Engineering Ceramics  Manufacturers, Traders, Suppliers

• 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.

Engineering 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, with excellent mechanical, sound, light, thermal, electrical, biological and other characteristics Ceramics.

Engineering ceramics are different from traditional ceramics in terms of raw materials and processes. The specific fine structure makes them have a series of advantages such as high strength, high hardness, wear resistance, corrosion resistance, high temperature resistance, insulation, superconductivity, and biocompatibility, and are widely used In the fields of national defense, chemical industry, metallurgy, electronics, machinery, aviation, aerospace, biomedicine, etc.

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.

Jundro’s precision ceramic parts serve key industries, including semiconductors, medical devices, automation, defense and military, aerospace, and quantum research. The company has established strong partnerships with world-renowned enterprises and academic institutions, such as ABB,  General Electric, CETC, the Nuclear Power Research Institute, Tsinghua University, and Duke University, supplying them with high-precision ceramic components tailored to their needs.

Materials
Macor
Zerodur
Aluminum nitride
95-98% alumina
zirconia
Silicon nitride
Silicon carbide
Boron carbide
Quartz glass
Sapphire glass
Shapal-HI-M

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

Engineer ceramics are components of ceramic to provide solutions for engineering conditions with special requirements.Ceramics offer many advantages compared to other materials. They are more heat and corrosion resistant than metals or polymers; less dense than most metals and their alloys; and their raw materials are both plentiful and inexpensive. These good properties facilitate their use in many different product areas.The common engineer ceramics include alumina ceramic, steatite ceramic, zirconia ceramic, cordierite ceramic and titanium ceramicetc.If you are looking for a material that has a longer working life and can stand up to wear, corrosion and high temperature, the engineering ceramic is the answer.