ACHIEVE CHEM -5l Glass Reactor

The 5L glass reactor, as its name suggests, is a vessel with a capacity of 5 liters, constructed primarily from high-quality borosilicate glass. Borosilicate glass is renowned for its exceptional resistance to thermal shock, chemical corrosion, and mechanical stress, making it the ideal material for reactors that are subjected to extreme temperatures and pressures during chemical reactions. The 5L capacity offers a balance between scalability and efficiency, making it suitable for a wide range of laboratory experiments.

 

The 5L glass reactor is typically designed with a cylindrical body, equipped with various ports and fittings to facilitate the addition of reactants, withdrawal of samples, and the application of heat or cooling. The reactor is often mounted on a sturdy stand, which can be adjusted to ensure that the reactor is level and stable during operation.

 

The functionality of the 5L glass reactor extends beyond its basic construction. Its design enables it to perform a wide range of experimental procedures, including but not limited to:

● Synthesis Reactions: The reactor is well-suited for performing various types of chemical syntheses, from simple organic reactions to complex multi-step processes. Its ability to precisely control temperature and agitation conditions makes it an ideal choice for synthesizing high-purity compounds.

● Catalytic Reactions: With the addition of appropriate catalysts and gas inlet/outlet ports, the 5L glass reactor can be used to carry out catalytic reactions, such as those involving gas-solid or gas-liquid systems.

● Crystallization and Precipitation: By adjusting the reaction conditions, the reactor can be used to promote crystallization or precipitation of desired products, allowing for the isolation and purification of target compounds.

● Biochemical Reactions: With proper sterilization and handling protocols, the reactor can also be employed in biochemical applications, such as enzyme-catalyzed reactions or microbial fermentation processes.

 

● Excellent Visibility: The transparent nature of borosilicate glass allows for easy monitoring of the reaction mixture, enabling researchers to observe color changes, gas evolution, and precipitation in real-time.

● Versatility: The 5L capacity makes the reactor suitable for a wide range of reactions, from small-scale synthesis to pilot-scale production. Its modular design also allows for easy customization and the addition of various accessories to suit specific experimental needs.

● Temperature Control: The precision temperature controller ensures that the reaction mixture is maintained at the optimal temperature for the desired reaction, enhancing reaction efficiency and reproducibility.

● Safe Operation: The pressure relief system and other safety features minimize the risk of accidents and protect researchers from exposure to harmful chemicals.

● Ease of Cleaning and Maintenance: Borosilicate glass is easy to clean and can withstand repeated cycles of sterilization, making the reactor suitable for use in sterile environments.

 

● Material and durability

1) Brittle: Glass as a brittle material, compared to metal or plastic materials, its impact resistance is weak. Therefore, in the process of transportation, installation or use, if subjected to improper external force, it is easy to break or damage.

2) High repair and replacement costs: Once a glass reactor breaks, it usually needs to be replaced as a whole, and due to the high cost of glass processing and customization, the cost of repair or replacement is relatively high.

● Restrictions on use

1) Temperature limitation: Although high-quality materials such as high borosilicate glass can withstand higher temperatures, the use temperature of glass reactors is still limited. Under high temperature or extreme temperature conditions, glass may crack due to uneven thermal stress.

2) Chemical compatibility: Although the glass has good stability for many chemical substances, there are still some strong acids, alkali or corrosive substances that may have an erosion effect on the glass, thus affecting the service life of the reactor and the reaction effect.

● Operation and maintenance

1) Operation complexity: Compared to some of the more automated reaction equipment, the operation of glass reactors can be more complex and cumbersome. Operators need to have a certain level of expertise and experience to ensure the smooth operation of the reaction process and the safe use of the reactor.

2) Cleaning and maintenance: The cleaning and maintenance of glass reactors also require special attention. Because the surface of the glass is smooth but easy to remain stains, it is necessary to use appropriate cleaning methods and tools to clean it to avoid damage to the reactor or affect the reaction effect.