 2025-03-27 ·

The present invention provides an insulating film manufacturing method of a semiconductor process, the method comprises the steps of: placing a wafer in a processing chamber; by supplying a source gas to the processing chamber at a first pressure higher than an atmospheric pressure, forming an insulating film on the wafer as at least one of an oxidation process and a nitridation process proceeds; by supplying a purge gas to the processing chamber, purging the source gas; and, by supplying atmospheric gas to the processing chamber at a second pressure higher than atmospheric pressure, strengthening the insulation film as the heat treatment process proceeds.

System and method for surface hardening of refractory metals

A process of converting an outer layer of an object made of a refractory metal, such as titanium, into a carbide of the refractory metal. A molten metal, such as molten lithium, is placed adjacent the outer surface of the object. The lithium does not react with the titanium, nor is it soluble within the titanium to any significant extent at the temperatures involved. The molten lithium contains elemental carbon, that is, free carbon atoms. At high temperature, the carbon diffuses into the titanium, and reacts with titanium atoms to form titanium carbide in an outer layer. Significantly, no other atoms are present, such as hydrogen or oxygen, which can cause problems, because they are blocked by the molten lithium.

System and method for surface hardening of refractory metals

A process of converting an outer layer of an object made of a refractory metal, such as titanium, into a carbide of the refractory metal. A molten metal, such as molten lithium, is placed adjacent the outer surface of the object. The lithium does not react with the titanium, nor is it soluble within the titanium to any significant extent at the temperatures involved. The molten lithium contains elemental carbon, that is, free carbon atoms. At high temperature, the carbon diffuses into the titanium, and reacts with titanium atoms to form titanium carbide in an outer layer. Significantly, no other atoms are present, such as hydrogen or oxygen, which can cause problems, because they are blocked by the molten lithium.

Friction material and methods of making and using the same

One variation includes a friction material and method of manufacture thereof wherein the friction material includes a transfer layer on a ferritically nitrocarburized component, wherein the transfer layer may be fabricated from glass, rubber, carbon, aramid fiber, filler material, abrasive, or a high-temperature resin.

Friction material and methods of making and using the same

One variation includes a friction material and method of manufacture thereof wherein the friction material includes a transfer layer on a ferritically nitrocarburized component, wherein the transfer layer may be fabricated from glass, rubber, carbon, aramid fiber, filler material, abrasive, or a high-temperature resin.