Graphit findet breite Anwendung in der Halbleiterfertigung, bei EDM-Elektroden, in der Luft- und Raumfahrt sowie in Hochtemperatur-Industriesystemen. Seine Kombination aus thermischer Stabilität, elektrischer Leitfähigkeit und Bearbeitbarkeit macht ihn zu einem wichtigen Konstruktionswerkstoff. Die Bearbeitung von Graphit stellt jedoch aufgrund seiner spröden Mikrostruktur besondere Herausforderungen dar. Eines der größten Probleme, mit denen Ingenieure konfrontiert sind, ist…

Graphite machining is widely used in high-precision industries, including aerospace, semiconductors, and energy storage. Despite advanced machinery and optimized cutting parameters, material loss in graphite machining remains a critical factor affecting cost, yield, and component quality. Losses are not limited to visible chip formation; micro-cracks, edge breakage, and bulk material

Graphite components are widely used in semiconductor equipment, EDM electrodes, thermal management systems, and aerospace applications. Traditionally, these parts are produced using CNC machining processes such as milling, drilling, and grinding. However, engineers increasingly evaluate graphite cutting alternative processes when machining stability, precision, and material integrity become critical concerns. Because

Graphite components are widely used in semiconductor equipment, EDM electrodes, high-temperature tooling, and aerospace structures. However, graphite is a brittle material with a layered crystalline structure, which makes conventional machining processes difficult to control. Engineers often compare graphite cutting vs machining when selecting the most suitable processing method. Although machining