Jacketed Glass Reactor LJGR-T2023

Introduction

Jacketed Glass Reactor includes a 20 L cylindrical glass vessel designed to handle large sample volumes for material synthesis. The integrated stirring system provides consistent agitation to enhance reaction uniformity. The reactor’s design features a secure lid with a large diameter for easy access and efficient sample handling. Our Jacketed Glass Reactor finds extensive use in university research, petroleum, and chemical engineering applications.

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 material synthesis, distillation, and concentration for various scientific experiments. This equipment enables precise control over chemical reactions in research and industrial settings, enhancing process reliability.

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 450 rpm
Vacuum Degree	0.0098 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	52 kg

Features

Transparent reaction visibility

Wide-mouth lid access

Efficient heat retention jacket

Stable anti-slip base

Durable borosilicate material

FAQs

1. How does the Jacketed Glass Reactor handle variations in stirring requirements for different experiments?

Jacketed Glass Reactor offers versatile stirring control to adapt to various reaction viscosities and material types. It designed the stirring system to ensure smooth, continuous agitation that promotes even mixing throughout the vessel. This adaptability supports both gentle mixing for delicate substances and more vigorous agitation when required. The motor operates quietly and steadily, reducing laboratory noise and wear on components. system minimizes vibration, which protects the sample and equipment during prolonged use. It prioritizes consistent performance across a range of stirring intensities to meet diverse experimental demands. The stirring mechanism enhances reaction uniformity and repeatability, crucial for accurate results.

2. Can the Jacketed Glass Reactor accommodate additions of liquid reagents during an active process?

Jacketed Glass Reactor includes a dropping funnel designed for the safe and controlled introduction of liquids without halting the reaction. It ensures the funnel’s integration maintains the sealed environment to prevent contamination and exposure to air. This feature supports complex reaction protocols requiring incremental or continuous reagent dosing. setup allows for gradual, precise additions that help manage reaction kinetics effectively. It engineered the funnel with secure sealing mechanisms to maintain vacuum or pressure conditions. This approach facilitates safer handling of volatile or sensitive reagents during ongoing experiments. The design enhances operational flexibility while protecting sample integrity.

3. What role does the glass vessel lid diameter play in the operation of the Jacketed Glass Reactor?

Jacketed Glass Reactor’s lid provides a wide opening to simplify sample handling and apparatus installation. selection of a spacious lid improves accessibility for inserting larger components or removing the vessel contents with ease. The lid ensures a tight fit to maintain the controlled environment within the reactor during stirring and temperature regulation. design allows easier cleaning and maintenance, reducing preparation time between experiments. It incorporates this feature to improve workflow efficiency and experimental versatility. The enhanced access promotes safe and convenient operation in busy lab settings. This user-friendly design accommodates a variety of sample sizes and experimental setups.

4. How does the Jacketed Glass Reactor maintain safety when handling volatile or reactive chemicals?

Jacketed Glass Reactor is constructed from high-quality materials resistant to chemical corrosion and mechanical stress, enhancing operator safety. engineering minimizes leak risks through robust sealing and secure connections, containing volatile substances reliably. The system supports controlled pressure conditions to prevent sudden releases or hazards. electrical components are designed to operate with low power consumption, reducing heat generation and associated risks. It focuses on durability and containment to protect both the user and the environment during sensitive experiments. This comprehensive safety approach provides confidence when working with reactive or hazardous chemicals. The design emphasizes stability and controlled reaction conditions throughout operation.

5. In what ways does the Jacketed Glass Reactor support scale-up experiments in chemical research?

Jacketed Glass Reactor accommodates increased reaction volumes to facilitate pilot-scale studies bridging laboratory and production processes. design maintains even stirring and temperature consistency despite larger sample sizes. The vessel supports modular accessories that enhance customization for specific scale-up needs. equipment enables researchers to retain control over reaction parameters as they transition to more extensive synthesis operations. It prioritizes scalability alongside operational reliability to meet evolving research goals. This flexible system supports development phases where batch sizes and complexity increase. The reactor’s adaptability assists in achieving reproducible results during process expansion.

6. How is temperature monitoring managed in the Jacketed Glass Reactor during complex reactions?

Jacketed Glass Reactor integrates effective temperature regulation through the dual-jacket system that facilitates efficient heating and cooling cycles. approach allows uniform thermal distribution to maintain stable conditions critical for reaction fidelity. The system continuously monitors temperature to adjust the circulating fluid’s influence on the vessel environment. design supports sensitive processes requiring precise thermal control to avoid degradation or side reactions. It focuses on maintaining a controlled heat transfer environment to improve reproducibility. This responsive temperature management protects delicate materials and supports a wide range of chemical protocols. The reactor ensures consistent thermal performance throughout extended reaction periods.