Ceramics and high-purity glass are used in scientific research for their stability, insulation, and precision. They are ideal for components in lasers, optics, vacuum systems, and various laboratory instruments.
The use of technical ceramics in extreme environments is well known. Some of the most demanding applications are at the cutting edge of scientific research where ceramics function in ultra-high vacuum providing electrical insulation whilst undergoing bombardment by high magnetic fields, radioactive environments or cryogenic temperatures.
The ability of technical ceramics to survive and deliver consistent performances across a range of research from the latest fusion science to advanced particle physics, high energy lasers and cryogenic research shows the scope and capability of the materials we offer.
We provide custom ceramic components and precision machining services tailored specifically for scientific research applications, supporting both prototype development and small-to-medium batch production.
Used in vacuum systems, optical mounts, ion traps, spectrometers, lasers, and precision gyroscopes.Stable, insulating, high-precision ceramic components for demanding research applications.
We reduced electrode assembly deviation by up to 30%, improving trapping consistency in micro-scale ion trap chips.
Advanced scientific instruments—such as ion traps, quadrupole systems, vacuum chambers, and precision optical platforms—require materials with exceptional dimensional stability, ultra-high vacuum (UHV) compatibility, and electrical insulation. The following materials are widely used in quantum research and high-end laboratory environments
We have supplied high-precision Macor and Shapal-HI-M ceramic holders and fixtures for scientific research projects at leading institutions such as the National University of Singapore and the University of Maryland, supporting demanding applications in vacuum, optical, and advanced research systems.
Leveraging our professional capabilities, we are able to provide high-quality solutions and support for the scientific field.
We provide ultra-precision machining for ceramic and glass components used in advanced scientific research, including ion traps, laser systems, and spectroscopy equipment. Our capabilities enable micro-scale features, tight tolerances, and ultra-smooth surfaces, ensuring high stability and repeatability in demanding experimental environments.
| Capability | MACOR | Alumina | SHAPAL Hi-M |
|---|---|---|---|
| Flatness | 0.002mm | 0.001mm | 0.001mm |
| Concentricity | 0.005mm | 0.005mm | 0.005mm |
| Cylindricity | 0.001mm | 0.001mm | 0.001mm |
| Parallelism | 0.001mm | 0.001mm | 0.001mm |
| Wall (Min) | 0.05 | 0.1 | 0.1 |
| Hole Ø (Min) | 0.05 | 0.1 | 0.1 |
| Slot (Min) | 0.2 | 0.2 | 0.2 |
| Thread (Min) | M1.2 | M1.6 | M1.2 |
| Polishing | Ra0.03 μm | Ra0.02 μm | Ra0.04 μm |
| Sandblasting | 3.0 | 3.0 | 3 |
| Capability | Zerodur | Optical Glass |
|---|---|---|
| Flatness | 1/20 λ | 0.001mm |
| Concentricity | 0.005mm | 0.005mm |
| Cylindricity | 0.001mm | 0.001mm |
| Parallelism | 0.001mm | 0.001mm |
| Min. Wall Thickness | 0.2 | 0.2 |
| Min. Hole Diameter | 0.1 | 0.1 |
| Min. Slot Width | 0.3 | 0.2 |
| Min. Internal Thread | M2.0 | M2.0 |
| Polishing | Ra0.005 μm | Ra0.002 μm |
| Sandblasting | 3 | 3 |
Disclaimer: The values presented are mean and typical of those resulted from test samples
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