Features of the FlowSyn Auto-LF continuous flow microreactor
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The FlowSyn Auto-LF continuous flow microreactor is used for automated experiment combination, leveraging the power of flow chemistry to deliver more compounds faster! FlowSyn Auto-LF is a powerful and efficient module that allows multiple experiments to be run using multiple reagent inputs under different conditions. Features of the FlowSyn Auto-LF continuous flow microreactor: Intelligent simultaneous cyclic charging and fraction collection save valuable time, while the integrated washing step prevents cross-contamination. Pressure and temperature are displayed interactively on the PC, enabling real-time reaction monitoring and data recording. Perform multiple experiments using multiple reagent inputs. A powerful, intuitive PC interface for real-time reaction monitoring and data recording. Effectively load and collect reactions at the same time. An integrated robust cleaning solution can reduce the risk of cross-contamination. Stacked compact XYZ samplers/fraction collectors can save valuable fume hood space. Choose from 2 or 4 channel system configurations. Continuous flow microreactor PTFE rapid mixing module: the microchannels are engraved into PTFE material, the inlet and outlet ports are made of PTFE tubes, the fixing fixtures are made of stainless steel; reagents come into contact only with the PTFE material, and there is no heat exchange jacket – it is used for the rapid mixing of small amounts of reaction materials. This device is a rapid mixer made of PTFE, a spectrally resistant material. It features a classic serpentine design with fast microchannels. It has a low liquid hold-up and no dead volume. Its compact size makes it ideal as an auxiliary device; it is inexpensive and can be combined flexibly with other equipment. In fact, carrying out continuous thermal hazard reactions or autocatalytic reactions can be regarded as a reaction volume; therefore, the potential risks are **reduced**. The process requires short-term exposure to high temperatures; meanwhile, the pressure benefits from this continuous reaction, whereas batch reactions make it difficult to achieve such an effect. Source: http://www.bj-sms.com/In terms of equipment, modules with longer retention times are necessary; conventional technologies such as static mixers and shell-and-tube heat exchangers are also required. The use of microreactors is based on the requirement for sudden heat generation (catalysis). Aromatic amines and divinyl compounds are in the same tubular reactor; in reality, acetylation takes place, and the measured heat density is obtained through computer simulations to be used in the functional reports regarding residence time and conversion. The half-life of the reaction is approximately 1.5 seconds; therefore, it mainly occurs under dynamic conditions (Type B reactions). The second-order reaction indicates that most of the heat density is distributed during the initial phase of the reaction. In this case, small conventional tubes (with a diameter of 3 mm) are unable to extract sufficient heat and temperature gradients between the fluid dynamics (Tr) and the heat transfer fluid.