Inert Atmosphere Glove Box

Inert Atmosphere Glove Box Specification

Features
lower PPM

Control Type
PLC

Heating Capacity
100 Decibel-milliwatt (dBm)

Usage
Creating Inert Atmosphere

Width
750 Millimeter (mm)

Display Type
HMI Touch Screen

Length
1200 Millimeter (mm)

Glass Type
Tempered Glass

Power Supply
240 VAC

Temperature Resistance
300

Color
White & blue

Weight
350 Kilograms (kg)

Shape
Rectangular

Height
900 Millimeter (mm)

Product Type
Lab Equipments

Type
Adapters

Equipment Materials
PVC

Power
16 Ampere (amp)

Capacity (Ltr)
2200 Cubic Inches (in3)

Inert Atmosphere Glove Box Trade Information

Minimum Order Quantity
1 Piece

Delivery Time
900 Days

About Inert Atmosphere Glove Box

An inert atmosphere glove box is a sealed, airtight chamber with a controlled environment for handling materials that are sensitive to air or moisture. It uses inert gases like argon or nitrogen to replace the oxygen and moisture, creating a protected atmosphere that typically maintains oxygen and water levels below 1 part per million (ppm). Researchers use this system to safely manipulate and store sensitive substances in scientific fields such as chemistry, biology, and material science.

Components and function

Sealed enclosure:

The box is a sealed container made of metal or other robust materials with a transparent window for visibility.
Gloves:

Thick, flexible gloves are built into the walls of the box, allowing researchers to manipulate materials inside without opening the chamber.
Inert gas:

The air inside is replaced with an inert gas (like argon or nitrogen) to prevent any chemical reactions with the samples.
Purifier:

A purifier circulates the inert gas to remove any remaining oxygen or moisture, ensuring a highly pure atmosphere.
Transfer chamber:

A small, secondary airlock chamber allows for the safe transfer of items into and out of the main glove box without compromising the atmosphere inside.

Applications

Chemical synthesis:

Used for handling air-sensitive reagents, catalysts, or other compounds critical for many synthesis methods.
Material science:

Essential for handling reactive materials like those used in batteries, solar cells, or 3D printing of metals.
Biochemical research:

Necessary for working with oxygen-sensitive enzymes and compounds to maintain their stability and activity.
Other uses:

Also used in nuclear applications, medical device manufacturing, and the handling of electronic components.