Reliable Four Channel Online Process Raman Laser Spectrometer 1064nm

Chemical/pharmaceutical/materials process development and production requires quantitative analysis of components. Usually, offline laboratory analysis techniques are used, where samples are taken to the laboratory, and instruments such as chromatography, mass spectrometry, and nuclear magnetic resonance spectroscopy are used to give information on the content of each component. The long detection time and low sampling frequency cannot meet many real-time monitoring needs.

JINSP provides online monitoring solutions for chemical, pharmaceutical, and material process research and production. It enables in-situ, real-time, continuous, and rapid online monitoring of the content of each component in reactions.

JINSP RS2100-4 is designed with a 4-channel optical probe for switching online analysis in multiple reaction systems, achieving simultaneous process control for multiple systems.

Example: Chemical Reactions/Biological Processes Requiring Timely Intervention upon Abnormal Reactions or Reaction Endpoints

In processes like bio-fermentation and enzyme-catalyzed reactions, the activity of cells and enzymes can be significantly affected by related components in the system. Therefore, real-time monitoring of these components' levels and timely intervention are crucial for maintaining efficient reactions. Online monitoring provides immediate component information, whereas offline detection, with its delayed results and limited sampling frequency, can miss the intervention window, leading to reaction anomalies.

Typical users: Research and production personnel in bio-fermentation companies, pharmaceutical/chemical companies involved in enzyme-catalyzed reactions, and companies synthesizing peptide and protein drugs

RS2100-4 has three usage modes in the laboratory, and each mode requires different accessories.

1. The first mode uses an immersed long probe that goes deep down to the liquid level of the reaction system to monitor each reaction component. Depending on the reaction vessel, reaction conditions, and system, different specifications of probes are configured.
2. The second mode involves using a flow cell to connect a bypass probe for online monitoring, which is suitable for reactors like microchannel reactors. Various probes are configured based on the specific reaction vessel and conditions.
3. The third mode utilizes an optical probe directly aligned with the side window of the reaction vessel for reaction monitoring.