Horizontal laminar flow cabinet with a low background and clean air
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Keywords

laminar flow cabinet
prototype
airflow testing

How to Cite

Samborski, T., Zbrowski, A., & Kozioł, S. (2024). Horizontal laminar flow cabinet with a low background and clean air. Technologia I Automatyzacja Montażu (Assembly Techniques and Technologies), 125(3), 12-20. https://doi.org/10.7862/tiam.2024.3.2

Abstract

The publication presents the design, construction of a prototype, and the course of verification tests of a special horizontal laminar flow cabinet made entirely of plastics. In the cabinet design process, numerical simulations and airflow analyses were used to achieve a laminar, uniform flow in the device's workspace. A prototype was built and subjected to verification tests regarding the intensity and nature of airflow as well as air cleanliness. The cabinet is equipped with its own filtration-ventilation module providing clean air to the workspace and removing used air to the external ventilation system. It ensures an increased level of protection for workers dealing with microorganisms and hazardous airborne chemicals, as well as complete corrosion resistance inside the workspace. A particular area of application for the cabinet is research involving radionuclides, volatile, toxic chemical compounds for which air-recirculating devices cannot be used in the room where they are placed. The developed solution has been protected by industrial property rights and used to implement a contract for the supply of a set of equipment to the laboratory of the Institute of Nuclear Physics of the Polish Academy of Sciences.

https://doi.org/10.7862/tiam.2024.3.2
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References

Barbosa, B. P. P., & Brum, N. D. C. L. (2017). Sensitivity tests of biological safety cabinets' contaminant contention to variations on indoor flow parameters in biosafety level laboratories. Building and Environment, 124, 1-13.

A Guide to Biosafety & Biological Safety Cabinets, Esco Lifesciences, https://www.escolifesciences.com, (dostęp 16.04.2024).

Jones, R. L., & Eagleson, D. (2001). Ergonomic considerations in the development of a class II, type A/B3 biological safety cabinet. American clinical laboratory, 20(4), 37-42.

Kozioł S., Matecki K., Samborski T., Siczek M., Wojutyński J., Zbrowski A. 2019. Overpressure chamber for testing in high air purity conditions. Journal of Machine Construction and Maintenance (3): 81–90

Kozioł S., Samborski T., Siczek M., Zbrowski A. 2021. System for testing resistance for static exposure to dust. Technologia i automatyzacja montażu (4): 24-28.

Lapamnouysup, A., Ganjanasiripong, P., Kaewpan, A., & Chuen-im, T. (2022). Comparative study of product contamination rates in class II biological safety cabinets with and without ultraviolet light disinfection. Science, Engineering and Health Studies, 22030004-22030004.

Miring’u, G., Bundi, M., Muriithi, B. K., Apondi, E. W., Galata, A. A., Kathiiko, C. N., ... & Ichinose, Y. (2017). Knowledge and practices regarding usage of biological safety cabinets. Applied Biosafety, 22(1), 38-43.

Parks, Simon & Hookway, Helen & Kojima, Kazunobu & Bennett, Allan. (2022). The Impact of Air Inflow and Interfering Factors on the Performance of Microbiological Safety Cabinets. Applied biosafety: journal of the American Biological Safety Association. 27. 23-32. 10.1089/apb.2021.0010.

Pawar, S. D., Khare, A. B., Keng, S. S., Kode, S. S., Tare, D. S., Singh, D. K., & Mullick, J. (2021). Selection and application of biological safety cabinets in diagnostic and research laboratories with special emphasis on COVID-19. Review of Scientific Instruments, 92(8).

Rp.27206. 2021. Komora laminarna.

Samborski T., Zbrowski A., Kozioł S. 2022. Test system to verify thermal shock resistance. Technologia i automatyzacja montażu (2): 24-31.

Vellutato, A. (2021). Cleaning and Disinfecting Laminar Flow Workstations, Bio Safety Cabinets and Fume Hoods. In Handbook of Validation in Pharmaceutical Processes, Fourth Edition (pp. 419-428). CRC Press.