Laboratory Glove Box Systems – Acrylic and Stainless Steel Options for

1. Introduction

A laboratory glove box system is essential for creating a sealed, low-oxygen and low-moisture environment when handling sensitive or hazardous materials. From acrylic glove boxes with single or transfer chambers to stainless steel glove boxes with advanced gas purification, researchers can select the most suitable model based on their application. Whether for chemical handling, teaching labs, battery R&D, or semiconductor research, these glove boxes provide a secure and stable environment for experimental work and material storage.

2. Key Features / Benefits

Transparent Acrylic (PMMA) Construction – Lightweight, cost-effective, and ideal for teaching and chemical handling.
Transfer Chamber Options – Safe material transfer without disturbing the glove box atmosphere.
Stainless Steel High-Purity Systems – Ultra-low oxygen/moisture levels (<1 ppm) for advanced research.
Gas Purification Integration – Equipped with molecular sieves and catalysts for continuous inert control.
Flexible Configurations – Available in compact single chambers or large-scale multi-chamber systems.

3. Applications & Use Cases

Chemical Handling – Safe work with hazardous but non-corrosive reagents.
Teaching and Training – Transparent acrylic glove boxes are perfect for student demonstrations.
Battery R&D – Stainless steel glove boxes with purification enable handling of air- and moisture-sensitive powders.
Semiconductor & OLED Research – Inert environments prevent oxidation and contamination.
General Storage – Protecting delicate or hazardous materials in controlled conditions.

4. Comparison / Buying Guide

Acrylic Glove Boxes: Cost-effective, lightweight, transparent, suitable for standard laboratory applications (300–400 ppm O₂/H₂O). Best for teaching labs and general chemical handling.
Stainless Steel Glove Boxes with Purification: High durability, capable of achieving <1 ppm oxygen and moisture, suitable for battery research, semiconductor, and advanced R&D.

Buying Tip: Choose acrylic glove boxes if you need an affordable solution for training and basic lab use. Select stainless steel glove boxes if your research requires ultra-dry, high-purity environments.

5. Technical Specifications

Product No.	Type	Main Chamber Dimensions	Chamber Pressure	Oxygen & Moisture Control	Key Features
1. Acrylic Glove Box [Single Chamber]	Acrylic (PMMA)	Multiple sizes (700–1200 mm)	±1000 Pa	300–400 ppm	Transparent PMMA, single chamber, cost-effective
2. Acrylic Glove Box [With Transfer Chamber]	Acrylic (PMMA)	Multiple sizes (700–1200 mm)	±1000 Pa	300–400 ppm	Side transfer chamber, flexible glove ports
3. Stainless Steel Glove Box with Gas Purification System (113L & 354L)	Stainless Steel 304	113L / 354L	Closed-loop system	<1 ppm	BASF catalysts, touchscreen PLC control
4. Economy Compact Stainless Steel Glove Box [Antechamber Included]	Stainless Steel 304	Compact design	Stable inert atmosphere	<1 ppm	Integrated antechamber, tempered glass window
5. Economy Compact Stainless Steel Glove Box [Without Antechamber]	Stainless Steel 304	Compact design	Stable inert atmosphere	<1 ppm	Space-saving, robust build, observation window

6. How to Use / Installation Guide

Place the glove box on a stable laboratory bench.
Connect to an inert gas supply (argon or nitrogen).
Purge the chamber until desired oxygen/moisture levels are achieved.
Use the transfer chamber or antechamber for safe sample transfer.
Install optional oxygen and humidity sensors for real-time monitoring.

7. Maintenance / Safety Tips

Avoid corrosive organic reagents in acrylic glove boxes.
Regularly check gloves and seals for leaks.
Replace filters and catalysts in stainless steel purification systems as scheduled.
Protect acrylic units from UV exposure to prevent degradation.
Maintain continuous gas circulation for stable inert conditions.

8. FAQ

Q1: What is the difference between an acrylic and stainless steel glove box?
A1: Acrylic glove boxes are lightweight, transparent, and cost-effective for teaching and standard chemical handling. Stainless steel glove boxes provide ultra-low O₂/H₂O levels for advanced R&D.

Q2: Can these glove boxes be used for battery research?
A2: Acrylic glove boxes (300–400 ppm) are not suitable for sensitive battery powders. Stainless steel glove boxes with purification are recommended for battery R&D.

Q3: How do I maintain low oxygen and moisture in my glove box?
A3: Continuous purging with inert gas, combined with oxygen and humidity monitoring accessories, ensures stable conditions.

Q4: Do all models have transfer chambers?
A4: Not all. The Acrylic with Transfer Chamber and Economy Stainless Steel with Antechamber include safe transfer compartments, while others are single chamber.

Q5: What accessories are available?
A5: Options include oxygen sensors, humidity monitors, vacuum pumps, and automated controllers for precise atmosphere regulation.

9. Conclusion

From affordable acrylic glove boxes for teaching and chemical handling to high-purity stainless steel glove box systems for advanced research, laboratories can choose the right enclosure for their needs. With configurations ranging from compact designs to gas purification systems achieving <1 ppm O₂/H₂O, these glove boxes provide reliable, secure, and flexible environments for a wide range of scientific applications.

10. External Academic References / Further Reading

Burmeister, C. F., & Kwade, A. (2013). Process engineering with planetary ball mills. Chemical Society Reviews. Read Article
Zhao, Y., Yamada, H., & Jimbo, G. (1989). The Mechanism and Grinding Limit of Planetary Ball Milling. ResearchGate PDF
Rout, R. et al. Use of a Planetary Ball Mill for Cryogenic Grinding of Yeast Cells. American Laboratory. Read Here
PMC Article: Effects of the Speed Ratio on the Efficiency of Planetary Mills. Read Article

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