Chemical Vapour Deposition systems combine controlled heating, high purity gas delivery and automated process management to create consistent coatings. Discover how Thermic Edge CVD reactors produce SiC³ coatings for graphite, ceramic and composite components.
Learn how muffle furnaces provide controlled high temperature processing for heat treatment, ashing, material testing, quality control and sample preparation, including the importance of chamber size, temperature control and safety features.
RF/DC biasing helps control how charged particles interact with a sample during vacuum and plasma processing. Learn how RF bias and DC bias support thin film deposition, plasma cleaning, surface preparation and biased heater stage design.
Learn how Thermic Edge vacuum furnaces support clean heat treatment, oxidation furnace processing, vacuum sintering, annealing, brazing and advanced materials research.
Linear motion and rotation stages enable precise positioning, controlled movement, and reliable performance within vacuum systems. Discover how these solutions support sample handling, heater integration, and process consistency across research and industrial applications.
Ceramitec 2026 proved to be a genuinely valuable event for Thermic Edge. It brought together a broad mix of industries, from research and development environments through to established industrial manufacturers, all with a shared interest in high-performance materials and thermal processes.
Founded in 2016, Thermic Edge Coatings celebrates ten years as a specialist and independent provider of high purity ceramic coatings for high temperature and vacuum applications.
Thermic Edge Coatings operates as part of the Thermic Edge Group, which includes Thermic Edge, Thermic Edge Ceramics and Graphite, and Thermic Edge Europe.
Silicon Carbide (SiC) has long been the gold standard for protective SiC coatings in high-temperature, corrosive environments. Its exceptional hardness and thermal properties make it invaluable in industries ranging from aerospace to semiconductor manufacturing. However, for the most demanding applications, especially those requiring ultra-high purity, standard SiC coatings often fall short. Enter Cubic Silicon Carbide (SiC3).
Silicon carbide (SiC) is a compound of silicon and carbon that has gained widespread attention across high-performance engineering, materials science, and vacuum technology. Known for its exceptional thermal conductivity, chemical inertness, and mechanical strength, silicon carbide has proven invaluable in environments where conventional ceramics or metals would fail.
In demanding engineering environments — from vacuum chambers to semiconductor tooling — few materials perform as reliably as boron nitride. Known for its unique balance of thermal, electrical, and chemical properties, boron nitride has become the go-to ceramic where purity, precision, and durability are non-negotiable.
