Jacketed Glass Reactor LJGR-T2044

Introduction

Jacketed Glass Reactor features a 50 jacket design. It includes a dropping funnel for controlled reagent addition, reducing risks during sensitive processes. The wide temperature range supports both cryogenic and elevated heat reactions. Our reactor suits material synthesis, distillation, and concentration in research, chemical engineering.

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 conducting controlled chemical reactions, thermal treatments, and solution processing in laboratory environments. This reactor supports synthesis, distillation, and concentration by enabling temperature control and safe material handling.

Specifications

Glass Vessel Volume	50 L Cylindrical
Glass Vessel Lid Diameter	Φ 265 mm
Jacketed Volume	16000 ml
Dropping Funnel	2000 ml
Lifting Distance	740 mm
Vessel Body Rotation	Hand wheel turns left 150 degrees
Temperature Range	-80℃ to 250℃
Temperature Measurement Accuracy	+/-1℃
Stirring Speed	0 to 1400 rpm
Vacuum Degree	0.098 Mpa
Stirring Motor Power	120 W
Lifting Motor Power	40 W
Power Consumption	160 W
Power Supply	220V/50Hz
Condenser Dimension (D×H)	Φ120×600 mm
Dimensions (W×D×H)	750×950×2950 mm
Weight	148 kg

Features

Customizable accessory connection points

Structural frame resistant to corrosion

Variable speed stirring control

Strengthened base for glass vessel

Safety-enhanced pressure venting

FAQs

1. How does the vessel rotation of Jacketed Glass Reactor improve operation after processing?

Jacketed Glass Reactor includes a vessel body that rotates to the left, making it easier to discharge materials directly into collection containers without heavy lifting. This movement simplifies post-process cleaning by giving better access to the interior, especially after working with sticky or viscous substances. The feature minimizes residue buildup and saves time during batch transitions. It’s particularly helpful in avoiding the need for disassembly between experiments. With fewer tools required, operators can handle the system independently. The combination of tilting and vertical lift enhances operational fluidity. It also supports safer disposal of hot or reactive contents. Overall, this adds flexibility to both routine and complex lab work.

2. Can Jacketed Glass Reactor be adapted for different accessory setups?

Jacketed Glass Reactor supports flexible laboratory configurations by offering multiple joint ports and a modular lid arrangement. These access points are suitable for connecting condensers, sensors, feeding tubes, or vacuum gauges as required by your process. Each port is lined with durable sealing to maintain internal conditions even when accessories are swapped. This modular layout is helpful for labs handling diverse protocols across departments. Researchers can update or rearrange their setup without changing the vessel structure. The system is built to allow easy expansion in advanced applications. Its adaptability reduces downtime during reconfiguration. This makes it reliable in multi-purpose laboratory environments.

3. What advantage does the condenser adjustment offer in Jacketed Glass Reactor ?

The Jacketed Glass Reactor includes an adjustable condenser mounted on a lifting mechanism, allowing users to raise it without disturbing the main vessel. This is particularly valuable when inspecting vapor flow, cleaning the tube surface, or accessing the reaction chamber mid-process. Operators don’t have to stop the entire experiment for small adjustments. The vertical design improves safety during distillation or reflux procedures. It also helps manage condensation when processing volatile mixtures. The stable alignment of the condenser remains consistent through repeated lifting. This function improves maintenance convenience during long operations. It enables clear visibility and functional access without system disruption.

4. What types of materials can Jacketed Glass Reactor safely process?

The Jacketed Glass Reactor uses high-grade borosilicate glass that resists chemical corrosion from acidic, basic, and reactive organic compounds. This ensures the vessel does not degrade when exposed to diverse reagents or temperature changes. It is suitable for materials ranging from aggressive oxidizers to biochemical samples. The inner glass surface does not absorb or react with most lab chemicals. Researchers can confidently perform purification, synthesis, and formulation procedures. The reactor supports both heating and cooling cycles without structural compromise. Its compatibility makes it ideal for pharmaceutical, chemical, and academic experiments. The system remains reliable across varying compound classes.

5. Is Jacketed Glass Reactor effective for mixing high-viscosity substances?

Jacketed Glass Reactor is equipped with a center-mounted stirring mechanism that handles thick or high-resistance mixtures without mechanical strain. This ensures that denser fluids like emulsions, gels, or concentrated suspensions are mixed evenly throughout the reaction process. Its balanced design avoids shaking or instability even under heavier workloads. Uniform agitation helps maintain sample consistency across long durations. This is especially useful for pilot runs and formulation testing. The impeller maintains constant movement without creating air bubbles or splashing. Its construction minimizes the chances of sedimentation or localized heating. The stirring unit supports a wide viscosity range in controlled environments.

6. How is vacuum stability maintained in Jacketed Glass Reactor ?

The Jacketed Glass Reactor utilizes a dual-seal approach combining and fluororubber, which helps maintain vacuum levels over extended operations. These seals resist damage from both chemicals and thermal stress, ensuring no compromise during pressure-sensitive procedures. Whether working under full vacuum or partial pressure, the integrity remains consistent throughout the batch. This benefit is crucial when handling solvents with low boiling points or air-sensitive reactants. The system reduces gas infiltration and pressure loss between connected ports. This feature also limits the need for frequent adjustments to external vacuum sources. It enhances operational accuracy across varied experiment durations.