Jacketed Glass Reactor LJGR-T2030

Introduction

Jacketed Glass Reactor has a 20 L vessel, suitable for medium-scale synthesis, distillation with consistent mixing performance in laboratory use. Its dual-seal design maintains stable reaction conditions over time. The external loop buffer ensures continuous and reliable circulation for effective thermal transfer throughout the process. Our reactor supports diverse applications in university research, biopharmaceuticals, and aerospace materials. 

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 serves for controlled synthesis, distillation, and concentration of chemical materials. This enables accurate temperature management and efficient mixing for a variety of laboratory and industrial experiments.

Specifications

Glass Vessel Volume	20 L Cylindrical
Glass Vessel Lid Diameter	Φ 265 mm
Jacketed Volume	7000 ml
Dropping Funnel	1000 ml
Temperature Range	-80℃ to 250℃
Temperature Measurement Accuracy	+/-1℃
Stirring Speed	0 to 1400 rpm
Vacuum Degree	0.098 Mpa
Power Consumption	120 W
Power Supply	220V/50Hz
Condenser Dimension (D×H)	100×600 mm
Dimensions (W×D×H)	780×550×1970 mm
Weight	56 kg

Features

Modular design for customization

Versatile multi-purpose reaction vessel

Reinforced chemical resistance coating

Angled outlet for drainage

Overflow protection on funnel

FAQs

1. Is the Jacketed Glass Reactor suitable for working with reactive or corrosive chemicals?

The Jacketed Glass Reactor is designed to handle a broad range of chemical substances, including reactive and corrosive materials, without compromising its components. Its construction minimizes unwanted reactions that could affect experimental outcomes. The stable internal environment it maintains protects sensitive samples and ensures consistent results. Reinforced materials enhance durability under aggressive chemical exposure. This makes the reactor reliable for multi-step syntheses and formulation work involving volatile substances. Laboratories conducting advanced chemical processes find it especially beneficial. The design helps preserve integrity throughout prolonged experiments. Its resistance to corrosive agents is a key advantage for demanding research.

2. Can the Jacketed Glass Reactor maintain performance during extended continuous operation?

Jacketed Glass Reactor supports long-duration use without a decline in operational stability or effectiveness. Components have been selected for robustness and endurance to withstand continuous working conditions. The stirring mechanism guarantees consistent mixing even during extended runs. Its thermal regulation system maintains steady internal temperatures throughout lengthy procedures. This reliability allows for uninterrupted syntheses or extractions over many hours. The glass vessel resists fatigue and stress accumulation, ensuring repeated use under diverse experimental setups. Cooling and heating functions remain stable despite fluctuating lab demands. These features suit researchers needing dependable, long-term performance.

3. How easily can the Jacketed Glass Reactor be integrated into existing laboratory setups?

Jacketed Glass Reactor offers excellent compatibility with common laboratory equipment and workflows. Flexible inlet and outlet configurations enable seamless connection to thermal circulators or collection devices. The compact design fits well within limited bench space while providing easy access to critical parts. This reduces setup time and learning curves for new operators. Modular assembly supports quick installation, transport, and component rearrangement without specialized tools. The system adapts to various lab layouts without causing workflow disruptions. Its size and design minimize space conflicts typical of larger-scale reactors. This flexibility makes it a practical addition to many research environments.

4. Is the Jacketed Glass Reactor appropriate for experiments involving temperature-sensitive biological samples?

Jacketed Glass Reactor creates a controlled environment suitable for handling delicate biological and biochemical materials. Its dual-jacket design allows smooth and gradual temperature changes, reducing thermal stress on sensitive samples. Adjustable stirring speeds accommodate gentle mixing necessary in biological processes. The system maintains stable conditions during both heating and cooling phases to preserve sample integrity. This helps prevent damage to proteins, enzymes, or other fragile compounds. The reactor is widely used in biopharmaceutical research, fermentation, and protein synthesis applications. Uniform temperature control ensures consistent outcomes in lab-scale biological experiments. It supports a broad range of delicate sample requirements.

5. Does the Jacketed Glass Reactor provide clear visual access for monitoring ongoing reactions?

The transparent glass vessel of the Jacketed Glass Reactor allows continuous visual monitoring without interrupting the experiment. Operators can observe mixing quality, color changes, crystallization, or phase transitions in real time. This visibility helps detect anomalies early and adjust procedures promptly. Clear sightlines reduce dependence on external sensors for routine observation. Adjustable lighting can be used to enhance visibility during different stages of the process. Visual access promotes better control over reagent addition and dosing. This feature improves user confidence and safety during complex or sensitive reactions. It’s particularly valuable for experiments requiring close supervision.

6. What advantages does the external loop buffer provide in the Jacketed Glass Reactor ’s operation?

The external loop buffer enhances the Jacketed Glass Reactor ’s thermal management by ensuring smooth and consistent fluid circulation through the jacket. This design prevents sudden temperature fluctuations inside the reaction chamber. By maintaining steady heat exchange, it protects sensitive compounds from thermal shock or degradation. The loop buffer also reduces turbulence within the jacket, helping preserve reaction stability. It is compatible with various thermostatic control systems commonly used in laboratories. This feature is especially useful during long processes that require constant temperature regulation. The system helps prevent pressure spikes that could compromise experiment integrity. Overall, it contributes to more reliable and controlled reaction conditions.