Frequently Asked Questions

Our high pressure reactors are designed for pressures up to 350 bar and temperatures up to 500°C, depending on the model and material selection. Custom options are available for higher specifications.

We offer reactors in SS316, Hastelloy C276, Inconel 625, Titanium, and glass/quartz. Material selection depends on your chemical compatibility requirements and operating conditions.

Yes, we offer customisation of volume, stirring mechanisms, heating/cooling systems, and control panels. Our engineering team can design a reactor to meet your specific requirements.

Our mass flow controllers offer accuracy of ±1% of reading (20–100% of full scale) and repeatability of ±0.5%. Higher accuracy models are available for critical applications.

Our MFCs are compatible with most non‑corrosive gases including air, N₂, O₂, Ar, CO₂, and many others. For corrosive gases, we offer special materials and seals.

We offer MFCs with analog (0‑5V, 4‑20mA), RS485 Modbus, ProfiNet, DeviceNet, and EtherNet/IP. We can also customise for specific protocols.

Chamber furnaces have a rectangular chamber for general heat treatment. Tube furnaces have a cylindrical tube for controlled atmosphere/vacuum experiments, ideal for materials research.

Choose 1200°C for general applications, 1400°C for advanced ceramics, and 1700°C for ultra‑high‑temperature materials. Consider a 100°C safety margin below the maximum rating.

We offer HRE wire (up to 1200°C), SiC rods (up to 1400°C), and MoSi₂ rods (up to 1700°C). The choice depends on your temperature requirements and atmosphere.

We offer Class N (gravity displacement) for simple instruments, Class B (vacuum) for packaged and hollow items, and Class S for specialised applications.

Validation includes temperature mapping, biological indicators (spore tests), and chemical indicators. We provide validation services and can help you set up a proper cycle.

ELISA uses colorimetric detection with enzymes, while chemiluminescence uses light‑emitting reactions for higher sensitivity. Chemiluminescence is often preferred for low‑abundance targets.