Autoclave Reactors | Hydrothermal synthesis, material processing | Capacity: 0.1L (Base) to 0.5L (Advanced ▲) Chamber Material: PTFE (Base) / Platinum-Plated PPL (Advanced ▲) Manual Operation | Advanced version handles 500ml ▲ (2.5x capacity) for medium-scale labs. PTFE/PPL chambers resist aggressive chemicals (ASTM F739). | Manual operation limits scalability; not suited for industrial-scale production. |
Batch Reactors | Small-scale chemical synthesis, pharmaceuticals | Capacity: 1L–50L (stainless steel/glass) Batch processing (no automation) | Flexible for recipe adjustments; cost-effective for small batches. | Non-continuous operation increases downtime; lacks scalability for high throughput. |
Continuous Stirred-Tank Reactors (CSTR) | Industrial chemical production, steady-state processes | Capacity: 100L+ Continuous operation, automated mixing | High throughput and consistent output; scalable for large production runs. | Complex setup; requires skilled operators; less adaptable for small-batch testing. |
High-Pressure Autoclave Reactors | Industrial autoclaving, extreme chemical processing | Capacity: 1L+ Pressure: 300 bar (Advanced ▲) vs. industry standard 200 bar | Advanced model withstands 50% higher pressure ▲ (ISO 28599-compliant). | Expensive; bulky design; demands specialized training for operation. |
Glass-Lined Reactors | Corrosive chemical processing, visibility needed | Glass-lined interior (up to 200°C ▲ vs. industry standard 150°C) Manual controls | Resists corrosion in glass areas; visibility of reactions. | Fragile; limited pressure capacity (max 150 bar); glass may degrade over time. |
Stainless Steel Reactors | General chemical processing, durability needed | Stainless steel construction (up to 300°C) Manual or semi-automated | Durable and cost-effective; resists most chemicals. | Less corrosion-resistant than PTFE/PPL; heavier; unsuitable for extreme chemicals. |