Simulate high-temperature conditions with precision and reliability — Designed for industrial and laboratory processes including drying, curing, heat treatment, sterilization, and accelerated aging.
Hot Chambers, also known as High-Temperature Ovens, are precision-engineered environmental testing devices designed to simulate elevated temperature conditions for industrial and laboratory applications. They are used to apply controlled, uniform heat to products, materials, and components for processes such as drying, curing, heat treatment, sterilization, accelerated aging, baking, and sintering — ensuring products meet quality and reliability standards before deployment.
| Equipment Model | Inner Size W×D×H (mm) | Testing Volume | Temp Range | Heating Rate | Temp Uniformity | Construction |
|---|---|---|---|---|---|---|
| HC-100 | 400×500×500 | 100L | Ambient to +300°C | 5–10°C/Min | ±0.5–±1.0°C | Stainless Steel |
| HC-160 | 400×500×800 | 160L | Ambient to +300°C | 5–10°C/Min | ±0.5–±1.0°C | Stainless Steel |
| HC-240 | 500×600×800 | 240L | Ambient to +300°C | 3–8°C/Min | ±0.5–±1.0°C | Stainless Steel |
| HC-360 | 700×700×750 | 360L | Ambient to +300°C | 3–7°C/Min | ±0.5–±1.0°C | Stainless Steel |
| HC-420 | 750×750×750 | 420L | Ambient to +300°C | 3–6°C/Min | ±0.5–±1.0°C | Stainless Steel |
| HC-560 | 750×750×1000 | 560L | Ambient to +300°C | 3–5°C/Min | ±0.5–±1.0°C | Stainless Steel |
| HC-1000 | 1000×1000×1000 | 1000L | Ambient to +300°C | 1–3°C/Min | ±0.5–±1.0°C | Stainless Steel |
| HC-2250 | 1000×1500×1500 | 2250L | Ambient to +300°C | 1–3°C/Min | ±0.5–±1.0°C | Stainless Steel |
| HC-16000 | 4000×2000×2000 | 16000L | Ambient to +300°C | 1°C/Min | ±0.5–±1.0°C | Stainless Steel |
Custom chambers manufactured according to customer requirements including temperature ramp rates and size. Power supply: 415 VAC ±5%, 3-Phase, 50 Hz, 4-wire + Earth. HC-16000 is a walk-in configuration.
Removal of moisture and solvent from coatings, adhesives, composites, and raw materials. Used extensively in paint curing, polymer processing, and composite manufacturing to achieve the required material properties.
Annealing, hardening, tempering, and stress-relieving of metals, alloys, and engineered materials. Hot chambers provide the controlled thermal environment essential for achieving desired mechanical properties.
Dry-heat sterilization of laboratory glassware, medical instruments, and pharmaceutical containers. Ensures complete elimination of microorganisms without the use of moisture or chemicals.
Accelerated thermal aging and reliability testing of electronic components, PCBs, plastics, rubbers, and insulation materials. Validates product lifespan and performance under sustained high-temperature conditions per IEC, ASTM, and MIL-STD standards.
High-temperature baking of ceramic coatings, powder coatings, and electronic assemblies. Sintering of metal powders and ceramic components to achieve the desired density, strength, and microstructure.
Controlled evaporation of solvents, moisture, and volatile substances from samples and materials. Widely used in chemical analysis, food processing, and material preparation processes requiring precise thermal management.