TY - CHAP
T1 - Design options, implementation issues and evaluating success of ecologically engineered shorelines
AU - Morris, Rebecca L.
AU - Heery, Eliza C.
AU - Loke, Lynette H. L.
AU - Lau, Edward
AU - Strain, Elisabeth M. A.
AU - Airoldi, Laura
AU - Alexander, Karen A.
AU - Bishop, Melanie J.
AU - Coleman, Ross A.
AU - Cordell, Jeffery R.
AU - Dong, Yun Wei
AU - Firth, Louise B.
AU - Hawkins, Stephen J.
AU - Heath, Tom
AU - Kokora, Michael
AU - Lee, Shing Yip
AU - Miller, Jon K.
AU - Perkol-Finkel, Shimrit
AU - Rella, Andrew
AU - Steinberg, Peter D.
AU - Takeuchi, Ichiro
AU - Thompson, Richard C.
AU - Todd, Peter A.
AU - Toft, Jason D.
AU - Leung, Kenneth M. Y.
N1 - Funding Information:
This article represents a joint effort and collective views from an architect, ecologists, engineers, a social scientist and a governmental officer who participated in the 2nd International Workshop on Eco-shoreline Designs for Sustainable Coastal Development, held at the University of Hong Kong, Hong Kong in May 2018. This work was a joint effort from the invited participants plus other colleagues. The authors would like to thank the Civil Engineering and Development Department of the Government of the Hong Kong Special Administrative Region of China, the HKU School of Biological Sciences and the World Harbour Project for supporting the organisation of the workshop. This research is partially supported by the National Research Foundation, Prime Minister’s Office, Singapore, under its Marine Science Research and Development Programme (Award No. MSRDP-05).
Publisher Copyright:
© S. J. Hawkins, A. L. Allcock, A. E. Bates, L. B. Firth, I. P. Smith, S. E. Swearer, and P. A. Todd, Editors Taylor & Francis.
PY - 2019
Y1 - 2019
N2 - Human population growth and accelerating coastal development have been the drivers for unprecedented construction of artificial structures along shorelines globally. Construction has been recently amplified by societal responses to reduce flood and erosion risks from rising sea levels and more extreme storms resulting from climate change. Such structures, leading to highly modified shorelines, deliver societal benefits, but they also create significant socioeconomic and environmental challenges. The planning, design and deployment of these coastal structures should aim to provide multiple goals through the application of ecoengineering to shoreline development. Such developments should be designed and built with the overarching objective of reducing negative impacts on nature, using hard, soft and hybrid ecological engineering approaches. The design of ecologically sensitive shorelines should be context-dependent and combine engineering, environmental and socioeconomic considerations. The costs and benefits of ecoengineered shoreline design options should be considered across all three of these disciplinary domains when setting objectives, informing plans for their subsequent maintenance and management and ultimately monitoring and evaluating their success. To date, successful ecoengineered shoreline projects have engaged with multiple stakeholders (e.g. architects, engineers, ecologists, coastal/port managers and the general public) during their conception and construction, but few have evaluated engineering, ecological and socioeconomic outcomes in a comprehensive manner. Increasing global awareness of climate change impacts (increased frequency or magnitude of extreme weather events and sea level rise), coupled with future predictions for coastal development (due to population growth leading to urban development and renewal, land reclamation and establishment of renewable energy infrastructure in the sea) will increase the demand for adaptive techniques to protect coastlines. In this review, we present an overview of current ecoengineered shoreline design options, the drivers and constraints that influence implementation and factors to consider when evaluating the success of such ecologically engineered shorelines.
AB - Human population growth and accelerating coastal development have been the drivers for unprecedented construction of artificial structures along shorelines globally. Construction has been recently amplified by societal responses to reduce flood and erosion risks from rising sea levels and more extreme storms resulting from climate change. Such structures, leading to highly modified shorelines, deliver societal benefits, but they also create significant socioeconomic and environmental challenges. The planning, design and deployment of these coastal structures should aim to provide multiple goals through the application of ecoengineering to shoreline development. Such developments should be designed and built with the overarching objective of reducing negative impacts on nature, using hard, soft and hybrid ecological engineering approaches. The design of ecologically sensitive shorelines should be context-dependent and combine engineering, environmental and socioeconomic considerations. The costs and benefits of ecoengineered shoreline design options should be considered across all three of these disciplinary domains when setting objectives, informing plans for their subsequent maintenance and management and ultimately monitoring and evaluating their success. To date, successful ecoengineered shoreline projects have engaged with multiple stakeholders (e.g. architects, engineers, ecologists, coastal/port managers and the general public) during their conception and construction, but few have evaluated engineering, ecological and socioeconomic outcomes in a comprehensive manner. Increasing global awareness of climate change impacts (increased frequency or magnitude of extreme weather events and sea level rise), coupled with future predictions for coastal development (due to population growth leading to urban development and renewal, land reclamation and establishment of renewable energy infrastructure in the sea) will increase the demand for adaptive techniques to protect coastlines. In this review, we present an overview of current ecoengineered shoreline design options, the drivers and constraints that influence implementation and factors to consider when evaluating the success of such ecologically engineered shorelines.
UR - http://www.scopus.com/inward/record.url?scp=85079874327&partnerID=8YFLogxK
U2 - 10.1201/9780429026379-4
DO - 10.1201/9780429026379-4
M3 - Chapter
AN - SCOPUS:85079874327
SN - 9780367134150
T3 - Oceanography and Marine Biology
SP - 169
EP - 228
BT - Oceanography and Marine Biology
PB - CRC Press
ER -