Jacketed Glass Reactor LJGR-T2012

Introduction

Jacketed Glass Reactor has a 3 for chemical reactions requiring controlled temperature variation. It ensures stable performance during extended use, supporting complex, multi-step processes. The reactor withstands significant thermal shifts while maintaining structural integrity. Our Jacketed Glass Reactor is commonly used in pharmaceutical research, compound synthesis, and experimental chemical workflows.

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 various chemical reactions, crystallization, and process development with controlled heating and stirring environments. This unit allows accurate temperature control and uniform agitation, making it suitable for research labs, pilot plants, and formulation studies.

Specifications

Glass Vessel Volume	3 L Cylindrical
Glass Vessel Lid Diameter	Φ 205 mm
Jacketed Volume	600 ml
Time Range	0 to 99 hr 59 min
Temperature Range	-80℃ to 250 ℃
Temperature Measurement Accuracy	+/-1℃
Stirring Speed	50 to 1100 rpm
Vacuum Degree	0.0098 Mpa
Display	Stirring Speed, Timer, Temperature
Power Consumption	120 W
Power Supply	220V/50Hz
Dimensions (W×D×H)	450×450×1170 mm
Weight	26 kg

Features

Reinforced thermal insulation jacket

Wide-mouth filling opening

User-friendly operation panel

High-torque stirring motor

Adjustable frame height design

FAQs

1. How does the Jacketed Glass Reactor maintain stable reaction conditions during temperature fluctuations?

Jacketed Glass Reactor utilizes a carefully designed jacket that distributes heat evenly around the vessel, preventing localized temperature changes. This uniform temperature distribution is crucial for chemical processes sensitive to thermal variations. The reactor’s construction ensures that even when external temperatures shift, the internal environment remains stable. This stability helps maintain consistent reaction rates and product quality. Such control is essential for experiments requiring tight thermal regulation over extended periods. Additionally, the jacket’s design minimizes thermal stress on sensitive materials. This enhances the longevity of the reactor and safeguards delicate compounds from degradation.

2. What makes the Jacketed Glass Reactor suitable for handling volatile or hazardous chemicals safely?

The Jacketed Glass Reactor is built with durable borosilicate glass that resists corrosion and chemical attack from aggressive substances. Its sealed system design limits exposure to harmful vapors, reducing risk for laboratory personnel. The reactor’s ability to maintain vacuum conditions further aids in controlling volatile reactions by safely containing vapors. This containment ensures that reactions proceed without contamination or environmental hazards. Furthermore, the robust glass construction withstands thermal and mechanical stresses common in hazardous chemical processes. This combination of materials and design features prioritizes user safety during complex syntheses. The reactor also facilitates quick intervention if reaction conditions deviate from expected parameters.

3. How does the stirring system in the Jacketed Glass Reactor improve reaction efficiency?

The stirring mechanism in the Jacketed Glass Reactor is engineered to deliver thorough mixing across a broad speed range, allowing customization to the specific viscosity of reaction mixtures. This versatility promotes uniform distribution of reactants, minimizing concentration gradients that can slow reactions or cause inconsistencies. By reducing dead zones within the vessel, it ensures all reagents are actively involved throughout the process. Enhanced mixing improves heat transfer and reaction kinetics, contributing to faster completion times and higher yields. The stirring design also minimizes mechanical wear, supporting extended operational life. Users benefit from the flexibility to adapt stirring intensity to diverse experimental needs, making this reactor suitable for a wide array of chemical applications.

4. In what ways does the design of the Jacketed Glass Reactor facilitate cleaning and maintenance?

Jacketed Glass Reactor is designed with smooth, accessible surfaces that simplify cleaning procedures and minimize the buildup of residues. Its modular components can be easily disassembled without specialized tools, reducing downtime between experiments. This ease of maintenance helps maintain high purity levels by preventing cross-contamination from previous reactions. The chemical resistance of the borosilicate glass also allows use of a variety of cleaning agents without risk of damage. These features collectively support efficient laboratory workflows and improve the reactor’s overall lifespan. Routine cleaning is essential in multi-use environments, and the reactor’s design actively supports these requirements. This practical approach to maintenance enhances user convenience and safety.

5. What role does the vacuum capability of the Jacketed Glass Reactor play in reaction control?

The vacuum capability of the Jacketed Glass Reactor allows for effective removal of gases and vapors generated during chemical processes, which is vital for reactions requiring low-pressure environments. This feature supports distillations, solvent recovery, and other procedures where controlling atmospheric pressure affects reaction outcomes. Lowering pressure can also reduce boiling points, making the reactor suitable for heat-sensitive materials. By enabling controlled vacuum conditions, the reactor helps prevent unwanted side reactions caused by atmospheric contaminants. This level of control contributes to higher product purity and improved reaction efficiency. The vacuum system is designed to maintain integrity even during extended runs, supporting complex process requirements.

6. How does the compact design of the Jacketed Glass Reactor benefit laboratory space management?

Jacketed Glass Reactor features a space-efficient footprint that allows it to be accommodated on crowded laboratory benches without sacrificing performance capacity. Its vertical orientation maximizes vessel volume while minimizing horizontal space, allowing integration with other essential lab instruments. This compact design facilitates flexible laboratory layouts and supports multitasking across various experiments. Users can arrange multiple reactors or complementary equipment side-by-side, improving workflow and reducing clutter. The design also considers ergonomic access to components, enhancing operational ease. This efficient use of space aligns with the needs of modern laboratories where maximizing productivity within limited areas is a priority.