Parallel light reactorAs the core equipment for photochemical research, it achieves synchronous development of multiple photochemical reactions through multi-channel parallel reaction design and precise light control system. It is widely used in organic synthesis, material preparation, environmental governance and other fields, and is a key equipment to improve the efficiency of photochemical experiments and accelerate the scientific research process. ​

Multi channel parallel response capability is its core advantage. The equipment is usually equipped with 4-16 independent reaction channels, each of which can accommodate reaction vessels of the same or different specifications, supporting multiple experiments to be conducted simultaneously. In organic light synthesis research, researchers can simultaneously test the effects of different catalysts, light source wavelengths, and reaction temperatures on reaction yields using a parallel light reactor. Variable screening experiments that originally took several days to complete can be shortened to several hours, greatly improving research and development efficiency; In the field of materials science, synchronously preparing photoresponsive materials with different parameters can quickly compare the optical properties and structural differences of materials, providing data support for optimizing preparation processes. ​

Accurate light control and environmental regulation ensure the reliability of experiments. The equipment adopts a combination of multiple light sources such as xenon lamps, mercury lamps, and LEDs, and can accurately control the output wavelength (200-800nm) through filters to meet the light source requirements of different photochemical reactions; Each channel is equipped with an independent temperature control module, which controls the reaction temperature within ± 0.5 ℃ to avoid temperature fluctuations affecting reaction repeatability. In the study of photocatalytic degradation of pollutants, parallel light reactors can accurately control the light intensity and reaction temperature, synchronously test the degradation efficiency under different pollutant concentrations, and provide accurate data for the development of environmental governance technologies. ​

Intelligent operation and flexible adaptability enhance practicality. The touch control panel allows for one click setting of parameters such as lighting time, intensity, and temperature, and supports program storage and retrieval; The reaction vessel is compatible with various specifications such as test tubes, flasks, and microcentrifuge tubes to meet the needs of different reaction systems. Some models are equipped with online sampling devices, which can collect samples for analysis without interrupting the reaction and track the reaction process in real time. The application of parallel light reactors has changed the traditional inefficient mode of "single group independent" photochemical experiments, and promoted the development of photochemical research towards high-throughput and precision. ​