Canadian icing envelopes near the surface and its impact on wind energy assessment

The present study aims at producing localized near-surface icing envelopes that contribute to optimal designs of near-surface structures under icing conditions. For this purpose, the 99th percentiles of liquid water content and wind speed that correspond to low-level supercooled clouds are used. Nea...

Full description

Bibliographic Details
Published in:Cold Regions Science and Technology
Main Authors: Lamraoui, Fayçal, Fortin, Guy, Perron, Jean, Benoit, Robert
Format: Text
Language:English
Published: 2015
Subjects:
Online Access:https://constellation.uqac.ca/3076/1/Canadian%20icing%20envelopes%20near%20the%20surface%20and%20its%20impact%20on%20wind%20energy%20assessment.pdf
id ftunivquebecchic:oai:constellation.uqac.ca:3076
record_format openpolar
spelling ftunivquebecchic:oai:constellation.uqac.ca:3076 2023-05-15T15:19:12+02:00 Canadian icing envelopes near the surface and its impact on wind energy assessment Lamraoui, Fayçal Fortin, Guy Perron, Jean Benoit, Robert 2015 application/pdf https://constellation.uqac.ca/3076/1/Canadian%20icing%20envelopes%20near%20the%20surface%20and%20its%20impact%20on%20wind%20energy%20assessment.pdf en eng https://constellation.uqac.ca/3076/ http://dx.doi.org/doi:10.1016/j.coldregions.2015.09.007 https://constellation.uqac.ca/3076/1/Canadian%20icing%20envelopes%20near%20the%20surface%20and%20its%20impact%20on%20wind%20energy%20assessment.pdf Lamraoui Fayçal, Fortin Guy, Perron Jean et Benoit Robert. (2015). Canadian icing envelopes near the surface and its impact on wind energy assessment. Cold Regions Science and Technology, 120, p. 76-88. Génie des matériaux et génie métallurgique Article publié dans une revue avec comité d'évaluation PeerReviewed 2015 ftunivquebecchic https://doi.org/10.1016/j.coldregions.2015.09.007 2021-03-08T12:02:29Z The present study aims at producing localized near-surface icing envelopes that contribute to optimal designs of near-surface structures under icing conditions. For this purpose, the 99th percentiles of liquid water content and wind speed that correspond to low-level supercooled clouds are used. Near-surface icing events and cloud microphysics are explored using North American Regional Reanalysis during winter months (D-J-F), over 32years. The investigation of the regional climatology of icing events involves 74 regional zones that cover Canada. For each zone, regional power loss of wind turbines under icing condition is estimated. The East and West coastal regions of the Hudson Bay demonstrate higher liquid cloud water of 0.4gm-3. The highest potential of wind is located in the West coast. The climatology of liquid water content around the Rocky Mountains manifests orographic condensation of the Pacific moisture transported toward the mountains. Within the range of temperatures [-15°C to 0°C], the near-surface results over Canada show that the monthly mean of wind speeds varies mostly between 4ms-1 and 10ms-1, and the mean supercooled cloud water content decreases linearly from 0.3gm-3 to 0.2gm-3, with decreasing temperature. The quantification of ice accumulation and the duration of icing events reveal that the West and the South of the Hudson Bay as well as the North of Manitoba and Ontario are exposed to extreme icing conditions, with a monthly accumulation that varies from 150mm to 225mm, and a monthly duration of icing events near 375h. Over the region encompassing the Gaspe Peninsula, St. Lawrence River and New Brunswick the higher limit of wind speed varies around 15ms-1. The cloud water upper limit of 0.45gm-3 occurs in December and January, and 0.3gm-3 in February. With decreasing temperature these upper limits reach 0.1gm-3 at -15°C. The highest wind energy is located in the Canadian East Coast regions. The Canadian arctic is characterized mostly by lower wind energy and larger power degradation under icing conditions. The average of wind turbine power loss during winter months (D-J-F) under icing conditions varies throughout Canada and reaches its maximum of about 15% over North-East of Manitoba, South of the Hudson Bay and the North coast of Ontario. Text Arctic Hudson Bay Université du Québec à Chicoutimi (UQAC): Constellation Arctic Canada Hudson Hudson Bay Lawrence River ENVELOPE(-115.002,-115.002,58.384,58.384) Pacific Cold Regions Science and Technology 120 76 88
institution Open Polar
collection Université du Québec à Chicoutimi (UQAC): Constellation
op_collection_id ftunivquebecchic
language English
topic Génie des matériaux et génie métallurgique
spellingShingle Génie des matériaux et génie métallurgique
Lamraoui, Fayçal
Fortin, Guy
Perron, Jean
Benoit, Robert
Canadian icing envelopes near the surface and its impact on wind energy assessment
topic_facet Génie des matériaux et génie métallurgique
description The present study aims at producing localized near-surface icing envelopes that contribute to optimal designs of near-surface structures under icing conditions. For this purpose, the 99th percentiles of liquid water content and wind speed that correspond to low-level supercooled clouds are used. Near-surface icing events and cloud microphysics are explored using North American Regional Reanalysis during winter months (D-J-F), over 32years. The investigation of the regional climatology of icing events involves 74 regional zones that cover Canada. For each zone, regional power loss of wind turbines under icing condition is estimated. The East and West coastal regions of the Hudson Bay demonstrate higher liquid cloud water of 0.4gm-3. The highest potential of wind is located in the West coast. The climatology of liquid water content around the Rocky Mountains manifests orographic condensation of the Pacific moisture transported toward the mountains. Within the range of temperatures [-15°C to 0°C], the near-surface results over Canada show that the monthly mean of wind speeds varies mostly between 4ms-1 and 10ms-1, and the mean supercooled cloud water content decreases linearly from 0.3gm-3 to 0.2gm-3, with decreasing temperature. The quantification of ice accumulation and the duration of icing events reveal that the West and the South of the Hudson Bay as well as the North of Manitoba and Ontario are exposed to extreme icing conditions, with a monthly accumulation that varies from 150mm to 225mm, and a monthly duration of icing events near 375h. Over the region encompassing the Gaspe Peninsula, St. Lawrence River and New Brunswick the higher limit of wind speed varies around 15ms-1. The cloud water upper limit of 0.45gm-3 occurs in December and January, and 0.3gm-3 in February. With decreasing temperature these upper limits reach 0.1gm-3 at -15°C. The highest wind energy is located in the Canadian East Coast regions. The Canadian arctic is characterized mostly by lower wind energy and larger power degradation under icing conditions. The average of wind turbine power loss during winter months (D-J-F) under icing conditions varies throughout Canada and reaches its maximum of about 15% over North-East of Manitoba, South of the Hudson Bay and the North coast of Ontario.
format Text
author Lamraoui, Fayçal
Fortin, Guy
Perron, Jean
Benoit, Robert
author_facet Lamraoui, Fayçal
Fortin, Guy
Perron, Jean
Benoit, Robert
author_sort Lamraoui, Fayçal
title Canadian icing envelopes near the surface and its impact on wind energy assessment
title_short Canadian icing envelopes near the surface and its impact on wind energy assessment
title_full Canadian icing envelopes near the surface and its impact on wind energy assessment
title_fullStr Canadian icing envelopes near the surface and its impact on wind energy assessment
title_full_unstemmed Canadian icing envelopes near the surface and its impact on wind energy assessment
title_sort canadian icing envelopes near the surface and its impact on wind energy assessment
publishDate 2015
url https://constellation.uqac.ca/3076/1/Canadian%20icing%20envelopes%20near%20the%20surface%20and%20its%20impact%20on%20wind%20energy%20assessment.pdf
long_lat ENVELOPE(-115.002,-115.002,58.384,58.384)
geographic Arctic
Canada
Hudson
Hudson Bay
Lawrence River
Pacific
geographic_facet Arctic
Canada
Hudson
Hudson Bay
Lawrence River
Pacific
genre Arctic
Hudson Bay
genre_facet Arctic
Hudson Bay
op_relation https://constellation.uqac.ca/3076/
http://dx.doi.org/doi:10.1016/j.coldregions.2015.09.007
https://constellation.uqac.ca/3076/1/Canadian%20icing%20envelopes%20near%20the%20surface%20and%20its%20impact%20on%20wind%20energy%20assessment.pdf
Lamraoui Fayçal, Fortin Guy, Perron Jean et Benoit Robert. (2015). Canadian icing envelopes near the surface and its impact on wind energy assessment. Cold Regions Science and Technology, 120, p. 76-88.
op_doi https://doi.org/10.1016/j.coldregions.2015.09.007
container_title Cold Regions Science and Technology
container_volume 120
container_start_page 76
op_container_end_page 88
_version_ 1766349380650008576