New design methods for subsea power cables are helping the global marine renewable energy industry lower costs and improve reliability
New design methods for subsea power cables are helping the global marine renewable energy industry lower costs and improve reliability
University of Western Australia's Oceans Graduate School to transform the design methods used to analyse the on-bottom stability of subsea power cables. These cables form the vital connection enabling renewable energy to be reliably and cost-effectively transported from the source to the consumer - whether the collection device at the end of the line is wave, tidal, fixed or floating wind. These novel design methods are equally applicable to umbilicals and other small diameter pipelines. Existing oil and gas pipeline codes overlook much of the physics that is relevant to small diameter pipes and cables. The new research has unlocked significant improvements through new laboratory, numerical and field observational analysis and modelling. The results of this research are presently being incorporated into new design guidance, including the draft British Standards Institute BS 10009 being developed under PEL 114 technical committee guidance. This paper provides a summary of the research together with observations and lessons learnt in the application of these new design methods to over 7.4 GW of new offshore wind and other renewable energy cables. Given that as at 2020 the global grid-connected total offshore wind capacity was 35 GW, this contribution demonstrates strong evidence of field validation of these research outcomes, as well as their relative importance and transformative potential to contribute to global decarbonisation.
hydrodynamics, on-bottom stability, rocky seabed, Subsea cable, umbilical
The American Society of Mechanical Engineers
Draper, Scott
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Cheng, Liang
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An, Hongwei
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Fogliani, Antonino
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Schläppy, Marie Lise
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Tong, Feifei
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Lipski, Wacek
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Spradbery, Chas
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Teng, Yunfei
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White, David
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Coles, Daniel
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Noble, Stuart
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Doole, Siobhan
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Johnson, Fraser
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5 June 2022
Draper, Scott
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Cheng, Liang
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An, Hongwei
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Fogliani, Antonino
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Schläppy, Marie Lise
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Tong, Feifei
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Lipski, Wacek
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Spradbery, Chas
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Teng, Yunfei
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White, David
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Coles, Daniel
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Noble, Stuart
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Doole, Siobhan
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Johnson, Fraser
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Draper, Scott, Cheng, Liang, An, Hongwei, Fogliani, Antonino, Schläppy, Marie Lise, Tong, Feifei, Lipski, Wacek, Spradbery, Chas, Teng, Yunfei, White, David, Coles, Daniel, Noble, Stuart, Doole, Siobhan and Johnson, Fraser
(2022)
New design methods for subsea power cables are helping the global marine renewable energy industry lower costs and improve reliability.
In International Conference on Ocean, Offshore and Arctic Engineering: Materials Technology; Pipelines, Risers, and Subsea Systems.
vol. 3,
The American Society of Mechanical Engineers..
(doi:10.1115/OMAE2022-80172).
Record type:
Conference or Workshop Item
(Paper)
Abstract
University of Western Australia's Oceans Graduate School to transform the design methods used to analyse the on-bottom stability of subsea power cables. These cables form the vital connection enabling renewable energy to be reliably and cost-effectively transported from the source to the consumer - whether the collection device at the end of the line is wave, tidal, fixed or floating wind. These novel design methods are equally applicable to umbilicals and other small diameter pipelines. Existing oil and gas pipeline codes overlook much of the physics that is relevant to small diameter pipes and cables. The new research has unlocked significant improvements through new laboratory, numerical and field observational analysis and modelling. The results of this research are presently being incorporated into new design guidance, including the draft British Standards Institute BS 10009 being developed under PEL 114 technical committee guidance. This paper provides a summary of the research together with observations and lessons learnt in the application of these new design methods to over 7.4 GW of new offshore wind and other renewable energy cables. Given that as at 2020 the global grid-connected total offshore wind capacity was 35 GW, this contribution demonstrates strong evidence of field validation of these research outcomes, as well as their relative importance and transformative potential to contribute to global decarbonisation.
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More information
Published date: 5 June 2022
Additional Information:
Funding Information:
The authors acknowledge the generous financial and technical support of the academic and industry partners who have contributed to this research, including: Australian Research Council, Chevron, CRP Marine, JDR Cables, Simec Atlantis, Tasmanian Gas Pipeline, Technip and Woodside (in alphabetical order), as well as the UK EPSRC Offshore Renewable Energy Supergen Hub (EP/S000747/1) and the Tidal Stream Industry Energiser project (TIGER), co-financed by the European Regional Development Fund.
Publisher Copyright:
Copyright © 2022 by ASME.
Venue - Dates:
ASME 2022 41st International Conference on Ocean, Offshore and Arctic Engineering, OMAE 2022, , Hamburg, Germany, 2022-06-05 - 2022-06-10
Keywords:
hydrodynamics, on-bottom stability, rocky seabed, Subsea cable, umbilical
Identifiers
Local EPrints ID: 472481
URI: http://eprints.soton.ac.uk/id/eprint/472481
PURE UUID: f8d730ce-8349-446a-88aa-74d7390374f0
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Date deposited: 06 Dec 2022 17:43
Last modified: 18 Mar 2024 03:42
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Contributors
Author:
Scott Draper
Author:
Liang Cheng
Author:
Hongwei An
Author:
Antonino Fogliani
Author:
Marie Lise Schläppy
Author:
Feifei Tong
Author:
Wacek Lipski
Author:
Chas Spradbery
Author:
Yunfei Teng
Author:
Daniel Coles
Author:
Stuart Noble
Author:
Siobhan Doole
Author:
Fraser Johnson
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