Jacketed Glass Reactor LJGR-T2041

Introduction

Jacketed Glass Reactor features a 5 body rotation supports safe content transfer and minimises physical effort during cleaning. Its overhead frame holds components securely and allows vertical adjustment. Our reactor supports synthesis, distillation, and temperature-regulated applications across diverse laboratory setups.

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 for chemical synthesis, distillation, and reaction tasks under controlled temperature conditions. This enables reliable material processing across research, pharmaceutical, and industrial laboratories.

Specifications

Glass Vessel Volume	5 L Cylindrical
Glass Vessel Lid Diameter	Φ 205 mm
Jacketed Volume	800 ml
Dropping Funnel	50 ml
Lifting Distance	360 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	90 W
Lifting Motor Power	20 W
Power Consumption	110 W
Power Supply	220V/50Hz
Condenser Dimension (D×H)	Φ60×600 mm
Dimensions (W×D×H)	500×620×2050 mm
Weight	100 kg

Features

Balanced centre load support

Glove-compatible adjustment controls

Grounded anti-slip base

Integrated pressure safety valve

Enhanced thermal insulation jacket

FAQs

1. How does the Jacketed Glass Reactor support user convenience during post-processing?

The Jacketed Glass Reactor includes a handwheel-based vessel rotation, allowing the unit to tilt smoothly for direct discharge after reactions. This feature greatly reduces the need for manual transfer and cleaning, especially with viscous or heat-sensitive samples. It helps avoid spillage and supports a more contained working area. unit ensures less handling fatigue for users who work with repetitive procedures. The rotation angle is engineered to give enough tilt for safe drainage. There's no need to detach multiple parts, which speeds up operation time. It ensures ergonomic handling remains integral to reactor operation. This thoughtful movement mechanism improves everyday workflow reliability.

2. Can the Jacketed Glass Reactor maintain stability during high-speed mixing?

The Jacketed Glass Reactor is supported by a well-balanced frame and base, reducing vibration during intense mixing operations. Stability is maintained even when materials with different densities or viscosities are mixed. reactor ensures continuous stirring without affecting structural integrity or platform alignment. The motor assembly is also anchored to minimise operational shaking. This setup prevents material loss caused by sudden shifts during stirring. The sturdy frame assists in high-load applications without tilting or displacing the vessel. Users working with heavy solvents or complex mixtures benefit from consistent movement. Reliable physical support enhances confidence in repeated high-speed use.

3. Does the Jacketed Glass Reactor allow easy repositioning in shared lab environments?

Jacketed Glass Reactor is equipped with directional support features that help users reposition the reactor smoothly across lab spaces. This is especially useful for shared facilities where space rotation is necessary. Its mobility system reduces strain on staff by allowing guided movement without full disassembly. The frame’s design ensures the reactor remains balanced even while shifting position. It also helps in storage when the reactor is not in use for active projects. It makes sure the user experience isn’t compromised during lab transitions. Adjusting placement does not affect alignment or core unit setup. This results in dependable usage across multiple bench stations.

4. How accessible are the upper components of the Jacketed Glass Reactor for adjustments or inspection?

The Jacketed Glass Reactor features a support assembly that enables vertical repositioning of all components mounted above the vessel lid. This design helps technicians check connections or replace fittings without full disassembly. Adjustments can be made quickly during experimental runs or maintenance. glass reactor layout makes it easier to work around tall condenser fittings or sample inputs. It saves time compared to reactors with fixed heads. Users working with changing setups will find this especially beneficial. Smooth movement reduces the need for lifting or stretching awkwardly during use. Inspection becomes more straightforward, promoting safer lab practice.

5. How does the Jacketed Glass Reactor accommodate small-batch synthesis tasks?

The Jacketed Glass Reactor is designed with a vessel size that fits small-scale chemical processing without compromising functionality. It allows research teams to perform test reactions before upscaling to larger batches. unit is ideal for pilot work or when resources need to be conserved. The controlled environment ensures that even limited sample quantities receive consistent mixing and temperature exposure. This helps in developing formulation accuracy in a controlled setting. Researchers dealing with limited or expensive inputs benefit from targeted reaction handling. The vessel dimension and design maintain system efficiency despite smaller volume. Overall, it supports cost-conscious experimental planning.

6. What safety measures are integrated in the Jacketed Glass Reactor against overpressure or thermal risks?

Jacketed Glass Reactor includes safety-enhancing design choices aimed at preventing accidental overpressure or overheating during use. The framework supports pressure balance without relying on fragile fittings. equipment keeps the working zone clear of exposed contact points during operation. Temperature-regulated flow within the jacket helps avoid abrupt spikes. Lab users can monitor changes without dismantling the entire setup. This is especially vital for educational and shared spaces where multiple operators may interact with the unit. Protective elements limit exposure to accidental overreactions. Stability and containment are central to its design structure.