Jacketed Glass Reactor LJGR-T2045

Introduction

 Jacketed Glass Reactor includes a 100 L cylindrical vessel designed for efficient thermal regulation through its dual-layer jacket. The vacuum-capable build supports pressure-controlled processes while limiting material loss during extended runs. Its rotatable vessel body enables smooth discharge and quick cleaning access. Our Jacketed Glass Reactor is ideal for synthesis, distillation, and concentration across chemical and research 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 supports controlled chemical reactions by providing reliable temperature regulation and efficient mixing capabilities. This enables its use in synthesis, distillation, and concentration processes across pharmaceutical, chemical, and research laboratories.

Specifications

Glass Vessel Volume	100 L Cylindrical
Glass Vessel Lid Diameter	Φ 265 mm
Jacketed Volume	25000 ml
Dropping Funnel	2000 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 1400 rpm
Vacuum Degree	0.098 Mpa
Stirring Motor Power	200 W
Lifting Motor Power	40 W
Power Consumption	240 W
Power Supply	220V/50Hz
Condenser Dimension (D×H)	Φ120×600 mm
Dimensions (W×D×H)	900×1100×3250 mm
Weight	157 kg

Features

Impact-resistant vessel protection

Protected insulated cable management

Quiet operation stirring system

Chemical spill containment channels

Strengthened overhead support frame

FAQs

1. What safety features does the Jacketed Glass Reactor include to prevent glass damage during operation?

The Jacketed Glass Reactor incorporates shatter-resistant vessel shielding designed to protect the glass vessel from external impacts that could otherwise cause breakage. This protective layer serves as a buffer against mechanical shocks common in laboratory settings. Furthermore, the overhead assembly provides additional reinforcement by securing the vessel firmly in place, which reduces stress during stirring and temperature changes. These design elements together help maintain the integrity of the glass, ensuring safer use and minimizing unexpected interruptions caused by vessel damage. The enhanced durability protects both the equipment and operators during complex experiments.

2. How does the vacuum sealing system of the Jacketed Glass Reactor maintain stable conditions during experiments?

The vacuum sealing system in the Jacketed Glass Reactor relies on specialized sealing materials arranged to form an airtight barrier, which prevents leaks that could disrupt reaction conditions. This airtight environment is vital for experiments involving volatile compounds or where pressure control is critical. By sustaining a stable vacuum, the reactor supports efficient distillation and concentration by enabling substances to boil at lower temperatures. The integration of the vacuum system with the jacketed design allows the reactor to maintain consistent internal pressure without interfering with temperature regulation. This balance is key to achieving reliable and reproducible results during complex procedures.

3. Can the stirring speed of the Jacketed Glass Reactor be adjusted to suit different sample viscosities and reaction types?

The Jacketed Glass Reactor features a stirring system capable of varying speeds across a broad range, offering adaptability to diverse sample viscosities and reaction requirements. This variable control ensures gentle mixing for delicate compounds while allowing more vigorous agitation for thicker or heterogeneous mixtures. The motor powering the stirring delivers consistent torque, minimizing speed fluctuations that could affect the uniformity of the mixture or reaction kinetics. By adjusting stirring intensity, users can optimize the dispersion of reactants and temperature distribution, which is crucial for achieving desired chemical transformations efficiently.

4. How does the vessel body rotation in the Jacketed Glass Reactor enhance usability during experiments?

The vessel body rotation feature of the Jacketed Glass Reactor enables manual tilting of the vessel by approximately 150 degrees via a handwheel. This functionality simplifies the process of pouring liquids directly from the vessel without requiring complete disassembly. It also facilitates thorough cleaning after experiments, reducing downtime and labor associated with maintenance. The rotation mechanism is designed for smooth, controlled movement, which minimizes the risk of spills or contamination during transfer. This ergonomic feature streamlines laboratory operations, contributing to a safer and more efficient workflow.

5. How does the lifting mechanism in the Jacketed Glass Reactor contribute to operational convenience?

The lifting system on the Jacketed Glass Reactor allows vertical adjustment of the vessel cover and attached components such as the stirring unit and condenser. This motorized lift provides easy access to the interior of the vessel for loading, unloading, and cleaning, without the need for manual dismantling. The adjustable height supports a variety of experimental setups by accommodating different vessel volumes and ancillary equipment. Reducing manual handling also lowers the risk of damage and improves safety during operation. Overall, the lifting mechanism enhances usability by streamlining setup and maintenance tasks.

6. What types of experiments and industries are best suited for the Jacketed Glass Reactor ?

The Jacketed Glass Reactor is suitable for a wide range of scientific investigations, including chemical synthesis, distillation, and material concentration. Its design supports academic research, industrial development, and pharmaceutical manufacturing by providing reliable temperature control and mixing capabilities. Fields such as biotechnology, petroleum refining, metallurgy, and aerospace research benefit from the reactor’s ability to handle complex reactions under controlled conditions. The robust construction and adaptable features make it a versatile instrument for laboratories requiring consistent performance across diverse chemical processes.