$10,483.00
| Main Box Dimension | 1000 × 750 × 700 mm |
| Material | PMMA |
| PMMA Thickness | 30 mm |
| Left Round Door | 300 mm |
| Gloves | 2 |
| Glove Box Vacuum | -0.1 Mpa |
| Transition Box | Yes |
| Transition Box Dimension | 240 × 240 × 240 mm |
| Product Dimension | 100 × 75 × 70 cm |
| Package Dimension | 136 × 83 × 78 cm |
| Net Weight | 202 Kg |
| Gross Weight | 226 Kg |
Our Acrylic Glove Box BZAGB-506C finds its purpose in academic laboratories, research centres, nanotech environments, and materials science. The clear and robust PMMA design offers a contamination-free zone ideal for controlled experiments and inert material handling. Its compact footprint makes it suitable for workbenches and restricted lab spaces, ensuring precise results in high-sensitivity applications.
Frequently Asked Questions
1: How Do You Ensure an Airtight Seal During Operation?
The box uses precision-engineered acrylic joints and high-quality gaskets around the glove ports, transition chamber, and access panels. Tightening knobs and compression fittings further improve the seal, allowing for vacuum and pressurization without leaks.
2: Can You Quickly Access Samples Inside the Box?
Yes, the presence of a transition box allows for relatively quick sample transfer without needing to open the main chamber. This protects the internal atmosphere while making it convenient to add or remove materials.
3: What Are the Applications of the Acrylic Glove Box in Laboratories?
This glove box is widely used in chemistry, electronics, pharmaceuticals, and biology. It provides a controlled environment for conducting experiments, assembling sensitive devices, and handling materials that react with air or moisture.
4: Can You Replace or Upgrade Components Like Valves and Gauges?
Yes, components such as valves, gauges, and glove ports are replaceable. If you require specific types of fittings, stainless steel upgrades, or digital gauges, these can often be added or customized based on your needs.
5: How Is the Box Designed to Withstand Vacuum Pressure?
The box is constructed with 20–30 mm thick acrylic walls, reinforced seams, and a stable base. This robust design ensures that the structure holds under vacuum conditions up to -0.1 MPa, preventing collapse or distortion.
6: What Is an Acrylic Glove Box Used For?
An Acrylic Glove Box is used to create a sealed and controlled environment for conducting experiments. It helps isolate materials from air, moisture, dust, and contaminants. This makes it suitable for chemical, biological, or electronic research. Users can manipulate objects inside safely through attached gloves. It’s essential for clean and precise lab work.
7: What Materials Are Used in This Acrylic Glove Box?
The Acrylic Glove Box is made of clear, durable acrylic panels, providing high visibility and structural strength. It features latex gloves for hand access, which are soft and flexible. Gas inlet and outlet valves are made of stainless steel, offering durability and corrosion resistance. All materials are chosen for lab safety and reliability.
8: Is the Acrylic Glove Box Airtight?
Yes, the Acrylic Glove Box is designed to be airtight. The front door uses a sealing gasket and latches to prevent any air exchange with the outside. This ensures a stable atmosphere inside, which is crucial for sensitive tasks. Airtightness also protects both users and contents from contamination. It maintains the integrity of experiments.
9: How Do You Introduce Gas Into the Acrylic Glove Box?
Gas is introduced through the stainless steel inlet and outlet valves built into the Acrylic Glove Box. These valves allow you to purge the interior with inert gases like nitrogen or argon. This helps in creating a dry and oxygen-free environment. The process is straightforward and supports many types of scientific experiments. Pressure can be controlled safely.
10: Can the Acrylic Glove Box Be Used for UV Experiments?
Yes, the Acrylic Glove Box can support UV-based experiments. Its clear acrylic body allows limited UV transmission, which is useful for sterilization or polymer curing. However, compatibility depends on the wavelength of UV light used. It’s ideal for microbiology work or UV testing when used properly. Always follow safety guidelines when using UV light.