A Review of Coastal Fog Microphysics During C-FOG

Our goal is to provide an overview of the microphysical measurements made during the C-FOG (Toward Improving Coastal Fog Prediction) field project. In addition, we evaluate microphysical parametrizations using the C-FOG dataset. The C-FOG project is designed to advance understanding of liquid fog fo...

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Veröffentlicht in:Boundary-layer meteorology 2021-12, Vol.181 (2-3), p.227-265
Hauptverfasser: Gultepe, I., Heymsfield, A. J., Fernando, H. J. S., Pardyjak, E., Dorman, C. E., Wang, Q., Creegan, E., Hoch, S. W., Flagg, D. D., Yamaguchi, R., Krishnamurthy, R., Gaberšek, S., Perrie, W., Perelet, A., Singh, D. K., Chang, R., Nagare, B., Wagh, S., Wang, S.
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container_issue 2-3
container_start_page 227
container_title Boundary-layer meteorology
container_volume 181
creator Gultepe, I.
Heymsfield, A. J.
Fernando, H. J. S.
Pardyjak, E.
Dorman, C. E.
Wang, Q.
Creegan, E.
Hoch, S. W.
Flagg, D. D.
Yamaguchi, R.
Krishnamurthy, R.
Gaberšek, S.
Perrie, W.
Perelet, A.
Singh, D. K.
Chang, R.
Nagare, B.
Wagh, S.
Wang, S.
description Our goal is to provide an overview of the microphysical measurements made during the C-FOG (Toward Improving Coastal Fog Prediction) field project. In addition, we evaluate microphysical parametrizations using the C-FOG dataset. The C-FOG project is designed to advance understanding of liquid fog formation, particularly its development and dissipation in coastal environments, so as to improve fog predictability and monitoring. The project took place along eastern Canada’s (Nova Scotia and Newfoundland) coastlines and open water environments from August−October 2018, where environmental conditions play an important role for late-season fog formation. Visibility, wind speed, and atmospheric turbulence along coastlines are the most critical weather-related factors affecting marine transportation and aviation. In the analysis, microphysical observations are summarized first and then, together with three-dimensional wind components, used for fog intensity (visibility) evaluation. Results suggest that detailed microphysical observations collected at the supersites and aboard the Research Vessel Hugh R. Sharp are useful for developing microphysical parametrizations. The fog life cycle and turbulence-kinetic-energy dissipation rate are strongly related to each other. The magnitudes of three-dimensional wind fluctuations are higher during the formation and dissipation stages. An array of cutting-edge instruments used for data collection provides new insight into the variability and intensity of fog (visibility) and microphysics. It is concluded that further modifications in microphysical observations and parametrizations are needed to improve fog predictability of numerical-weather-prediction models.
doi_str_mv 10.1007/s10546-021-00659-5
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ispartof Boundary-layer meteorology, 2021-12, Vol.181 (2-3), p.227-265
issn 0006-8314
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language eng
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source SpringerNature Journals
subjects Analysis
Atmospheric models
Atmospheric Protection/Air Quality Control/Air Pollution
Atmospheric Sciences
Atmospheric turbulence
Aviation
Coastal
Coastal environments
Coastal zones
Coasts
Data collection
Earth and Environmental Science
Earth Sciences
Energy dissipation
Energy exchange
Environmental conditions
ENVIRONMENTAL SCIENCES
Evaluation
Fog
Fog formation
Instruments
Life cycle
Life cycles
Marine transportation
Meteorology
Microphysics
Numerical prediction
Prediction models
remote sensing
Research Article
Research vessels
Sea transport
Visibility
Waterfront development
Weather
Wind
Wind fluctuations
Wind speed
Wind variations
title A Review of Coastal Fog Microphysics During C-FOG
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