Vertical Laminar Airflow Cabinet ADVL-512 maintains optimal storage conditions with a wind speed range of 0.3 to 0.6 m/s. Equipped with a low-noise centrifugal fan that ensures stable performance, it provides quiet and consistent airflow. A large LCD display offers real-time status updates, enhancing user monitoring. Constructed from stainless steel, the unit is both durable and corrosion resistant. It is commonly used in research and laboratory settings where a clean, controlled environment is essential to prevent contamination.
Internal Dimensions (W×D×H) | 830×650×520 mm |
Exterior Dimensions (W×D×H) | 990×700×1650 mm |
Airflow Direction | Vertical |
Wind Speed | 0.3 to 0.6 m/s |
Cleanliness Class | 100 |
Noise | ≤67 dB |
Vibration of Half Peak | ≤5 µm |
Illuminance | ≥300 Lux |
Persons Per Side | 1 |
Working Sides | 1 |
Dimensions of HEPA | 780×565×50 mm |
Number of HEPA | 1 pc |
Lamp Power | 20/1 pc |
UV Light Power | 20/1 pc |
Power Consumption | 0.15 kW |
Power Supply | 220±10 V, 50/60 Hz |
Package Dimensions (W×D×H) | 1110×820×1820 mm |
Net Weight | 140 kg |
Gross Weight | 162 kg |
Vertical Laminar Airflow Cabinet ADVL-512 is used to prevent contamination of cultured cells and biological samples in laboratories and the pharmaceutical industry.
1. What are the benefits of using Vertical Laminar Airflow compared to traditional clean benches?
Vertical Laminar Airflow offers better protection for tall equipment and provides more ergonomic workspace access compared to traditional horizontal flow systems. It reduces the risk of backflow and turbulence from large objects. Vertical Laminar Airflow is also safer when working with procedures that generate particulates, as contaminants are pushed directly down and away from the work area.
2. What types of materials are suitable for construction of Vertical Laminar Airflow cabinets?
Vertical Laminar Airflow cabinets are typically constructed using stainless steel or powder-coated mild steel to ensure durability and easy cleaning. The work surface is usually made of stainless steel or perforated metal for smooth airflow. Transparent acrylic or tempered glass is used for front panels. These materials make Vertical Laminar Airflow cabinets corrosion-resistant and suitable for sterile environments.
3. How does Vertical Laminar Airflow differ from horizontal laminar airflow?
Vertical Laminar Airflow directs clean air from the top of the cabinet downward, while horizontal laminar airflow pushes air from the back wall toward the user. Vertical Laminar Airflow is better for applications involving taller equipment or where downward air pressure helps push contaminants away. It also reduces operator exposure to exhaust airflow, offering a cleaner zone for critical work.
4. Is Vertical Laminar Airflow suitable for use in tissue culture labs?
Yes, Vertical Laminar Airflow is ideal for tissue culture labs because it offers a sterile environment that protects cultures from airborne contaminants. The downward laminar flow maintains clean air over the entire workspace. Vertical Laminar Airflow units help prevent fungal or microbial contamination, which is critical when working with delicate biological samples.
5. Can UV lights be safely used inside a Vertical Laminar Airflow cabinet?
Yes, UV lights can be safely used in Vertical Laminar Airflow cabinets, but only when the unit is not in use and no one is present. UV sterilization is effective for decontaminating surfaces before or after work. However, during operation, UV lights should be turned off to avoid health hazards. Vertical Laminar Airflow with UV features should follow proper safety protocols.
6. What testing is done during Vertical Laminar Airflow validation or certification?
Validation of Vertical Laminar Airflow includes airflow velocity testing, HEPA filter integrity testing, particle count measurement, and smoke pattern testing. These ensure that the cabinet meets ISO Class 5 standards and provides consistent protection. Certification is usually done annually or semi-annually to verify that the Vertical Laminar Airflow is performing to standard operating requirements.
Internal Dimensions (W×D×H) | 870×700×520 mm |
Exterior Dimensions (W×D×H) | 990×724×1650 mm |
Airflow Direction | Vertical |
$1,480.00
Internal Dimensions (W×D×H) | 830×650×520 mm |
Exterior Dimensions (W×D×H) | 990×700×1650 mm |
Airflow Direction | Vertical |
$1,580.00
Internal Dimensions (W×D×H) | 1300×700×495 mm |
Exterior Dimensions (W×D×H) | 1460×744×1680 mm |
Airflow Direction | Vertical |
$2,360.00
Internal Dimensions (W×D×H) | 830×700×495 mm |
Exterior Dimensions (W×D×H) | 900×744×1680 mm |
Airflow Direction | Vertical |
$1,990.00
Internal Dimensions (W×D×H): | 1570×480×570 mm |
Exterior Dimensions (W×D×H): | 1570×790×1380 mm |
Airflow Direction: | Horizontal |
$2,480.00
Velocity: | 0.3 to 0.6 m/s |
Half Peak Amplitude: | ≤ 3µm |
Number of Colonies: | ≤ 0.5 dish/hr |
Velocity: | 0.3 to 0.6 m/s |
Half Peak Amplitude: | ≤ 3µm |
Number of Colonies: | ≤ 0.5 dish/hr |
Velocity: | 0.3 to 0.6 m/s |
Half Peak Amplitude: | ≤ 3µm |
Number of Colonies: | ≤ 0.5 dish/hr |
Velocity: | 0.3 to 0.6 m/s |
Half Peak Amplitude: | ≤ 3µm |
Number of Colonies: | ≤ 0.5 dish/hr |
Internal Dimensions (W×D×H): | 910×480×570 mm |
Exterior Dimensions (W×D×H): | 910×790×1380 mm |
Airflow Direction: | Horizontal |
$1,850.00