Acrylic Glove Box LAGB-T2011

Introduction

Acrylic Glove Box has an antechamber which acts as a bridge between the main chamber and the outer atmosphere and allows safe transfer of sensitive materials. Its antechamber is also clear for the experimental process to me, visually, without dead corners. The glove box has a fast gas exchange system to decrease the time of gas transfer. Our glove box is used in handling sensitive cases requiring inert atmospheres, such as battery research, biological studies, and material sciences.

This glove box is designed to meet the rigorous requirements of modern laboratory operations, ensuring high precision, reliability, and ease of use for various experimental applications.

Applications

Our Acrylic Glove Box provides an inert environment for working on sensitive materials. The glove box has acrylic material, which is non-yellowing and durable, allowing a clear view at every angle. Our glove box is a versatile machine and is used for the aerospace field as well as testing the assembly of spacecraft.

Specifications

Main Chamber Dimensions	800 × 550 × 600 mm
Material Thickness	6 mm
Vacuum Degree	-0.1 Pa
Chamber Pressure	Up to 1000 PA
Antechamber Dimension	240 × 240 × 240 mm
Side Door Dimension	300 × 300 mm

Features

Transparent Design

Acrylic material for durability

Desktop design

Automatic pressure control

User-friendly operation 

FAQs

1. What are the typical applications of Acrylic Glove Boxes?

Acrylic Glove Boxes are commonly used in research fields where controlled environments are critical. Typical applications include lithium battery assembly, organic chemical synthesis, and biological research, semiconductor processing, and handling of air-sensitive or moisture-sensitive substances. Industries like pharmaceuticals, electronics, and materials science also rely on them to maintain sample integrity during experiments, preventing unwanted reactions that could result from exposure to air, humidity, or other environmental factors.

2. What materials are used in constructing Acrylic Glove Boxes?

The Acrylic Glove Boxes are constructed mainly from high-quality transparent acrylic (), known for its excellent optical clarity, durability, and chemical resistance. Additional components, such as gas inlet and outlet ports, valves, and hinges, are typically made from corrosion-resistant stainless steel (SUS304). This combination of materials ensures the glove box is robust, easy to maintain, and capable of providing a secure, sealed environment for sensitive experimental operations.

3. What is the typical wall thickness of these glove boxes?

The wall thickness of Acrylic Glove Boxes generally ranges from 6 mm to 30 mm, depending on the model and intended use. Thicker walls provide greater structural strength and better vacuum resistance. Laboratories dealing with higher pressure differentials or mechanical stress typically opt for thicker walls. Meanwhile, lighter, portable versions designed for standard inert gas environments can function effectively with a 6-10 mm wall thickness.

4. How is the internal atmosphere controlled?

The internal atmosphere of a Acrylic Glove Box is controlled by purging the chamber with an inert gas, such as nitrogen or argon, which displaces ambient air. Gas flow meters, valves, and optional sensors monitor and adjust the internal environment to maintain low oxygen and moisture levels. In more advanced models, automatic systems regulate pressure, humidity, and oxygen content continuously to maintain the desired environmental conditions for sensitive experiments.

5. What safety features are included?

Acrylic Glove Box comes with several safety features to ensure user and sample protection. Standard features include anti-static grounding connections, pressure relief valves, vacuum gauges, and high-quality sealing gaskets to prevent leaks. Some models may offer overpressure alarms or emergency venting systems. Its safety measures prevent potential hazards such as glove rupture, contamination, or gas leaks, making the boxes suitable for both routine and critical laboratory operations.