Jacketed Glass Reactor LJGR-B22

Yes. Adding glass baffles inside the vessel in jacketed glass reactor LJGR-B21 significantly reduces vortex formation during stirring, improving mixing and heat transfer uniformity — especially in tall or larger reactors (>20?L). Baffles can also aid cleaning by enhancing solvent contact with interior surfaces.

Labtron supplies advanced models of jacketed glass reactor LJGR-B22.Prior to operation, visually inspect all glass components and ground-joint fittings for chips, microcracks, or crazing. Ensure all joints are properly greased or sealed, and device grounding is complete if using conductive or flammable solvents. Avoid thermal shock by ramping temperatures gradually (no more than 50?K difference), and always operate within manufacturer-specified pressure limits. Install relief valves or gas bubblers when inert gases are used.

Labtron supplies advanced models of jacketed glass reactor LJGR-B22.A quarterly inspection schedule is recommended, including checks of glass thickness, seal condition, and joint greasing. Clean the vessel immediately after use with non-abrasive solvents and rinse with ultrapure water. Consider full professional servicing annually or after prolonged usage periods exceeding one year to prevent leaks or mechanical wear. Adherence to detailed SOPs in cleaning, component replacement, and storage greatly extends reactor lifespan.

Labtron’s jacketed glass reactor LJGR-B22 consists of a borosilicate glass reaction vessel enclosed by a temperature-controlled jacket through which a thermal fluid (such as water, oil, or glycol) circulates. Temperature sensors monitor both the jacket and reactor contents in real time, feeding PID-based control systems that rapidly adjust flow and temperature to maintain uniform internal conditions. This setup ensures tight thermal stability, minimizes hot spots, and offers optical clarity for direct reaction monitoring—critical for reproducible, temperature-sensitive syntheses.

Double-jacketed reactors add an external vacuum-insulated chamber that envelops the inner temperature-control jacket. This design dramatically reduces heat exchange with the environment, lowering energy consumption and preserving temperature stability—especially beneficial in cryogenic operations (down to –80?°C) or high-temperature runs. The vacuum layer also helps prevent condensation or ice build-up on the outer glass surface during prolonged low-temperature use.