Flow Metal Microreactor
Industrial-scale stainless steel flow reactor designed for high-pressure and high-temperature continuous chemistry applications in process development and manufacturing.
Louise Corscadden, PhD
Director of Science · ConductScience
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Key Specifications
Full details →- Model fit
- Configured during quote
- SKU family
- WHM-0063
- Sizing
- 500.0 x 400.0 x 300.0 cm
- Ordering
- Online checkout and quote request available
- Category
- Lab Equipment
- Build notes
- Stainless Steel
The Flow Metal Microreactor is an industrial-scale continuous flow reactor fabricated from stainless steel for applications requiring high-pressure and high-temperature reaction conditions. At 500×400×300mm dimensions with 30kg weight, this system provides a robust platform for process chemistry applications where traditional batch reactors may be inadequate due to heat transfer limitations or pressure constraints.
The stainless steel construction enables operation under demanding conditions while providing chemical compatibility with a broad range of reagents and solvents. The industrial scale design supports process development and small-scale production workflows where continuous flow chemistry offers advantages in reaction control, heat management, and product consistency compared to conventional batch methods.
How It Works
Flow microreactors operate on the principle of continuous reagent mixing and reaction in confined channels, providing superior heat and mass transfer compared to batch systems. Reactants are introduced as separate streams and mixed at the reactor inlet, with residence time controlled by flow rate and reactor volume. The high surface-area-to-volume ratio characteristic of microreactor design enables rapid heat transfer and precise temperature control.
The stainless steel construction provides thermal conductivity for temperature management while offering chemical resistance to corrosive reagents. High-pressure operation capability allows reactions under conditions where reagent volatility or reaction thermodynamics require elevated pressures for optimal conversion or selectivity.
Features & Benefits
Scale
- Industrial
Automation Level
- manual
Brand
- ConductScience
Material
- Stainless Steel
Research Domain
- Analytical Chemistry
- Environmental Monitoring
- Industrial Hygiene
- Materials Science
- Pharmaceutical QC
Weight
- 30.0 kg
Dimensions
- L: 500.0 mm
- W: 400.0 mm
- H: 300.0 mm
| Feature | This Product | Typical Alternative | Advantage |
|---|---|---|---|
| Construction Material | Stainless steel construction | Glass or polymer materials in smaller systems | Enables higher pressure and temperature operation with broader chemical compatibility |
| Scale | Industrial scale (500×400×300mm) | Laboratory-scale systems typically much smaller | Supports process development and small production applications requiring higher throughput |
| Operating Conditions | High-pressure and high-temperature capability | Lower pressure/temperature limits in glass systems | Accommodates demanding reaction conditions not accessible with fragile materials |
| Weight and Construction | 30kg robust construction | Lightweight benchtop units | Provides stability and durability for continuous industrial operation |
This industrial-scale stainless steel reactor offers robust construction for high-pressure, high-temperature applications where smaller glass or polymer systems would be inadequate. The substantial size and weight indicate design for process development and small-scale production rather than analytical-scale chemistry.
Practical Tips
Begin new chemistry with ambient conditions and gradually increase pressure and temperature while monitoring for unexpected reactions.
Why: Prevents equipment damage and safety hazards from runaway reactions under extreme conditions.
Flush reactor with compatible solvent between different chemistries to prevent cross-contamination.
Why: Residual reactants can interfere with subsequent reactions or create unwanted side products.
Install pressure monitoring and automatic shutdown systems before operating at maximum rated conditions.
Why: High-pressure failures can cause serious injury and equipment damage if not properly controlled.
Verify residence time distribution using tracer studies before processing valuable materials.
Why: Ensures actual flow patterns match theoretical predictions for consistent reaction outcomes.
Monitor temperature at multiple reactor locations to verify uniform heating and identify hot spots.
Why: Temperature gradients can cause side reactions or incomplete conversion affecting product quality.
Check for flow instabilities or plugging if product quality becomes inconsistent during operation.
Why: Flow disruptions change residence time and mixing, directly affecting reaction performance.
Setup Guide
What’s in the Box
- Flow Metal Microreactor unit
- Installation manual (typical)
- Pressure rating documentation (typical)
- Hardware for mounting connections (typical)
Warranty
ConductScience provides standard manufacturer warranty coverage with technical support for proper installation and operation guidance.
Compliance
References
Background reading relevant to this product:
What pressure and temperature ratings should I expect for this reactor?
Consult product datasheet for specific pressure and temperature limits, as these depend on the exact stainless steel grade and construction details.
How do I determine appropriate flow rates for my chemistry?
Flow rates depend on desired residence time and reactor internal volume. Start with literature values for similar reactions and adjust based on conversion monitoring.
What fittings are compatible with the inlet and outlet connections?
Connection specifications should be verified from technical drawings to ensure proper pressure rating and chemical compatibility.
Can this reactor handle corrosive organic solvents?
Stainless steel provides good compatibility with most organic solvents, but verify specific chemical compatibility based on your reagents and operating conditions.
How do I scale reactions from laboratory microreactors to this system?
Maintain similar residence time and temperature while accounting for different mixing characteristics and heat transfer rates in the larger system.
What safety considerations apply to high-pressure flow chemistry?
Implement pressure relief systems, leak detection, and appropriate personal protective equipment according to your institution's high-pressure work protocols.
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