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How can airborne transmission of COVID-19 indoors be minimised?

  • Lidia Morawska
  • , Julian W. Tang
  • , William Bahnfleth
  • , Philomena M. Bluyssen
  • , Atze Boerstra
  • , Giorgio Buonanno
  • , Junji Cao
  • , Stephanie Dancer
  • , Andres Floto
  • , Francesco Franchimon
  • , Charles Haworth
  • , Jaap Hogeling
  • , Christina Isaxon
  • , Jose L. Jimenez
  • , Jarek Kurnitski
  • , Yuguo Li
  • , Marcel Loomans
  • , Guy Marks
  • , Linsey C. Marr
  • , Livio Mazzarella
  • Arsen Krikor Melikov, Shelly Miller, Donald K. Milton, William Nazaroff, Peter V. Nielsen, Catherine Noakes, Jordan Peccia, Xavier Querol, Chandra Sekhar, Olli Seppänen, Shin ichi Tanabe, Raymond Tellier, Kwok Wai Tham, Pawel Wargocki, Aneta Wierzbicka, Maosheng Yao
  • Queensland University of Technology
  • University of Leicester
  • Pennsylvania State University
  • Delft University of Technology
  • REHVA (Federation of European Heating
  • University of Cassino and Southern Lazio
  • Edinburgh Napier University
  • University of Cambridge
  • Franchimon ICM
  • ISSO International Project
  • Lund University
  • Cooperative Institute for Research in Environmental Sciences
  • Tallinn University of Technology
  • The University of Hong Kong
  • Eindhoven University of Technology
  • University of New South Wales
  • VA Tech
  • Polytechnic University of Milan
  • Technical University of Denmark
  • University of Colorado Boulder
  • University of Maryland, College Park
  • University of California at Berkeley
  • Aalborg University
  • University of Leeds
  • Yale University
  • Institute of Environmental Assessment and Water Research (IDAEA)
  • National University of Singapore
  • Aalto University
  • Architectural Institute of Japan
  • McGill University
  • Peking University

科研成果: 期刊稿件快报同行评审

1121 引用 (Scopus)

摘要

During the rapid rise in COVID-19 illnesses and deaths globally, and notwithstanding recommended precautions, questions are voiced about routes of transmission for this pandemic disease. Inhaling small airborne droplets is probable as a third route of infection, in addition to more widely recognized transmission via larger respiratory droplets and direct contact with infected people or contaminated surfaces. While uncertainties remain regarding the relative contributions of the different transmission pathways, we argue that existing evidence is sufficiently strong to warrant engineering controls targeting airborne transmission as part of an overall strategy to limit infection risk indoors. Appropriate building engineering controls include sufficient and effective ventilation, possibly enhanced by particle filtration and air disinfection, avoiding air recirculation and avoiding overcrowding. Often, such measures can be easily implemented and without much cost, but if only they are recognised as significant in contributing to infection control goals. We believe that the use of engineering controls in public buildings, including hospitals, shops, offices, schools, kindergartens, libraries, restaurants, cruise ships, elevators, conference rooms or public transport, in parallel with effective application of other controls (including isolation and quarantine, social distancing and hand hygiene), would be an additional important measure globally to reduce the likelihood of transmission and thereby protect healthcare workers, patients and the general public.

源语言英语
期刊论文编号105832
期刊Environment International
142
DOI
出版状态已出版 - 9月 2020

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