Jacketed Glass Reactor LJGR-T2026

Introduction

Jacketed Glass Reactor features a 100 experiments requiring consistent thermal control. Its wide lid design simplifies reagent loading and internal maintenance. The built-in vacuum function stabilizes internal conditions for low-pressure reactions. Our Glass Reactor is ideal for synthesis, distillation, and concentration in chemical, pharmaceutical, and academic laboratories. 

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 to facilitate controlled chemical reactions, temperature-sensitive processes, and sample preparation in laboratory-scale research. The system supports mixing, thermal exchange, and vacuum operations for pharmaceutical, petrochemical, and material development tasks.

Specifications

Glass Vessel Volume	100 L Cylindrical
Glass Vessel Lid Diameter	Φ 340 mm
Jacketed Volume	20000 ml
Dropping Funnel	2000 ml
Temperature Range	-80℃ to 250℃
Temperature Measurement Accuracy	+/-1℃
Stirring Speed	0 to 450 rpm
Vacuum Degree	0.0098 Mpa
Power Consumption	200 W
Power Supply	220V/50Hz
Condenser Dimension (D×H)	100×700 mm
Dimensions (W×D×H)	950×750×2390 mm
Weight	95 kg

Features

Adjustable digital speed controller

Corrosion-resistant stirring shaft

High-clarity glass structure

Durable stainless steel frame

Integrated condenser for cooling

FAQs

1. Can the Jacketed Glass Reactor support experiments that require long reaction durations?

Jacketed Glass Reactor is well-suited for extended experimental procedures where reaction consistency must be maintained over time. The thermal jacket minimizes fluctuation, helping to sustain a defined environment throughout prolonged processes. Its sturdy framework supports uninterrupted operation without compromising stability or safety. Stirring control also ensures reactants remain uniformly distributed during longer durations. Since reaction timing can vary widely in research, the setup is designed for dependable runtime handling. Many labs use this reactor for complex syntheses that cannot tolerate external interruptions. Its cooling and heating capabilities remain effective across extended sessions. This helps researchers confidently run processes without intervention.

2. How does the Jacketed Glass Reactor manage chemical compatibility during corrosive procedures?

The Jacketed Glass Reactor is engineered with chemical durability in mind, especially for use in corrosive reaction environments. Its construction materials were selected specifically to withstand aggressive reagents and reactive media commonly used in lab synthesis. The entire vessel and contact parts provide protection against deterioration caused by acids, solvents, and oxidizers. This makes it suitable for demanding applications in chemical engineering and bio-pharmaceutical labs. By avoiding material degradation, the reactor helps ensure purity and reliability in the outcome. Its setup is often preferred in protocols involving volatile or reactive agents. The interior surface maintains integrity during complex transformations. reactor supports both safety and performance in harsh chemical workflows.

3. Does the Jacketed Glass Reactor allow easy handling of viscous substances?

Jacketed Glass Reactor offers optimal conditions for processing viscous mixtures without manual intervention. Its stirring mechanism allows even thick or semi-solid materials to be consistently agitated without sticking or settling. The build of the vessel and the motor-driven mixer are designed to work together across various material consistencies. This supports experiments involving polymerization, emulsions, or resins. The stirring system operates across a wide torque range to accommodate fluid resistance. Lab users benefit from consistent mixing and improved heat transfer, even with heavy samples. Its design reduces the chances of blockages or uneven distribution. unit is a dependable tool for handling non-Newtonian or dense fluids.

4. What type of lab workflows benefit from the open lid design of the Jacketed Glass Reactor?

The Jacketed Glass Reactor includes a wide-top access port that allows scientists to safely insert tools, probes, or sampling devices during ongoing reactions. This is particularly useful in workflows requiring regular observation or small additions of reagents. Its layout is helpful in titration, process testing, or real-time monitoring. Users can conduct mid-process measurements or pH adjustments without halting the reaction. Handling of glassware or pipettes is made safer due to improved access space. This configuration also supports experiments that require staggered dosing schedules. By avoiding full disassembly, process continuity is preserved. reactor facilitates active engagement during lab procedures.

5. Is the Jacketed Glass Reactor easy to clean between different experimental runs?

Jacketed Glass Reactor was developed with multi-use practicality in mind, particularly for labs performing several runs using different compounds. The vessel’s cylindrical design allows easy reach to interior surfaces for cleaning or inspection. Its removable fittings and wide lid make it less time-consuming to rinse or swap out components. Users avoid contamination by being able to reset the chamber quickly between tests. This is beneficial in academic, pharma, or research settings where cross-sample integrity is critical. Components that contact chemicals are designed for easy disassembly. Its smooth inner surface minimizes retention of residue. system ensures fast turnaround for high-throughput labs.

6. Does the Jacketed Glass Reactor support automation or digital monitoring systems?

The Jacketed Glass Reactor is compatible with various lab monitoring tools and add-ons, allowing users to integrate digital sensors or controllers. Researchers needing to track variables such as temperature, pH, or stirring speed digitally can do so through external modules. The design allows placement of probes without structural modifications. This expands its utility for data-logging, automated reaction timing, or smart lab integration. Automated dosing or real-time feedback becomes easier with open access and modular ports. Labs benefit from less manual oversight and improved consistency. system is built with flexibility in mind for modern lab workflows.