Jacketed Glass Reactor LJGR-T2037

Introduction

Jacketed Glass Reactor features a 10 reactions and thermal processes. It includes an overhead lifting design that improves access during setup and cleaning. The hand wheel allows the vessel to tilt left for easier draining after high-temperature operations. Our reactor supports synthesis, distillation, and concentration in pharmaceutical, research, and industrial labs.

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 supports controlled thermal and chemical reactions within a sealed, dual-layer vessel, ideal for pilot-scale research and compound development. This setup supports synthesis, distillation, and crystallization in pharmaceutical, chemical, and academic labs.

Specifications

Glass Vessel Volume	10 L Cylindrical
Glass Vessel Lid Diameter	Φ 265 mm
Jacketed Volume	5000 ml
Dropping Funnel	1000 ml
Lifting Distance	500 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	120 W
Lifting Motor Power	40 W
Power Consumption	130 W
Power Supply	220V/50Hz
Condenser Dimension (D×H)	Φ100×600 mm
Dimensions (W×D×H)	700×850×2250 mm
Weight	120 kg

Features

Side-locking drainage assembly

Anti-backflow feed funnel

Pivot-control vessel rotation

Shock-absorbent bottom support

Split-level condenser mounting

FAQs

1. Can the Jacketed Glass Reactor be used with sensitive or volatile substances?

The Jacketed Glass Reactor is designed to accommodate sensitive and volatile materials by maintaining a controlled and closed reaction environment. Its double-sealed system minimizes the risk of leaks and prevents exposure to air or contaminants, which is critical for maintaining the integrity of delicate substances. The robust vacuum-tight connections ensure that the vessel can be operated under reduced pressure conditions, helping to stabilize reactive compounds. Additionally, the carefully selected materials resist corrosion and degradation even when working with aggressive chemicals. The lifting motor and large lid diameter make adding or removing samples safer and easier without disturbing the reaction setup. This design supports safe handling during all stages of the reaction, from initiation to completion. Furthermore, the jacketed vessel’s temperature control capabilities provide a stable thermal environment, which reduces the risk of unwanted side reactions. This feature makes the reactor suitable for a broad range of experimental needs involving unstable chemicals.

2. How does the tilting mechanism benefit operation in the Jacketed Glass Reactor ?

The tilting mechanism on the Jacketed Glass Reactor enhances operational flexibility by allowing the vessel to rotate leftwards manually. This rotation simplifies the process of draining liquids or removing reaction products, which can often be cumbersome in fixed reactors. Lab technicians can pour out contents with reduced risk of spills or the need for transferring to additional containers, helping maintain a cleaner workspace. The ability to tilt also aids in cleaning hard-to-reach areas inside the vessel, especially after processes involving viscous or sticky substances. During high-temperature reactions, where residues can harden or stick, this feature reduces the time and effort required to prepare the reactor for the next run. The tilt function also improves visual inspection of residual contents without complete disassembly. This contributes to safer handling by reducing direct contact with hot or hazardous materials. Overall, the tilting design is a practical addition that supports efficiency and user convenience during reaction cycles.

3. Is the lid opening wide enough for accessories or probes in the Jacketed Glass Reactor ?

The Jacketed Glass Reactor is designed with a spacious lid diameter that enables the convenient installation of various laboratory accessories such as temperature probes, gas inlets, or sampling ports. This wide opening facilitates integration of custom or standard devices needed for monitoring and controlling reaction parameters without interrupting ongoing processes. The ample space allows easy insertion and removal of equipment, enabling adjustments during different phases of the experiment. This flexibility is valuable for research environments where reactions need to be closely monitored or modified on the fly. It also supports adding reagents or catalysts mid-reaction, enhancing experimental control. The lid’s design ensures that accessories fit securely, maintaining the vessel’s sealed environment and preventing leaks. Moreover, this accessibility supports multi-functional operation and better adaptability to evolving research needs. The ability to accommodate a variety of attachments without compromising system integrity is a key benefit for experimental versatility.

4. How does the Jacketed Glass Reactor maintain internal stability during long runs?

The Jacketed Glass Reactor ensures internal stability throughout extended reaction runs by employing a combination of sturdy frame construction and vibration damping techniques. This robust support minimizes movement and prevents mechanical disturbances that could affect reaction uniformity. The base and mounting components are engineered to absorb and distribute stress, reducing the likelihood of shifting or wobbling even during high-speed stirring operations. The secure mounting of the vessel and stirring motor helps maintain consistent alignment between the stirring elements and vessel interior, which is essential for even mixing. The reactor’s design also takes into account thermal expansion, ensuring that all components remain firmly in place despite temperature fluctuations. This structural integrity allows researchers to trust that long-duration experiments proceed without unexpected interruptions or mechanical failures. Consistency in stirring and vessel positioning contributes to reliable, repeatable outcomes, which is especially important for processes requiring precise control over time. The overall stability reduces maintenance needs and extends equipment lifespan.

5. What makes the Jacketed Glass Reactor suitable for material recovery after reaction?

The Jacketed Glass Reactor is engineered to facilitate efficient material recovery after chemical reactions by incorporating design features that allow complete and clean draining of processed substances. The vessel’s tilt capability combined with a smooth internal surface minimizes residual buildup, making it easier to pour out viscous or semi-solid products without leaving significant traces behind. This is particularly beneficial for applications where recovering every bit of product is critical for yield optimization or cost efficiency. The wide outlet and clear path for flow reduce the chance of blockages during transfer. The reactor’s components are corrosion-resistant, which prevents degradation or contamination during product recovery. Cleaning between batches is simplified, allowing faster turnaround times for sequential experiments. This efficiency supports the needs of laboratories and pilot plants focused on iterative development. Additionally, the design reduces waste and minimizes the risk of cross-contamination between different reaction cycles, ensuring higher product purity.

6. Does the Jacketed Glass Reactor allow easy observation of internal processes?

The Jacketed Glass Reactor features a transparent glass vessel body that permits direct visual observation of the reaction process at any stage. This clear construction allows operators to monitor changes in color, phase transitions, bubbling, or crystallization without interrupting the experiment or opening the vessel. This visibility helps detect any unexpected developments or irregularities early, allowing prompt adjustments to reaction parameters. The reactor’s design accommodates supplemental optical devices such as cameras or microscopes to enhance monitoring capabilities further. In addition to visual tracking, the wide lid opening supports the use of probes or sensors that provide real-time data while maintaining a sealed environment. The ability to observe reactions closely without physical interference improves experiment control and increases the likelihood of successful outcomes. Visual accessibility also aids training and supervision in academic or industrial settings, providing an educational advantage. This feature supports better documentation and reporting for research reproducibility.