Control the Key Variables That Influence Photoredox Catalysis
Wavelength Selection
Optimize reactions across multiple excitation conditions
Light Intensity Control
Maintain consistent irradiation conditions
Fixed Reactor Geometry
Improve experiment-to-experiment reproducibility
Temperature Monitoring
Enable precise thermal control
Variable Stirring
Support consistent mixing and reaction performance
Programmable Timing
Streamline experimental workflows
TECHNICAL SPECIFICATION
DESCRIPTION
Model and System Type
Photoreactor m2 benchtop photoreactor system for controlled photoredox catalysis and photocatalysis workflows
Input Power and Electrical Requirements
100–240 V AC, 50/60 Hz for standard laboratory environments
LED Light Source and Wavelength Range
Modular LED system with selectable wavelengths: 365 nm, 395 nm, 420 nm, and 450 nm for reaction-specific excitation
Light Intensity and Photon Flux Control
Adjustable light intensity for controlled irradiation and consistent photon exposure across experiments
Reactor Geometry and Irradiation Chamber Design
Fixed geometry with 360° reflective chamber for uniform light distribution and consistent sample positioning
Temperature Monitoring and Thermal Feedback
Integrated K-type thermocouple for real-time monitoring of reaction temperature
Stirring Speed and Mixing Control
Variable stirring from 100–2000 RPM for controlled mixing and mass transfer
Reaction Time and Programmable Controls
Digital control with programmable run time, auto stop, pause, and reset functions
User Interface and Display
3.5" TFT LCD touchscreen (320 × 480 resolution) for centralized control of reaction parameters
Vial Compatibility and Parallel Reaction Capability
Supports GC, 4 mL, 8 mL, 20 mL, and 40 mL vials for running parallel experiments under identical conditions
Safety Features and Enclosure Design
Enclosed light shield with interlock system for safe operation during photochemical irradiation
Certifications and Laboratory Compliance
ETL, CE, and CB certified for use in laboratory and research environments
Photoreactor m2 FAQs
How does the Photoreactor m2 improve reproducibility?
How does the Photoreactor m2 improve reproducibility?
The Photoreactor m2 improves reproducibility by controlling key reaction variables, including wavelength, light intensity, stirring, temperature monitoring, timing, and vial positioning within a fixed reactor geometry.
What wavelengths are available for the Photoreactor m2?
What wavelengths are available for the Photoreactor m2?
The Photoreactor m2 supports modular LED wavelength options, including 365, 395, 420, and 450 nm.
Can the Photoreactor m2 run multiple samples at once?
Can the Photoreactor m2 run multiple samples at once?
Yes. The system supports multiple vial formats, including GC, 4 mL, 8 mL, 20 mL, and 40 mL vials, allowing researchers to run parallel reactions under controlled conditions.
What parameters can be controlled on the Photoreactor m2?
What parameters can be controlled on the Photoreactor m2?
Researchers can control or monitor wavelength, light intensity, reaction time, stirring speed, temperature feedback, and sample positioning.
Is the Photoreactor m2 safe for lab use?
Is the Photoreactor m2 safe for lab use?
The Photoreactor m2 includes an enclosed light shield with an interlock and is listed with ETL, CE, and CB certifications.