Glass Static Micromixer Platform (Lab-504)
Modular glass platform for continuous-flow synthesis and mixing applications with integrated static mixer, reactor, and heat-exchanger components.
| Scale | Lab-scale |
| Components | Static mixer, reactor, heat-exchanger (modular) |
| Automation Level | manual |
| Brand | ConductScience |
| Material | glass |
The Glass Static Micromixer Platform (Lab-504) is a modular continuous-flow synthesis system designed for laboratory-scale chemical processing applications. The platform integrates static mixing elements with reactor and heat-exchanger components in a glass construction suitable for corrosive chemical environments and high-visibility process monitoring.
This lab-scale platform enables researchers to perform continuous-flow reactions with enhanced mixing efficiency compared to batch processing methods. The modular design allows configuration flexibility for different synthesis protocols, while the glass construction provides chemical compatibility and visual process control for optimization studies.
How It Works
The static micromixer platform operates on the principle of passive mixing through geometric flow disruption. As fluids pass through the static mixing elements, the internal geometry creates radial mixing and flow splitting that enhances mass and heat transfer without moving parts. The helical or baffle-type mixing elements generate secondary flows that fold and stretch fluid streams, achieving homogeneous mixing through advective transport mechanisms.
The modular reactor section provides controlled residence time for chemical reactions, while the integrated heat-exchanger component enables precise temperature control through external heating or cooling media. The glass construction allows visual monitoring of flow patterns, mixing quality, and reaction progress, enabling real-time optimization of process parameters.
Temperature gradients and flow rates can be adjusted to optimize reaction kinetics and selectivity. The continuous-flow design provides steady-state conditions that improve reproducibility compared to batch processing methods.
Features & Benefits
Scale
- Lab-scale
Components
- Static mixer, reactor, heat-exchanger (modular)
Automation Level
- manual
Brand
- ConductScience
Material
- glass
Research Domain
- Analytical Chemistry
- Environmental Monitoring
- Food Science
- Materials Science
- Pharmaceutical QC
Weight
- 8.0 kg
Dimensions
- L: 300.0 mm
- W: 200.0 mm
- H: 150.0 mm
Comparison Guide
| Feature | This Product | Typical Alternative | Advantage |
|---|---|---|---|
| Construction Material | Borosilicate glass construction | Many entry-level systems use polymer or stainless steel construction | Glass provides superior chemical compatibility and allows visual monitoring of flow patterns and reaction progress |
| Modular Design | Integrated static mixer, reactor, and heat-exchanger modules | Basic systems often provide single-function components | Modular integration reduces connection points and potential leak sources while enabling flexible configuration |
| Mixing Technology | Static mixing elements with no moving parts | Some systems use magnetic stirring or active mixing | Static mixing eliminates mechanical components that require maintenance and can introduce contamination |
| Scale | Lab-scale platform (300 x 200 x 150 mm) | Microfluidic systems are often much smaller | Lab-scale dimensions provide sufficient throughput for process development while maintaining bench-top compatibility |
| Temperature Control | Integrated heat-exchanger component | External heating/cooling systems are often separate components | Integrated design provides more uniform temperature distribution and reduces system complexity |
The Glass Static Micromixer Platform combines glass construction for chemical compatibility with modular design flexibility and integrated temperature control. The static mixing approach eliminates moving parts while the lab-scale dimensions provide practical throughput for process development applications.
Practical Tips
Verify flow distribution by introducing colored dye tracers at startup to confirm uniform mixing patterns through visual inspection.
Why: Ensures proper flow alignment and mixing element performance before introducing valuable reagents.
Clean the system immediately after use with appropriate solvents to prevent buildup of reaction products or precipitates.
Why: Glass surfaces can be permanently stained or etched by certain chemicals if allowed to remain in contact for extended periods.
Record flow rates, temperatures, and residence times for each experiment to ensure reproducible conditions in future runs.
Why: Continuous-flow processes are highly dependent on precise operating parameters for consistent results.
If mixing quality appears poor, check for air bubbles in the system and verify that all connections are properly sealed.
Why: Air entrainment disrupts flow patterns and reduces mixing efficiency in static mixing systems.
Always wear appropriate PPE and ensure adequate ventilation when working with volatile solvents in the glass system.
Why: Glass construction does not contain vapors, requiring proper environmental controls for hazardous chemicals.
Allow the system to reach steady-state conditions before collecting samples for analysis, typically 3-5 residence times.
Why: Transient startup conditions can affect reaction conversion and product distribution in continuous-flow systems.
Use pulse tracer studies to verify actual residence time distribution matches theoretical calculations based on flow rates.
Why: Real flow patterns may differ from ideal plug flow due to mixing elements and system geometry.
Setup Guide
What’s in the Box
- Glass static micromixer platform main assembly
- Reactor module component
- Heat-exchanger module component
- Glass connection joints and sealing components
- Inlet and outlet port fittings
- User manual and setup instructions
- Component specification sheet
Warranty
ConductScience provides a 1-year manufacturer warranty covering defects in materials and workmanship, with technical support available for setup and operational guidance.
Compliance
What types of chemical reactions are suitable for this platform?
The glass construction makes it suitable for most organic synthesis reactions, acid-base reactions, and precipitation processes. Avoid highly basic solutions that may etch glass over extended periods.
How do I determine optimal flow rates for my application?
Start with manufacturer recommendations based on desired residence time, then adjust based on mixing quality observation through the glass walls. Document flow rates that produce optimal mixing patterns.
What maintenance is required for the static mixing elements?
Regular cleaning with appropriate solvents is the primary maintenance requirement. The glass construction allows visual inspection for fouling or deposits that may affect mixing efficiency.
Can the platform handle two-phase liquid-liquid systems?
Yes, the static mixing elements are effective for liquid-liquid mixing applications. The glass construction allows visual monitoring of phase behavior and droplet size distribution.
What temperature range can the heat-exchanger component handle?
Temperature range depends on the external circulation system connected to the heat-exchanger. Consult product datasheet for specific temperature limitations of the glass components.
How does this compare to batch reactor systems?
Continuous-flow operation provides better temperature control, shorter reaction times, and improved reproducibility compared to batch systems. However, it requires steady-state operation and continuous material supply.
What pump types are recommended for this system?
Peristaltic or syringe pumps provide precise flow control suitable for microreactor applications. Choose pumps with chemical compatibility for your specific reagents.
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