비접촉식 의료용 초음파미스트 분무를 위한 노즐 팁 성능 개선Improvement of Nozzle Tip Performance for Noncontact Medical Ultrasonic Mist Spraying
- Other Titles
- Improvement of Nozzle Tip Performance for Noncontact Medical Ultrasonic Mist Spraying
- Authors
- 정승혁; 전종혁; 원지영; 김성민; 임홍석
- Issue Date
- Jun-2024
- Publisher
- 한국정밀공학회
- Keywords
- Computational fluid dynamics; Discrete phase model; Ultrasonic mist therapy; Nozzle tip; Noncontact spraying; 전산유체역학; DPM; 초음파미스트 치료법; 노즐 팁; 비접촉 분무
- Citation
- 한국정밀공학회지, v.41, no.6, pp 489 - 496
- Pages
- 8
- Indexed
- SCOPUS
KCI
- Journal Title
- 한국정밀공학회지
- Volume
- 41
- Number
- 6
- Start Page
- 489
- End Page
- 496
- URI
- https://scholarworks.dongguk.edu/handle/sw.dongguk/22168
- DOI
- 10.7736/JKSPE.024.042
- ISSN
- 1225-9071
2287-8769
- Abstract
- Chronic wounds necessitate periodic treatment and management due to their potential for serious complications. Recently,ultrasonic mist therapy has been introduced to treat chronic wounds efficiently. This therapy requires a noncontact sprayingmethod to prevent side effects such as bacterial infections and pain. Therefore, research is needed on a spray nozzle tip thatcan effectively transmit ultrasonic energy to the wound target with misted cleaning solution mobility in a specific direction andat an appropriate speed. The performance of the nozzle tip is greatly affected by the flow characteristics inside it.
Computational fluid dynamics (CFD) is a powerful tool to analyze these characteristics in detail. The behavior of the mist wasanalyzed in a simulation based on discrete phase model methodology in an unsteady state. Valid design parameters enablingnoncontact cleaning were determined by setting the design parameters of the nozzle tip`s internal flow path and measuring thespraying speed of the mist using CFD analysis. Through the simulation results, information on the sprayed skin surface andspray characteristics are measured. Lastly, we present a nozzle tip design guide optimized for ultrasonic mist therapy.
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- Appears in
Collections - College of Life Science and Biotechnology > Department of Biomedical Engineering > 1. Journal Articles

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