Ceramic Parts  Manufacturers, Traders, Suppliers

oxide ceramics:
AluminaAl2O3 99.7%

• High temperature application 1700°C, electrical insulator, thin-wall construction, chem. resistant, good thermal conductivity, gas tight
• Application areas:
• Wear component, furnace heating coil support, wire guides etc.

Substrates Al2O3 96%

• electrical printer carriers, insulators

Zirconia ZrO2 y- or MgO-rod.

• very high surface qualities Ra

Fused silica SiO2

• very poor heat conductor, very low thermal expansion; max. 1000°C applicable
• Use as thermal insulators

Non-oxide ceramics:
Aluminium nitride AlN

• very good heat conductor, very good thermal shock resistance
• Use as heat conductors and boards

Silicon nitride Si3N4

• very wear resistant, high toughness and hardness
• for wear parts

Silicon carbide SiC, SiSiC

• High-temperature application, very good resistance to temperature changes; high thermal conductivity, extremely good oxidation resistance
• Examples of use: Slide bearings, guide rails

boron nitride BN+AlN

• low thermal expansion, low density
• for use in glass nozzles

Silicate ceramics:
Aluminium silicate Al2O3 60%

• very high thermal shock resistance, gas-tight; high electrical insulation even at high temperatures 1400°C
• Examples of use: Thermal engineering, wear component, resistance body

cordierite/mullite

• porous
• for filter ceramics

Steatite

• High temperature application
• for use in furnace construction or catalysts

Glasses and other ceramics:
Sapphire Al2O3 99.99%

• very good sliding properties, very good chemical resistance
• Light guides, sliding bodies, insulators, cutting components

Quartz glass SiO2 99.99%

• high temperature resistance 1000°C
• Application examples light guides and chemical use

Borosilicate for use in fibre optics
Macor

• max. 1000°C applicable, conditionally workable with conventional tools!
• For use in radiators and insulators

Our processing techniques:

• cut-off grinding max. diameter 70mm; max. length 250mm
• Surface and groove grinding max. length 300mm
• CNC contour grinding max. 200 x 130mm
• cylindrical grinding max. diameter 150mm; max. length between centres 350mm
• Centerless grinding max. diameter 50mm
• CNC round profile grinding max. diameter 100mm
• Internal honing max. inner diameter 25mm
• Flat lapping; -Polishing does not mean optical polishing for sapphire!
• Round polishing min. diameter 5mm; max. diameter 30mm

• Ceramic materials exhibit very high mechanical strength which is required for the application as components for machines and equipments.
• The hardness of advanced ceramic materials is above 9 on Moh´s Scale, and only diamond is harder (which rates 10 on Moh´s Scale). For this reason ceramic materials are excellent suitable for the production of parts with very high wear resistance e.g. for the paper-, textile- and wire industry.
• The low density of the ceramic material is advantageous in the design of rotating movable parts such as bearings, valves, and rotors.
• Ceramic materials are extremely heat resistant. The properties of metals can be significantly above 500 ° C after. Construction ceramics, however, can also be used above 1000 ° C. Ceramic components, for example in the metal industry in direct contact with molten metal (eg Abziehringen) is used.
• In contrast to metals ceramic materials react only insignificant with acids and bases. Therefore they are ideal for the application in chemical industry.

- Ceramic materials exhibit very high mechanical strength which is required for the application as components for machines and equipments.
- The hardness of advanced ceramic materials is above 9 on Moh´s Scale, and only diamond is harder (which rates 10 on Moh´s Scale). For this reason ceramic materials are excellent suitable for the production of parts with very high wear resistance e.g. for the paper-, textile- and wire industry.
- The low density of the ceramic material is advantageous in the design of rotating movable parts such as bearings, valves, and rotors.
- Ceramic materials are extremely heat resistant. The properties of metals can be significantly above 500 ° C after. Construction ceramics, however, can also be used above 1000 ° C. Ceramic components, for example in the metal industry in direct contact with molten metal (eg Abziehringen) is used.
- In contrast to metals ceramic materials react only insignificant with acids and bases. Therefore they are ideal for the application in chemical industry.
Moreover, ceramic materials are bioinert and are used as implants (e.g. hip joint endoprosthesis, tooth pins, malleus).
All ceramic materials (also non-oxide) exhibit excellent oxidation resistance at high temperatures.

Intelligent Alternatives to Metals and Plastics
New procedures and production technologies today require the use of highly wear-resistant components. They must be able to withstand mechanical and chemical attacks or operate reliably on a low-maintenance level in high-frequency ranges.
Thanks to their diverse properties, ceramics have become an increasingly popular alternative to metals and plastics.
We offer our customers products made to measure, for application in areas with those specific conditions. Our customers can rely on our expertise in construction, material selection and production techniques that stems from 120 years of experience in the industry. We offer a varied range of silicate and oxide ceramics with different material systems and their modifications. Our own mould and prototype construction facilities provide an important foundation for the optimal use of our casting technology.
Finishing processes like grinding, cementing, gluing, reinforcing or metallising provide a wide range of possibilities for shaping and completing of the ceramic components.
Also items manufactured in small batches, or even individually, are likely to make economic sense because of their high wear, temperature and deformation resistance.

Ceramic Part
Material Definition & Classification
Industrial ceramics are inorganic, non-metallic materials engineered for extreme environments. Primary categories include:
Oxide Ceramics: Al₂O₃ (alumina), ZrO₂ (zirconia)
Non-Oxide Ceramics: SiC (silicon carbide), Si₃N₄ (silicon nitride)
Composite Ceramics: ZTA (zirconia-toughened alumina), AlN (aluminum nitride)

Core Properties
Mechanical: Vickers hardness up to 2,500 HV (SiC), flexural strength exceeding 1,200 MPa (Y-TZP zirconia)
Thermal: Thermal shock resistance (ΔT> 500°C for Al₂O₃), low CTE (4×10⁻⁶/°C for Si₃N₄)
Electrical: Dielectric strength> 10 kV/mm (99.6% alumina), semiconductor behavior (SiC)
Chemical: Inert to acids/alkalis (except HF for SiO₂-based ceramics)
Manufacturing Processes
Forming: Dry pressing (for simple geometries), injection molding (complex shapes), slip casting (large components)
Sintering: Conventional (1,600°C for alumina), HIP (hot isostatic pressing for pore-free structures)
Finishing: Laser machining (±0.01 mm tolerance), diamond grinding (Ra < 0.1 μm)

‌Thermal Management Systems‌
Alumina (Al₂O₃): Insulating substrates for power electronics (e.g., IGBT modules) with CTE matching capabilities (7.2×10⁻⁶/°C)
Aluminum Nitride (AlN): High thermal conductivity (180 W/m·K) for LED heat sinks in automotive lighting
‌Mechanical Wear Resistance‌
Zirconia-toughened alumina (ZTA): Mining equipment liners with 3× longer service life than manganese steel
Silicon Carbide (SiC): Seal rings for chemical pumps, achieving 300°C vs. superalloys)
Emerging applications encompass 5G antenna radomes (low dielectric loss ceramics) and hydrogen energy (proton-conducting ceramics for electrolyzers). These materials are increasingly processed via additive manufacturing (DLP/SLS) to achieve complex geometries with ±25 µm dimensional accuracy.

Industrial ceramics are advanced materials made from compounds like alumina, zirconia, silicon carbide, and silicon nitride. These ceramics are valued for their hardness, high-temperature resistance, electrical insulation, and chemical stability.
Industrial ceramics outperform metals and plastics in harsh environments, offering durability and reliability. Despite their brittleness, they are essential for high-precision, high-performance applications in modern manufacturing and technology.

Applications of Industrial Ceramics
Industrial ceramics are widely used across multiple industries due to their exceptional properties, such as heat resistance, hardness, and electrical insulation. Key applications include:
1. Electronics
Substrates, insulators, and chip carriers for high-voltage and high-frequency devices.
Capacitors and resistors in electronic circuits.
2. Aerospace
Thermal barrier coatings for turbine blades.
High-temperature structural components in engines and spacecraft.
3. Energy
Fuel cells, insulators for power grids, and wind turbine components.
Heat exchangers and burners in renewable energy systems.
4. Industrial Manufacturing
Wear-resistant seals, bearings, and cutting tools.
Furnace linings, crucibles, and kilns for high-temperature processes.
5. Environmental Applications
Filters for water and air purification.
Catalytic substrates for emissions control.

We have been providing high-performance and stable Advanced ceramics to multiple enterprises. We focus on the manufacturing of customized parts starting from drawings and adapting to all types of series from short to long thanks to our diverse and advanced machinery

Irregular Structural Parts: Machining accuracy of 0.01mm
Pipes and Rods: Cylindricity of 0.001mm, dimensional accuracy of 0.001mm
Flat Surfaces: Structural part flatness accuracy up to 0.001mm, optical products with flatness accuracy of up to 1/20λ
Microhole Structures: Minimum diameter of 0.1mm, accuracy of 0.01mm
Roughness: Structural parts with Ra0.01um, optical products with Ra0.002um

Aerospace
semiconductor
medical field
National defense and security
Electronic field
Optical field
Energy and Automation
Scientific quantum computing and other fields

Special ceramics, also known as advanced ceramics, precision ceramics, technical ceramics, etc., refer to the use of high-purity, ultra-fine synthetic or selected inorganic compounds as raw materials, and have excellent mechanical, acoustic, optical, thermal, electrical and other properties. , biological and other characteristic ceramics.
Special ceramics are different from traditional ceramics in terms of raw materials and processes. The specific fine structure makes it have a series of advantages such as high strength, high hardness, wear resistance, corrosion resistance, high temperature resistance, insulation, superconductivity, biocompatibility, etc. It is widely used in national defense, chemical industry, metallurgy, electronics, machinery, aviation , aerospace, biomedicine, etc.