Real-time sensing of bioaerosols: Review and current perspectives

Detection of bioaerosols, or primary biological aerosol particles (PBAPs), has become increasingly important for a wide variety of research communities and scientific questions. In particular, real-time (RT) techniques for autonomous, online detection and characterization of PBAP properties in both...

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Veröffentlicht in:Aerosol science and technology 2020-05, Vol.54 (5), p.465-495
Hauptverfasser: Huffman, J. Alex, Perring, Anne E., Savage, Nicole J., Clot, Bernard, Crouzy, Benoît, Tummon, Fiona, Shoshanim, Ofir, Damit, Brian, Schneider, Johannes, Sivaprakasam, Vasanthi, Zawadowicz, Maria A., Crawford, Ian, Gallagher, Martin, Topping, David, Doughty, David C., Hill, Steven C., Pan, Yongle
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container_end_page 495
container_issue 5
container_start_page 465
container_title Aerosol science and technology
container_volume 54
creator Huffman, J. Alex
Perring, Anne E.
Savage, Nicole J.
Clot, Bernard
Crouzy, Benoît
Tummon, Fiona
Shoshanim, Ofir
Damit, Brian
Schneider, Johannes
Sivaprakasam, Vasanthi
Zawadowicz, Maria A.
Crawford, Ian
Gallagher, Martin
Topping, David
Doughty, David C.
Hill, Steven C.
Pan, Yongle
description Detection of bioaerosols, or primary biological aerosol particles (PBAPs), has become increasingly important for a wide variety of research communities and scientific questions. In particular, real-time (RT) techniques for autonomous, online detection and characterization of PBAP properties in both outdoor and indoor environments are becoming more commonplace and have opened avenues of research. With advances in technology, however, come challenges to standardize practices so that results are both reliable and comparable across technologies and users. Here, we present a critical review of major RT instrument classes that have been applied to PBAP research, especially with respect to environmental science, allergy monitoring, agriculture, public health, and national security. Eight major classes of RT techniques are covered, including the following: (i) fluorescence spectroscopy, (ii) elastic scattering, microscopy, and holography, (iii) Raman spectroscopy, (iv) mass spectrometry, (v) breakdown spectroscopy, (vi) remote sensing, (vii) microfluidic techniques, and (viii) paired aqueous techniques. For each class of technology we present technical limitations, misconceptions, and pitfalls, and also summarize best practices for operation, analysis, and reporting. The final section of the article presents pressing scientific questions and grand challenges for RT sensing of PBAP as well as recommendations for future work to encourage high-quality results and increased cross-community collaboration.
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subjects Aerosol particles
Agriculture
Airborne microorganisms
Bioaerosols
Detection
Elastic scattering
Environmental monitoring
Fluorescence
Fluorescence spectroscopy
Holography
Indoor environments
Mass spectrometry
Microfluidics
Public health
Questions
Raman spectroscopy
Real time
Remote sensing
Security
Spectroscopy
Technology
Tiina Reponen
title Real-time sensing of bioaerosols: Review and current perspectives
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