Jacketed Glass Reactor LJGR-T2035

Introduction

Jacketed Glass Reactor features a 200 chemical processes with effective temperature control. It includes a receiving bottle to enable continuous collection during extended reactions. The advanced sealing system maintains vacuum integrity for stable operation. Our reactor supports applications such as material synthesis, distillation, and concentration across research and industrial settings.

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 carrying out large-volume chemical reactions under controlled temperature and vacuum conditions. This supports applications such as synthesis, distillation, crystallization, and extraction across pharmaceutical, petrochemical, and academic research fields.

Specifications

Glass Vessel Volume	200 L Cylindrical
Receiving Bottle	10 L
Glass Vessel Lid Diameter	Φ 340 mm
Jacketed Volume	40000 ml
Dropping Funnel	5000 ml
Temperature Range	-80℃ to 250℃
Temperature Measurement Accuracy	+/-1℃
Stirring Speed	0 to 1400 rpm
Vacuum Degree	0.098 Mpa
Power Consumption	200 W
Power Supply	220V/50Hz
Dimensions (W×D×H)	1280×930×2800 mm
Weight	180 kg

Features

Elevated observation glass points

Tangle-free stirrer wiring port

Optimized spillage control ridge

Steam-resistant surface coating

Wide-base stability frame

FAQs

1. How does the Jacketed Glass Reactor ensure consistent temperature control throughout experiments?

Jacketed Glass Reactor maintains thermal consistency through its dual-layer jacket and fluid circulation system. The system supports stable heat distribution without unexpected temperature spikes. Temperature probes feed continuous data to the control unit to maintain accuracy over long durations. Insulation throughout the structure reduces energy loss and improves efficiency. Reactants are protected from direct contact with heating surfaces, preserving sample quality. Temperature settings can be adjusted while the experiment is in progress. The system’s feedback response helps prevent overheating or undershooting target conditions. A wide operational range makes it suitable for both high and low-temperature experiments.

2. What role does the double sealing system play in the Jacketed Glass Reactor ’s performance?

Jacketed Glass Reactor features a and fluororubber double seal that preserves internal vacuum conditions. The sealing components resist leaks even during prolonged runs or under pressure variation. Their chemical resistance helps maintain performance in the presence of strong solvents. A stable vacuum enhances the reliability of pressure-sensitive procedures. Continuous vacuum hold limits the need for system recalibration. The sealed chamber reduces the risk of external contamination. This design contributes to lower maintenance and longer operational life. The sealing system is also compatible with a wide range of reagents and chemical types.

3. How does the receiving bottle in the Jacketed Glass Reactor improve workflow during continuous reactions?

The Jacketed Glass Reactor includes a 10 L receiving bottle for continuous collection during distillation or synthesis. The bottle supports vacuum operation, allowing withdrawal without compromising pressure. Closed transfer pathways reduce exposure to air, which is important for handling sensitive compounds. It minimizes the need to interrupt the process to collect samples or products. Collection can proceed while heating or stirring continues without interference. The container supports scale-up by offering sufficient capacity for extended runs. The system reduces handling time and improves overall process efficiency. A compatible design ensures integration with other lab infrastructure.

4. In what way does the fixed external loop buffer contribute to the safety and stability of the Jacketed Glass Reactor ?

The Jacketed Glass Reactor uses a fixed external loop buffer to secure fluid connections between dynamic and stationary parts. This component absorbs mechanical stress caused by thermal expansion or pressure changes. By stabilizing connection points, it prevents damage to delicate glass joints. Circulating fluids move consistently without being affected by sudden shifts or vibrations. The buffer reduces leakage risk and preserves the integrity of the jacketed flow. The design contributes to safer long-term operation during demanding experiments. Durability is improved by reducing strain on tubing and seals. Setup is cleaner and easier due to the maintained layout.

5. Why is the Jacketed Glass Reactor suitable for bio-pharmaceutical research applications?

The Jacketed Glass Reactor features chemical-resistant materials and vacuum compatibility tailored for biopharma use. Its borosilicate glass body does not interact with biological samples, preserving their original structure. Inert surfaces reduce contamination risk in sterile conditions. Agitation and temperature can be finely tuned for sensitive processes such as fermentation or compound extraction. It supports both small-batch development and pilot-scale testing. The vacuum system retains volatile components critical to biological work. The reactor structure enables thorough cleaning between uses. Stability and repeatability make it suitable for regulated laboratory environments.

6. How does the dropping funnel design enhance the operational capabilities of the Jacketed Glass Reactor ?

The Jacketed Glass Reactor includes a 5000 ml dropping funnel for controlled reagent addition. The funnel enables gradual dosing without exposing the contents to ambient air. Reagents can be introduced while the system remains closed and under vacuum. Even distribution supports reaction uniformity in multi-step processes. The funnel reduces the chance of reaction surges by slowing the addition rate. Operators can modulate flow to meet experimental demands. It allows for the handling of reactive or flammable inputs more safely. The setup improves repeatability by maintaining consistent dosing throughout the run.