The Senlang Instrument UC35 Continuous Flow Nano Synthesis Reactor is a modern chemical equipment that allows reactants to flow in and out of the reactor in a continuous manner, thereby maintaining the continuity and stability of the reaction process. Avoiding the problems of large fluctuations in reactant concentration and uneven heat and mass transfer in traditional batch reactors, the core technology significantly improves reaction efficiency and selectivity. The continuous synthesis system adopts a modular microchannel reactor design, which can achieve large-scale preparation of nanomaterials under high temperature and high pressure (30-400 ° C, 10-100 bar) conditions.

The characteristics of continuous flow nano synthesis reactor include:

1. Precise nucleation control: By adjusting the precursor mixing rate and temperature gradient through microfluidic technology, the uniformity of nanoparticle size can be achieved.

2. Multi material compatibility: Supports continuous synthesis of metal oxides (such as titanium dioxide, zinc oxide), precious metal catalysts (platinum, palladium), and functionalized silica nanoparticles.

3. Process integration: Combining online monitoring and automation control systems.

Application fields of UC35 continuous flow nano synthesis reactor

1. Functionalized nano coating

Regarding the hydrophobic textile coating technology of silica nanoparticles. By integrating functionalized nanoparticles into water-based inks and utilizing digital printing technology to achieve hydrophobic modification of fabric surfaces, it is suitable for medical protection and outdoor equipment.

2. Synthesis of Metal Organic Frameworks (MOFs)

Breaking through the bottleneck of industrial production of MOFs, the synthetic material has a specific surface area of over 2000m2/g and is applied in the fields of carbon dioxide capture and hydrogen storage.

3. Development of catalytic materials

By regulating the morphology of nanoparticles (such as spherical and rod-shaped) and the distribution of surface active sites, the activity and stability of precious metal catalysts are optimized to serve the chemical and energy industries.

Main components and functions of UC35 continuous flow nano synthesis reactor

Continuous flow reactors are generally composed of feeding systems, reaction tubes, mixers, reactors, separators, and control systems. The components work together to ensure the continuity and efficiency of the reaction process.

Feeding system: responsible for continuously feeding reactants into the reaction tube at the set flow rate and ratio.

Reaction tube: As the main site for chemical reactions, the properties of reactants and the collection method of products need to be considered in the design.

Mixer: Used for uniformly mixing reactants to ensure sufficient contact.

Reactor: The core component that enables chemical reactions, and the design needs to consider reaction types, rates, and conditions.

Separators: Used for separating products and unreacted substances, the design needs to consider the properties of the products and separation efficiency.

Control system: Real time monitoring and adjustment of reaction conditions to ensure efficient and stable reactions.

Senlang Instrument Company was established in 2008, focusing on providing intelligent experimental equipment and overall solutions for fields such as catalytic science, chemical engineering, and materials. Its headquarters are Beijing Century Senlang Experimental Instrument Co., Ltd., Tianjin Intelligent Production Factory, and Hangzhou Technology Research and Development Company. The company takes "forging the mainstream influence of reactors and assisting the development of scientific research" as its core value, and has multiple independent intellectual property technologies. Its products cover catalytic reaction research, process analysis, laboratory automation and other fields. We have been deeply involved in the field of catalysis for many years, committed to using innovative technology and high-quality services to support scientific research and industrial progress.