Many grades of ceramic materials to choose from for your applications. In-house capabilities in forming, sintering, machining, glazing, metalizing, brazing, and assembly.
Equipped with a full set of modern analytical instruments and consistently executing higher standards in the industry.
Xiamen Wintrustek Advanced Materials Co., Ltd.
Xiamen Wintrustek Advanced Materials Co., Ltd. has been a leading manufacturer specializing in technical ceramics since 2014. Over the years we have been committed to research, development, production and marketing by providing a wide range of advanced ceramic solutions for industries that request outstanding material performance to overcome extreme working conditions.
Your business relies on processes that are efficient and consistent. Our ceramic manufacturing capabilities allow you to concentrate more on your products and worry less about multiple vendors. Clients choose to cooperate with us based on our leading material technology, profession, and commitment to the industries we serve.
We are devoted to providing innovative solutions and improving the performance of advanced ceramic components while maintaining the flexibility to serve emerging needs in changing markets. We continue expanding our capabilities by seeking and qualifying unique and innovative processes for advanced ceramic manufacturing.
Lanthanum hexaboride (lanthanum boride, or LaB6) is an inorganic nonmetallic compound made up of low-valence boron and the uncommon metal element lanthanum. It is a refractory ceramic that can survive extreme temperatures and hard conditions. Lanthanum hexaboride ceramic has many applications due to its superior thermal, chemical, and electrical characteristics.
In the ceramic industries, Pyrolytic Boron Nitride (PBN), Aluminum Nitride (AlN) and 99.8% Aluminium Oxide (Alumina) are used commonly for the OLED industry.
Although 99.7% boron nitride is white and offers strong electrical insulation, its lubricating capabilities, effective thermal conduction, and ease of machining make it comparable to graphite. It can also hold most molten metals since they don't wet it. Applications involving abrupt temperature fluctuations can benefit from its exceptional resilience to thermal shock. It won't react or get wet w
The molybdenum-manganese process is the most widely used metallization technique for BeO ceramics. The process involves applying a paste-like mixture of metal oxides and pure metal powder (Mo, Mn) to the ceramic surface, followed by high-temperature heating in a furnace to create a metal layer.
When it comes to the horizontal continuous casting of nonferrous metals, SNBN (boron nitride+silicon nitride) composite ceramics perform exceptionally well. The rings are perfect for guaranteeing a steady and clear separation during metal flow since they are non-wetting to molten metal, oxidation-resistant, and chemically inert.