Nachrichten

Einführung in die Hochleistungskeramik für die Luft- und RaumfahrtIn der modernen Luft- und Raumfahrttechnik werden häufig Werkstoffe benötigt, die auch in extremen Umgebungen stabil und leistungsfähig bleiben. Hochleistungskeramiken mit hoher Hitzebeständigkeit, leichter Struktur und Langlebigkeit treiben die Luft- und Raumfahrt zweifellos in eine neue Zukunft, in der effizientere und leistungsfähigere Flugzeuge hergestellt werden, was sowohl für die zivile als auch für die militärische Luftfahrt unerlässlich ist.

Bei beiden Materialien handelt es sich um hochstabile Glaskeramiken mit geringer Wärmeausdehnung. Aufgrund ihrer hervorragenden mechanischen Eigenschaften werden sie häufig in der High-Tech-Industrie eingesetzt, z. B. für Linsen astronomischer Teleskope, Strukturbauteile für die Weltraumforschung, hochpräzise Instrumente usw., also für Geräte, die empfindlich auf Temperaturschwankungen reagieren. Grundlegende Konzepte von Glas mit geringer Ausdehnung Was ist Glas mit geringer Ausdehnung?

Imagine a material that has the easy processing of traditional materials but also has excellent thermal and electrical properties. How would such a material change various industries? What is Macor Glaskeramik? This is a polycrystalline composite material known for its unique processability. It is often used in demanding applications due to its excellent mechanical strength,

What is Zero Porosity Macor Glass Ceramics? Macor glass-ceramic is a unique machinable glass-ceramic developed by Corning, which consists of a glass matrix and a microcrystalline phase. Its main features are machinability and zero porosity. Its microcrystals are evenly distributed in the glass matrix, filling most of the potential micropores. This makes the material almost

Thermally Conductive Ceramics Overview High thermal conductivity ceramic materials are rapidly changing the rules of the game in the efficient thermal management industry, usually materials such as aluminum nitride, silicon carbide and hexagonal boron nitride, playing an irreplaceable role in aerospace, energy and electronics. Their unique properties, uses and comparison with traditional materials will help

Macor Machinability Macor machinable glass-ceramic is a special material that can be machined using common metal tools, which is a major highlight and makes it the first choice for high-precision parts. Matrix: It is composed of glass components such as silicon dioxide and boron oxide, which provides good plasticity.Crystalline phase: It contains mica crystals, which

What Is Machinable Aluminum Nitride? Machinable Aluminum Nitride (AlN) is a specially designed composite ceramic material that optimizes its processing performance by combining aluminum nitride (AlN) with secondary materials such as boron nitride (BN). , while maintaining the excellent properties of aluminum nitride. Machinable aluminum nitride offers significant advantages over conventional aluminum nitride ceramics, particularly

What is Alumina Ceramic? Alumina ceramics are usually high-performance materials made by molding and sintering aluminum oxide (Al₂O₃) powder at high temperatures. They are favored by most industrial applications due to their reliable properties, such as high thermal conductivity, high wear resistance, and corrosion resistance. They are widely used in semiconductors, aerospace, medical and other

Characteristics and Engineering Applications of Aluminum Nitride Aluminum nitride (AlN) is an advanced ceramic material with excellent performance, widely used in high-end engineering fields due to its extremely high thermal conductivity, excellent electrical insulation, low thermal expansion coefficient, outstanding high temperature resistance, and excellent chemical stability. Unlike aluminum nitrate, aluminum nitride is a compound of

Engineering ceramic Parts & Components Customized ceramic parts are specialized components designed with advanced ceramic materials to meet specific application requirements, such as gyroscope parts used in aerospace, plunger pumps in medical equipment, and wafer components in semiconductors. These parts are ideal for various high-precision equipment due to their excellent mechanical strength, thermal stability, and