Pharmaceutical Industry: Laboratory reactors are used to synthesize active pharmaceutical ingredients (APIs) and intermediates. Because of these systems, important conditions related to drug reactions can be carefully controlled, which is necessary when complying with regulatory guidelines. Many pharmaceutical companies use this equipment for lab research in the production of biopharmaceuticals.  

Materials Science: Reactors are used in this field to produce polymers, composites and various nanomaterials. It is created to explore exciting new mixtures, enhance performance and study how materials respond under changed conditions. They also support the development of lithium battery equipment through material testing.  

Nanotechnology: Hydrothermal and solvothermal reactors, including the Hydrothermal platform reaction kettle, are used to produce nanoparticles and advanced functional materials. Researchers can alter the size, shape, and features of the nanomaterials they produce, which are important for optical, electrical, or catalytic functions.  

Environmental Engineering: The photocatalytic system is used for treating contaminants present in water and air. Using UV or visible light, these systems activate photocatalysts, allowing researchers to study methods for cleaning the environment, developing green chemistry, and producing sustainable fuels. Photochemical reactions are studied to develop solutions for pollution control.  

Polymer Chemistry: Forming and inspecting high-viscosity polymers is aided by mechanical stirrers in a reactor. Their ability to maintain homogeneous mixing conditions makes them ideal for polymerization reactions and composite development, especially in experiments involving complex reaction mixtures.  

Magnetic Stirring Reactors   
Magnetic stirring reactors are designed for reactions involving low-viscosity solutions that require gentle, uniform mixing. These reactors use a magnetic stir bar placed inside the vessel, which is rotated by a magnetic field generated underneath. The setup minimizes mechanical intrusion, operates quietly, and is easy to clean. Magnetic stirring is ideal for standard solution-phase reactions, titrations, and applications where shear sensitivity is a concern.  

Mechanical Stirring Reactors   
Mechanical stirring reactors use an overhead stirrer powered by an electric motor to drive an impeller inside the reaction vessel. These systems are suitable for high-viscosity fluids, solid-liquid suspensions, and processes requiring stronger or variable agitation. Mechanical stirring ensures consistent mixing in more complex systems and allows better control over shear rate and turbulence, which is important in polymerization, crystallization, and multi-phase reactions.  

Hydrothermal Synthesis Reactors   
Hydrothermal synthesis reactors are engineered for reactions that require elevated temperatures and pressures, especially in aqueous environments. These reactors consist of a stainless-steel exterior and a Teflon-lined interior, offering excellent chemical resistance and the ability to withstand harsh thermal conditions. They are widely used for crystal growth, nanomaterial fabrication, and geochemical simulations, where conventional open-system reactions would be ineffective or unsafe.  

Photocatalytic reactors   
Designed to facilitate reactions initiated or accelerated by light exposure. These systems include light sources—typically UV or visible—and transparent or semi-transparent reaction vessels to maximize light penetration. They are essential for studies on photochemical reactions, environmental remediation, hydrogen production, and light-induced catalytic transformations. These reactors allow precise control over light intensity and wavelength, making them a valuable tool in photochemistry and photoelectrochemical applications.