Jacketed Glass Reactor LJGR-T2040

Introduction

Jacketed Glass Reactor features a 100 L cylindrical glass vessel, ideal for pilot-scale chemical workflows and lab-scale trials. The handwheel rotation allows safe vessel tilting for easy transfer and cleaning. Its wide lid design supports convenient access during material handling or sampling. Our Jacketed Glass Reactor is used for synthesis, distillation, and research-based concentration tasks.

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 designed for temperature-sensitive reactions, mixing, and processing in laboratory and pilot-scale environments. It enables researchers to carry out synthesis, distillation, and concentration with consistent temperature control and secure material transfer.

Specifications

Glass Vessel Volume	100 L Cylindrical
Glass Vessel Lid Diameter	Φ 340 mm
Jacketed Volume	25000 ml
Dropping Funnel	50 ml
Lifting Distance	920 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	200 W
Lifting Motor Power	20 W
Power Consumption	240 W
Power Supply	220V/50Hz
Condenser Dimension (D×H)	Φ60×600 mm
Dimensions (W×D×H)	900×1100×3250 mm
Weight	157 kg

Features

Reactor-grade frame reinforcement

Process-aligned height configuration

Thermal stress resistance design

Manual rotation safety assist

Oversized lid handling clearance

FAQs

1. How does the vessel body rotation feature of the Jacketed Glass Reactor enhance ease of use during experiments?

The Jacketed Glass Reactor features a vessel body that can be manually rotated left up to 150 degrees after it is lifted. This rotation provides significant convenience when it comes to safely pouring out processed materials without disturbing the setup. It also simplifies thorough cleaning of the vessel interior by allowing better access without disassembling the entire system. This feature is especially useful during repeated experimental cycles, as it reduces downtime and increases lab efficiency. By enabling controlled vessel movement, it supports safer handling of chemicals and less risk of spills or contamination. Users benefit from smoother workflow transitions between reaction, pouring, and cleaning stages. Additionally, it allows operators to inspect the reactor contents or glassware integrity more easily. The manual control also offers flexibility for diverse experimental needs.

2. What benefits does the large lid diameter of the Jacketed Glass Reactor offer for adding materials or cleaning?

The Jacketed Glass Reactor is equipped with a wide lid opening that significantly enhances operational accessibility. This larger lid diameter enables easy addition of solid or liquid reagents without requiring complex transfer equipment, saving time and minimising handling errors. It also facilitates rapid visual inspection and access for cleaning, which is critical for maintaining reactor hygiene and avoiding cross-contamination between batches. This accessibility reduces downtime between processes and simplifies preparation for new experiments. Moreover, the wide lid improves safety by allowing better control when introducing potentially hazardous materials. Users find it easier to perform maintenance tasks due to the unobstructed access it provides. Such design considerations improve overall lab productivity and user convenience during extended workflows.

3. In what way does the jacketed volume of the Jacketed Glass Reactor improve temperature control during reactions?

The Jacketed Glass Reactor ’s sizable jacketed volume surrounds the inner vessel, allowing the circulation of a controlled liquid medium that maintains the reaction temperature. This setup ensures even heat distribution around the vessel, reducing hot spots or temperature gradients that can affect reaction outcomes. Reliable temperature control is crucial for sensitive chemical processes like synthesis, distillation, or concentration, which demand stable thermal environments. The large jacket capacity supports both heating and cooling cycles, allowing flexible operation across a wide temperature range. This consistent temperature regulation helps preserve sample integrity and reproducibility. Users benefit from reduced risk of reaction failures caused by thermal fluctuations. The jacket design also contributes to process safety by preventing sudden temperature spikes. Its effective heat transfer properties enable more predictable and controllable experimental conditions.

4. Is the stirring motor power of the Jacketed Glass Reactor sufficient for handling thick or viscous mixtures?

The stirring motor installed in the Jacketed Glass Reactor is designed to deliver adequate power for mixing substances across a broad range of viscosities, including thick or semi-solid materials. This capability ensures homogeneous distribution of components within the reactor, which is essential for reaction consistency and yield optimization. The stirring speed is adjustable, enabling fine control to match the properties of different mixtures and process requirements. Adequate stirring prevents settling or uneven reactions, which can negatively affect product quality or cause process disruptions. The motor power is balanced to provide efficient mixing without generating excessive heat or mechanical stress. This design allows users to handle complex formulations with confidence. It also supports a variety of laboratory and pilot-scale applications, increasing the reactor’s versatility. Effective stirring contributes directly to reproducible and reliable experimental results.

5. What safety measures in the Jacketed Glass Reactor help maintain system vacuum and prevent leaks?

The Jacketed Glass Reactor incorporates durable sealing elements designed to maintain a secure vacuum environment throughout operation. These seals resist degradation caused by chemical exposure or mechanical wear, supporting long-term system integrity. Maintaining vacuum is critical for processes sensitive to atmospheric contamination or pressure fluctuations. Leak prevention protects the safety of laboratory personnel by containing potentially hazardous vapors and ensuring stable reaction conditions. The reactor’s design prioritizes secure connections and robust sealing between the vessel, lid, and associated components. This helps prevent interruptions during lengthy or complex experiments. Reliable vacuum maintenance also improves process efficiency by avoiding the need for frequent re-establishing of conditions. Such safety features contribute to a dependable and user-friendly system suitable for demanding applications. The overall design promotes both safety and experimental success.

6. How does the condenser design of the Jacketed Glass Reactor support efficient recovery of solvents during processes?

The condenser incorporated in the Jacketed Glass Reactor is engineered to optimise vapor condensation and solvent recovery during distillation or concentration steps. Its size and configuration facilitate efficient cooling of vapors, reducing solvent losses and minimizing environmental release. High recovery rates contribute to cost savings by allowing reuse of valuable solvents in successive processes. The condenser’s design also supports process safety by controlling vapor flow and preventing pressure buildup. Its reliable performance ensures consistent operation, especially during extended runs or continuous procedures. Users benefit from less downtime due to reduced solvent replenishment needs and easier waste handling. This feature aligns with sustainable laboratory practices by lowering chemical consumption and emissions. Effective vapor management enhances overall system reliability and experimental outcomes.