Microwave Chemical Reactor LE-MR101

Lab Expo Microwave Chemical Reactor LE-MR101 ensures precise reaction control with adaptive PID technology. It is designed for rapid heating and quick responsiveness during chemical processes. Integrated adjustable microwave power enables flexibility across various applications. Built-in LCD display provides clear visualization of operating parameters and status. Our Microwave Chemical Reactor is ideal for organic synthesis, material science, and pharmaceutical research.

$2,645.00 $ 2204

Microwave Chemical Reactor LE-MR101 - Specifications

Frequency 2450±50 MHz
Maximum Input Current 7.8 A
Rated Maximum Output Power 750 W
Rated Power Consumption 1100 W
Power Supply 220 V
Chamber Dimension 330 × 365 × 235 mm
Packing Dimension 480 × 540 × 540 mm
Gross Weight 20 kg

Microwave Chemical Reactor LE-MR101 - Key Features

  • Microprocessor-based PID control with 0.1C resolution
  • 2450MHz microwave frequency with ±50MHz tolerance
  • 750W rated maximum output power for consistent heating
  • 1100W power consumption at 220V supply voltage

Microwave Chemical Reactor LE-MR101 - Applications

FunctionImplementation
Chemical synthesis labs750 W enables rapid heating for organic reactions
Material science testing2450±50 MHz frequency supports precise material processing
Pharmaceutical researchAdjustable power control facilitates flexible reaction optimization
Quality control environmentsPID technology maintains consistent thermal conditions during analysis
Industrial process development1100 W input allows sustained operation in continuous workflows

Microwave Chemical Reactor LE-MR101 - Catalog


Microwave Chemical Reactor LE-MR101

Microwave Chemical Reactor LE-MR101

Related Microwave Chemical Reactor

Lab Expo Microwave Chemical Reactors are structured around uniform microwave energy coupling to drive controlled reaction acceleration. This microwave reactor integrates precise temperature and pressure regulation with adjustable power output for fine reaction tuning. Real-time monitoring, reinforced pressure containment, and integrated safety interlocks support reproducible synthesis, improved yield control, and efficient operation in chemical, pharmaceutical, and materials research workflows.