Jacketed Glass Reactor LJGR-T2036

Introduction

Jacketed Glass Reactor features a 5 use. Its stirring motor provides uniform agitation, ensuring consistent mixing during experiments. The lifting system allows vertical adjustment of the assembly, offering easy access for setup and cleaning. Our reactor is suitable for chemical synthesis, bio-pharmaceutical development and research applications.

This laboratory glass reactor is designed to meet the rigorous requirements of modern laboratory operations, ensuring high precision, reliability, and ease of use for various experimental applications.

Applications

Jacketed Glass Reactor is used for chemical synthesis, distillation, and concentration processes across laboratory and pilot research environments. This supports controlled reaction conditions, making it suitable for applications in pharmaceuticals, chemical engineering, and academic research.

Specifications

Glass Vessel Volume	5 L Cylindrical
Glass Vessel Lid Diameter	Φ 205 mm
Jacketed Volume	800 ml
Dropping Funnel	50 ml
Lifting Distance	360 mm
Vessel Body Rotation	Hand wheel turns left 150 degrees
Temperature Range	-80℃ to 250℃
Temperature Measurement Accuracy	+/-1℃
Stirring Speed	0 to 450 rpm
Vacuum Degree	0.098 Mpa
Stirring Motor Power	90 W
Lifting Motor Power	20 W
Power Consumption	110 W
Power Supply	220V/50Hz
Condenser Dimension (D×H)	Φ60×600 mm
Dimensions (W×D×H)	500×620×2050 mm
Weight	100 kg

Features

Handwheel-assisted vessel rotation

Wide-lid material access

Stable condensation unit design 

Easy-pour cleaning angle 

Adjustable condenser height mechanism

FAQs

1. How does the Jacketed Glass Reactor support easy draining and transfer of materials after synthesis?

Jacketed Glass Reactor features a vessel body that can be rotated to the side after raising the top assembly, making it easier to pour out dense or sensitive mixtures without using external tools. This capability is especially useful for users dealing with sticky reactions or compounds that settle at the base. The rotation function eliminates the need to lift the entire vessel or rely on fragile outlets. It ensures that no material is left trapped at the bottom during transfer. With this tilting design, users can clean or drain the contents without dismantling the setup. It’s a major benefit in labs running repetitive synthesis or crystallization steps. Handling post-reaction materials becomes quicker and safer through this feature.

2. How is the Jacketed Glass Reactor optimized for labs that need to adjust setup heights regularly?

The Jacketed Glass Reactor is constructed with a movable upper frame that allows the stirring and condensation units to be lifted as one section. This design is ideal for labs where vessel access, cleaning, or material input changes frequently throughout the day. Instead of detaching individual glass components, the entire top section can be shifted vertically. The lifting mechanism reduces setup fatigue and avoids the risk of glass breakage. Researchers can adjust working height to accommodate different lab tasks without needing to disassemble connections. This system is particularly useful in facilities running alternating procedures with varied equipment clearance needs.

3. What features of the Jacketed Glass Reactor help prevent system leaks during reduced pressure experiments?

Jacketed Glass Reactor is equipped with a and fluororubber sealing system designed to maintain vacuum integrity across extended reaction durations. This sealing arrangement shields the vessel against leaks, even when dealing with solvent vapors or temperature fluctuations. By combining two robust sealing materials, the reactor ensures that critical vacuum conditions are maintained without requiring frequent adjustments. The system performs well in reactions requiring high-purity environments or volatile compounds. It also supports long experimental runs without sudden pressure loss. This allows for uninterrupted processes in research fields such as drug formulation and specialty material synthesis.

4. Why is the Jacketed Glass Reactor particularly suited to labs working with delicate thermal transitions?

Jacketed Glass Reactor uses borosilicate glass with strong resistance to sudden temperature changes, helping to prevent stress cracks during heating or cooling. Labs handling sensitive materials that require rapid cycling between hot and cold phases will benefit from this property. Its jacket allows thermal fluid to circulate evenly around the reaction chamber, minimizing internal shocks. This makes it reliable for operations like freeze–thaw processes or temperature-dependent crystallization. Whether ramping up heat or pulling temperatures down sharply, the reactor remains stable without structural compromise. Researchers can confidently switch between thermal stages without damaging the equipment.

5. What makes the Jacketed Glass Reactor practical for multi-stage synthesis workflows?

Jacketed Glass Reactor is designed with a fixed dropping funnel that allows gradual addition of reagents during active reactions. This setup reduces the need to open the vessel lid, which helps maintain reaction conditions and prevents contamination. Its position directly above the main vessel enables safe, measured dosing for multi-phase reactions. Researchers can carefully control timing and quantity of inputs without interrupting stirring or heat application. This is especially advantageous when handling exothermic stages that require slow reagent flow. It gives precise operational control during complex workflows involving reactive components or unstable intermediates.

6. How does the Jacketed Glass Reactor accommodate processes involving high-viscosity or layered substances?

The Jacketed Glass Reactor includes a stirring system capable of handling challenging materials such as slurries or thick-phase suspensions without localized settling. Its vertical motor mount delivers consistent torque that supports extended operation under strain. For labs developing emulsions, gels, or resin-based mixtures, this feature ensures uniformity throughout the batch. The reactor’s internal geometry complements its stirring function by promoting movement across the entire vessel, avoiding dead zones. This is critical when accurate mixing affects final product quality. Whether blending fine particles or layered compounds, the reactor keeps everything in motion throughout the process.