High Pressure Stirred Lab Autoclaves

The design principle of magnetic stirring high-pressure vessel is based on magnetic coupling transmission technology. It rotates the stirrer inside the container (usually made of magnetic materials such as neodymium iron boron) under the action of a magnetic field by placing a magnetic field and a movable magnet outside the container. This design avoids the physical interference of the stirring shaft in traditional mechanical stirring devices on the reaction system, such as friction, wear, and leakage. At the same time, due to the absence of a stirring shaft penetrating the container, magnetic stirring high-pressure reactors are more likely to achieve high-pressure sealing, thereby ensuring the safety and stability of the reaction system.

It are widely used in reaction systems that require high sealing and no physical interference. For example, in high-pressure catalytic reactions, a magnetic stirring autoclave can provide a stable reaction environment and efficient stirring effect, thereby improving the activity and selectivity of the catalyst. In organic synthesis, It can be used to synthesize complex organic molecules such as polymer compounds and drug intermediates. In addition, it have broad application prospects in fields such as materials science and environmental engineering.

The design principle of a suspended stirred tank is based on the combination of suspension technology and stirring technology. It suspends the mixer inside the container through an adjustable suspension system (such as springs, air cushions, etc.) and allows it to move freely inside the container. This design allows the stirrer to adjust the stirring speed and method according to the reaction needs, achieving high-speed or low-speed stirring. At the same time, the suspended stirred tank also has good sealing performance and pressure bearing capacity, which can meet the needs of high-pressure reactions.

Suspended stirred tanks are suitable for reaction systems that require flexible adjustment of stirring speed and method. For example, in the mixing of viscous materials, a suspended stirred tank can adapt to materials of different viscosities by adjusting the stirring speed and method of the agitator, thereby achieving efficient mixing and dispersion. In solid-liquid reactions, suspended stirred tanks can effectively disperse solid particles in the liquid, improving reaction efficiency and product quality. In addition, suspended stirred tanks are widely used in various reactions that require mixing, dispersion, dissolution, and other processes in industries such as chemical, pharmaceutical, and food.

The design principle of the spiral stirring reactor is based on the special shape and stirring method of the spiral stirrer. Spiral agitators are usually made of metal materials and have a spiral shaped structure that can produce strong stirring effects when rotating. This design enables the spiral stirred reactor to have excellent performance in mixing viscous materials.

Spiral stirred reaction vessels are particularly suitable for mixing and dispersing viscous materials. For example, in the synthesis of polymer materials, it can effectively mix various raw materials evenly, improving the quality and performance of the products. In the production of coatings and inks, spiral stirred reactors can also achieve efficient mixing and dispersion, ensuring product stability and consistency. In addition, in industries such as chemical, pharmaceutical, and food, spiral stirred reactors are widely used for various reactions that require mixing, dispersion, and other processes.

The design principle of vortex stirring reaction kettle is based on the implementation of vortex effect. Vortex effect refers to the phenomenon of fluid forming a vortex like flow under the action of a stirrer. By using a specially designed stirrer, the product can generate strong vortex flow inside the container, thereby achieving efficient mixing and mass transfer. working principle

The product is suitable for reaction systems that require efficient mixing and mass transfer. For example, in the process of biological fermentation, it can effectively mix microorganisms and nutrients evenly, improving fermentation efficiency. In chemical synthesis, vortex stirred reactors can also achieve efficient mixing and mass transfer, promoting the progress of reactions. In addition, vortex stirred reactors have broad application prospects in fields such as environmental engineering and food processing.