Observing and Quantifying Airflows in the Infection Control of Aerosol- and Airborne-Transmitted Diseases: an overview of approaches

J. W. Tang, C. J. Noakes, Peter V. Nielsen, I. Eames, A. Nicolle, Y. Li, G. S. Settles

Research output: Contribution to journalReview articleResearchpeer-review

41 Citations (Scopus)

Abstract

With concerns about the potential for the aerosol and airborne transmission of infectious agents, particularly influenza, more attention is being focused on the effectiveness of infection control procedures to prevent hospital-acquired infections by this route. More recently a number of different techniques have been applied to examine the temporalespatial information about the airflow patterns and the movement of related, suspended material within this air in a hospital setting. Closer collaboration with engineers has allowed clinical microbiologists, virologists and infection control teams to assess the effectiveness of hospital isolation and ventilation facilities. The characteristics of human respiratory activities have also been investigated using some familiar engineering techniques. Such studies aim to enhance the effectiveness of such preventive measures and have included experiments with humanlike mannequins using various tracer gas/particle techniques, real human volunteers with realtime non-invasive Schlieren imaging, numerical modelling using computational fluid dynamics, and small scale physical analogues with water. This article outlines each of these techniques in a non-technical manner, suitable for a clinical readership without specialist airflow or engineering knowledge.
Original languageEnglish
JournalJournal of Hospital Infection
Volume77
Issue number3
Pages (from-to)213-222
Number of pages10
ISSN0195-6701
DOIs
Publication statusPublished - 2011

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Infection Control
Aerosols
Isolation Hospitals
Manikins
Hydrodynamics
Cross Infection
Human Activities
Human Influenza
Ventilation
Volunteers
Gases
Air
Water

Keywords

  • Aerosol
  • Airflow
  • Computational Fluid Dynamics
  • Mannequin
  • Schlieren
  • Transmission

Cite this

Tang, J. W. ; Noakes, C. J. ; Nielsen, Peter V. ; Eames, I. ; Nicolle, A. ; Li, Y. ; Settles, G. S. / Observing and Quantifying Airflows in the Infection Control of Aerosol- and Airborne-Transmitted Diseases : an overview of approaches. In: Journal of Hospital Infection. 2011 ; Vol. 77, No. 3. pp. 213-222.
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Observing and Quantifying Airflows in the Infection Control of Aerosol- and Airborne-Transmitted Diseases : an overview of approaches. / Tang, J. W.; Noakes, C. J.; Nielsen, Peter V.; Eames, I.; Nicolle, A.; Li, Y.; Settles, G. S.

In: Journal of Hospital Infection, Vol. 77, No. 3, 2011, p. 213-222.

Research output: Contribution to journalReview articleResearchpeer-review

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T2 - an overview of approaches

AU - Tang, J. W.

AU - Noakes, C. J.

AU - Nielsen, Peter V.

AU - Eames, I.

AU - Nicolle, A.

AU - Li, Y.

AU - Settles, G. S.

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AB - With concerns about the potential for the aerosol and airborne transmission of infectious agents, particularly influenza, more attention is being focused on the effectiveness of infection control procedures to prevent hospital-acquired infections by this route. More recently a number of different techniques have been applied to examine the temporalespatial information about the airflow patterns and the movement of related, suspended material within this air in a hospital setting. Closer collaboration with engineers has allowed clinical microbiologists, virologists and infection control teams to assess the effectiveness of hospital isolation and ventilation facilities. The characteristics of human respiratory activities have also been investigated using some familiar engineering techniques. Such studies aim to enhance the effectiveness of such preventive measures and have included experiments with humanlike mannequins using various tracer gas/particle techniques, real human volunteers with realtime non-invasive Schlieren imaging, numerical modelling using computational fluid dynamics, and small scale physical analogues with water. This article outlines each of these techniques in a non-technical manner, suitable for a clinical readership without specialist airflow or engineering knowledge.

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KW - Airflow

KW - Computational Fluid Dynamics

KW - Mannequin

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KW - Transmission

KW - Aerosol

KW - Airflow

KW - Computational Fluid Dynamics

KW - Mannequin

KW - Schlieren

KW - Transmission

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