The 10-station Photochemical Reactor launched by 3S Tech is a highly efficient and versatile device specifically designed for photochemical experiments. It is suitable for small-scale synthesis, catalytic research, or material modification in scientific research institutions, university laboratories, and chemical enterprises. Below is an analysis of the core features and advantages of this equipment:

I. Core Functions and Design Highlights
Multi-station Parallel Processing

• The 10 independent stations can operate simultaneously under different reaction conditions (such as light intensity, wavelength, temperature, etc.), significantly enhancing experimental efficiency, especially for high-throughput screening or comparative experiments.

• Each station is equipped with an independent control module to prevent cross-interference and ensure data accuracy.
  Precise Light Source Control

• The LED light sources cover a wavelength range from ultraviolet to visible light (e.g., 250 nm, 365 nm, 950 nm, etc.), meeting diverse reaction requirements.

• The light intensity is adjustable, and some models support pulsed illumination to simulate natural light conditions or specific reaction kinetics.
  Temperature and Atmosphere Control

• An integrated temperature control system (e.g., circulating water bath or semiconductor refrigeration) enables precise control of reaction temperatures (-20°C to 150°C), accommodating reactions such as low-temperature polymerization or high-temperature decomposition.
  Modular Design

• Components such as stations, light sources, and reaction vessels can be quickly replaced to accommodate reactors of different volumes (e.g., test tubes, flasks, microreactors) or materials (e.g., quartz, glass).

II. Applications
Organic Synthesis

• Photocatalytic C-H bond activation, alkene cyclization, free radical polymerization, and other reactions.
  Materials Science

• Preparation of photoresponsive materials (e.g., photochromic molecules, fluorescent probes), photodeposition of nanoparticles.
  Environmental Chemistry

• Simulation of sunlight-induced degradation of pollutants (e.g., dyes, pesticides, pharmaceutical residues).