| Main Chamber Dimension (L×B×H) | 1000 × 750 × 700mm |
| Material Thickness | 6 mm |
| H₂O and O₂ Content | 200 to 300 PPM |
| Side Door Dimension (L×B) | 400 × 400mm |
| Ball Valve | 304 Stainless Steel balloon valve with integrated water nozzles for air or water entry |
| Power Socket | Multi hole power sockets |
| Reserved Interface | KF reserved interface |
| Power Supply | 220V, 50Hz / 60Hz |
| Packing Dimension (L×B×H) | 1380 × 870 × 920 mm |
| Net Weight | 47kg |
Acrylic Glove Box ADAGB-506 is used in industrial R&D and quality control labs for sample preparation and testing. It provides a stable atmosphere for critical processes.
1. How does Acrylic Glove Box ADAGB-506 achieve a high-purity environment?
The Acrylic Glove Box ADAGB-506 repeatedly vacuum-purges and fills with high-purity inert gas, replacing air and moisture to maintain a stable, low-H?O, low-O? environment suitable for precise laboratory work.
2. Can instruments be connected through the valves of the Acrylic Glove Box ADAGB-506?
Yes, instruments such as rotary coating machines can be placed inside Acrylic Glove Box ADAGB-506 and evacuated via the ball valves. This allows seamless operation of equipment inside the controlled chamber without compromising the purity or stability of the environment.
3. Can all laboratory instruments be connected to Acrylic Glove Box ADAGB-506?
Acrylic Glove Box ADAGB-506 sockets support a variety of standard laboratory instruments, but users should ensure devices comply with the glove box’s power rating (220V, 50/60Hz) to avoid overload and maintain safe, uninterrupted operation within the controlled environment.
4. How are the gloves in Acrylic Glove Box ADAGB-506 attached to the glove ports?
The gloves in Acrylic Glove Box ADAGB-506 are securely fixed to the ports using robust sealing rings, ensuring an airtight connection. This prevents leaks and maintains the controlled low-H?O and low-O? environment inside the glove box for safe experiments.
5. Does using the KF interface affect chamber integrity in the Acrylic Glove Box ADAGB-506?
No, the KF interface is designed to maintain airtight sealing. Adding instruments or upgrades through it does not compromise the glove box’s low-moisture, low-oxygen environment or operational safety.
6. Why choose acrylic material for a glove box?
Acrylic is an ideal choice because it is lightweight yet highly durable, offering long-lasting performance. Its excellent transparency ensures clear visibility during experiments, while the smooth, non-porous surface provides strong chemical resistance and makes cleaning simple and efficient.
7. Can an Acrylic Glove Box maintain a controlled atmosphere?
Yes, Acrylic Glove Boxes can be equipped with gas inlet/outlet ports and purging systems that allow operation under inert gas or low-humidity conditions. This ensures safe handling of moisture-sensitive, air-sensitive, or hazardous materials in research and industrial processes.
8. Is the Acrylic Glove Box easy to clean and maintain?
Yes, the non-porous acrylic surface makes the glove box simple to clean and maintain. Regular wiping with suitable cleaning agents keeps it clear and contamination-free, ensuring durability and hygiene for long-term laboratory or industrial use without compromising performance.
| Main Chamber Dimension (L×B×H) | 900 × 500 × 500 mm |
| Antechamber Dimension(L×B×H) | 260 × 260 × 260mm |
| H₂O and O₂ Content | 200 to 300 PPM |
| Main Chamber Dimension (L×B×H) | 1000 × 750 × 700 mm |
| Antechamber Dimension(L×B×H) | 260 × 260 × 260mm |
| H₂O and O₂ Content | 200 to 300 PPM |
| Main Chamber Dimension (L×B×H) | 700 × 450 × 550 mm |
| Antechamber Dimension(L×B×H) | 260 × 260 × 260mm |
| H₂O and O₂ Content | 200 to 300 PPM |
| Main Chamber Dimension (L×B×H) | 300 × 400 × 500mm |
| Material Thickness | 6 mm |
| H₂O and O₂ Content | 200 to 300 PPM |
| Main Chamber Dimension (L×B×H): | 600 × 450 × 450mm |
| Thickness : | 3mm |
| Vacuum Degree: | -0.1mpa |
| Material: | Stainless steel |
| Air Lock Size: | 200 mm dia. x 260 mm length |
| Main Chamber Size: | 550 mm (W) x 440 mm (D) x 410 mm (H) |
| Main Chamber Dimension (L×B×H): | 1120 × 750 × 900mm |
| Thickness : | 3mm |
| Vacuum Degree: | -0.1mpa |
| Main Chamber Dimension (L×B×H): | 800 × 650 × 680mm |
| Thickness : | 3mm |
| Vacuum Degree: | -0.1mpa |
| Main Chamber Dimension (L×B×H): | 1120 × 750 × 900mm |
| Thickness : | 3mm |
| Vacuum Degree: | -0.1mpa |
| Main Chamber Dimension (L×B×H): | 600 × 450 × 450mm |
| Thickness : | 3mm |
| Vacuum Degree: | -0.1mpa |
| Main Chamber Dimension (L×B×H): | 800 × 650 × 680mm |
| Thickness : | 3mm |
| Vacuum Degree: | -0.1mpa |
| Working Gas: | Nitrogen, argon (gas purity 99.999%) |
| H₂O and O₂ Index: | Less than 1PPM |
| Circulating Capacity: | Integrated fan flow rate of 90m³/h |
| Working Gas: | Nitrogen, argon (gas purity 99.999%) |
| H₂O and O₂ Index: | Less than 1PPM |
| Material: | Stainless steel, 3mm thickness |
| Working Gas: | Nitrogen, argon (gas purity 99.999%) |
| H₂O and O₂ Index: | Less than 1PPM |
| Circulating Capacity: | Integrated fan flow rate of 90m³/h |
| Working Gas: | Nitrogen, argon (gas purity 99.999%) |
| H₂O and O₂ Index: | Less than 1PPM |
| Circulating Capacity: | Integrated fan flow rate of 90m³/h |
| Working Gas: | Nitrogen, argon (gas purity 99.999%) |
| H₂O and O₂ Index: | Less than 1PPM |
| Circulating Capacity: | Integrated fan flow rate of 90m³/h |