Jacketed Glass Reactor LJGR-T2046

Introduction

It is the supplier of Jacketed Glass Reactor with a 100 mm drain port clearance that supports safe discharge and convenient sample collection. Its 25 mm jacket interface ensures steady liquid circulation using standard thermal connectors.

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 temperature-controlled chemical reactions for material synthesis, distillation, and concentration. This enables consistent results in pharmaceutical, chemical, and academic research environments.

Specifications

Glass Vessel Volume	1 L Cylindrical
Dropping Funnel Volume	200 ml
Dropping Funnel Interface	24/29
Glass Vessel Flange	Φ 105 mm
Glass Vessel Opening OD	Φ 150 mm
Glass Material	3.3 Borosilicate
Support Parts of Stirrer	and glass
Bottom Valve ID	Φ 10mm
Jacket interface	25 mm
Jacket Interface Pressure Limit	Less than or equal to 0.03 Mpa
Circulation Hose Connection Port	Rc1/2 and Rc3/4
Glass Vessel Lid Openings	5
Center Opening of Lid	24/40
Side Opening of Lid	24/40×3, 19/26
Seal Ring on Vessel Lid	Φ148×Φ105×3
Drain Port Ground Clearence	100 mm
Stirring Speed	40 to 500 rpm
Condenser Interface	24/29
Condenser Area	0.025 m
Receiving Bottle	Optional
Power Consumption	50 W
Dimensions (W×D×H)	480×420×1100 mm

Features

Glide-action vessel rotation

Impact-resistant glass framework

Corrosion-resistant sealing components

Vibration-dampening motor mount

Adjustable stirring speed mechanism

FAQs

1. Can the Jacketed Glass Reactor support reactive media without contamination risks?

Jacketed Glass Reactor integrates chemically resistant contact components, making it suitable for handling reactive compounds in demanding environments. The internal parts that meet media are composed of specialized materials that reduce interaction with corrosive or volatile samples. This structural integrity allows complex chemical transformations without compromising purity. Its configuration protects both reagents and operators from cross-reaction concerns. The inner pathway is designed to restrict leaching or byproduct interference. No residual traces from previous batches impact current processes. This makes it ideal for pharmaceutical synthesis and intermediate trials. Researchers working on sensitive media benefit from reduced cross-contamination concerns.

2. Can the Jacketed Glass Reactor be configured for filtration-based operations?

Jacketed Glass Reactor is compatible with optional structural configurations for filtration work. When requested, the design can incorporate filter-supporting components to separate solids from liquid phases within the same unit. This allows sample clarification, crystallization work, and post-reaction separation in a single container. The discharge mechanism can be modified to support filtrate collection, removing the need to transfer contents externally. These adaptations retain the jacket’s thermal control functionality. Operating with minimal transfer ensures reduced exposure to air-sensitive compounds. The reactor maintains full visibility, even during filtration, supporting real-time visual checks. This makes it ideal for workflows needing rapid purification steps.

3. How does the Jacketed Glass Reactor reduce mechanical strain during repeated experiments?

The Jacketed Glass Reactor includes ergonomic build elements that support researchers during extended usage. Its structure and port positioning allow access without repetitive awkward motions. Stirring adjustments, temperature circulation, and sample collection can be managed from a single operator station. The insulation hoses also play a critical role by absorbing tension from pipe installations. These reduce potential impact to the vessel walls caused by frequent disconnection. In addition, the robust base provides vibration dampening, even when operating at high speeds. Every component is arranged to lessen handling fatigue and increase safety. Users conducting long reaction cycles will find setup and teardown considerably less stressful.

4. Does the Jacketed Glass Reactor prevent leakage when using multiple lid ports simultaneously?

The Jacketed Glass Reactor features a well-constructed lid system that offers multiple entry points without compromising tightness. Its seal arrangement accommodates simultaneous insertion of probes, sensors, and funnels with reliable closure. This design eliminates air gaps that could otherwise affect pressure stability during prolonged operations. The interface design prioritizes practical utility in multi-variable test setups. Each opening is constructed to interlock with standard connectors while resisting distortion from repeated use. The integrity of the joint system remains unaffected when various instruments are inserted together. Even in dynamic stirring or thermal cycling, no vapor loss or spillage is observed. It allows uninterrupted control over complex workflows.

5. Is the Jacketed Glass Reactor suitable for volatile material recovery setups?

Jacketed Glass Reactor has been tailored to accommodate recovery systems for low-boiling compounds. The structural design supports downstream connectivity with condensers and receiving trays without modification. Its layout supports flow from reaction chamber to receiving point without spillage or evaporation. Volatile substances can be collected effectively without losing material integrity. The ports and transitions support integration with vapor collection accessories. Researchers working on solvent recovery, essential oil isolation, or distillation of light organics benefit from this compatibility. It also supports safe re-use of reagents where regulatory or cost considerations apply. Its pathway ensures minimal loss during collection.

6. Is the Jacketed Glass Reactor suitable for applications involving in-line sensor placement?

The Jacketed Glass Reactor offers side openings configured to support probe insertion without obstructing core operations. These entry points are distributed to allow simultaneous sensor placement for temperature, pH, or conductivity without overlap. The layout prevents sensor interference during stirring or heating. Probes can remain submerged throughout the run, providing continuous feedback. No special adapters are required, as standard glass joints are compatible. Researchers can implement real-time monitoring without redesigning their workflow. These sensor placements are ideal for kinetic studies, feedback-based dosing, or safety alarms. The vessel lid offers clean cable routing to reduce clutter.