Home > Research > Publications & Outputs > A benchmarking exercise for environmental contours

Links

Text available via DOI:

View graph of relations

A benchmarking exercise for environmental contours

Research output: Contribution to Journal/MagazineJournal articlepeer-review

Published

Standard

A benchmarking exercise for environmental contours. / Haselsteiner, A.F.; Coe, R.G.; Manuel, L. et al.
In: Ocean Engineering, Vol. 236, 109504, 15.09.2021.

Research output: Contribution to Journal/MagazineJournal articlepeer-review

Harvard

Haselsteiner, AF, Coe, RG, Manuel, L, Chai, W, Leira, B, Clarindo, G, Guedes Soares, C, Hannesdóttir, Á, Dimitrov, N, Sander, A, Ohlendorf, J-H, Thoben, K-D, Hauteclocque, GD, Mackay, E, Jonathan, P, Qiao, C, Myers, A, Rode, A, Hildebrandt, A, Schmidt, B, Vanem, E & Huseby, AB 2021, 'A benchmarking exercise for environmental contours', Ocean Engineering, vol. 236, 109504. https://doi.org/10.1016/j.oceaneng.2021.109504

APA

Haselsteiner, A. F., Coe, R. G., Manuel, L., Chai, W., Leira, B., Clarindo, G., Guedes Soares, C., Hannesdóttir, Á., Dimitrov, N., Sander, A., Ohlendorf, J.-H., Thoben, K.-D., Hauteclocque, G. D., Mackay, E., Jonathan, P., Qiao, C., Myers, A., Rode, A., Hildebrandt, A., ... Huseby, A. B. (2021). A benchmarking exercise for environmental contours. Ocean Engineering, 236, Article 109504. https://doi.org/10.1016/j.oceaneng.2021.109504

Vancouver

Haselsteiner AF, Coe RG, Manuel L, Chai W, Leira B, Clarindo G et al. A benchmarking exercise for environmental contours. Ocean Engineering. 2021 Sept 15;236:109504. Epub 2021 Aug 11. doi: 10.1016/j.oceaneng.2021.109504

Author

Haselsteiner, A.F. ; Coe, R.G. ; Manuel, L. et al. / A benchmarking exercise for environmental contours. In: Ocean Engineering. 2021 ; Vol. 236.

Bibtex

@article{07a703e3897a4046be6abdbbfb8c4c21,
title = "A benchmarking exercise for environmental contours",
abstract = "Environmental contours are used to simplify the process of design response analysis. A wide variety of contour methods exist; however, there have been a very limited number of comparisons of these methods to date. This paper is the output of an open benchmarking exercise, in which contributors developed contours based on their preferred methods and submitted them for a blind comparison study. The exercise had two components—one, focusing on the robustness of contour methods across different offshore sites and, the other, focusing on characterizing sampling uncertainty. Nine teams of researchers contributed to the benchmark. The analysis of the submitted contours highlighted significant differences between contours derived via different methods. For example, the highest wave height value along a contour varied by as much as a factor of two between some submissions while the number of metocean data points or observations that fell outside a contour deviated by an order of magnitude between the contributions (even for contours with a return period shorter than the duration of the record). These differences arose from both different joint distribution models and different contour construction methods, however, variability from joint distribution models appeared to be higher than variability from contour construction methods. ",
keywords = "Environmental contour, Extreme response, Joint distribution, Metocean extremes, Structural reliability, Offshore oil well production, Comparison study, Construction method, Contour method, Distribution models, Joint distributions, Metocean extreme, Response analysis, Benchmarking",
author = "A.F. Haselsteiner and R.G. Coe and L. Manuel and W. Chai and B. Leira and G. Clarindo and {Guedes Soares}, C. and {\'A}. Hannesd{\'o}ttir and N. Dimitrov and A. Sander and J.-H. Ohlendorf and K.-D. Thoben and G.D. Hauteclocque and E. Mackay and P. Jonathan and C. Qiao and A. Myers and A. Rode and A. Hildebrandt and B. Schmidt and E. Vanem and A.B. Huseby",
year = "2021",
month = sep,
day = "15",
doi = "10.1016/j.oceaneng.2021.109504",
language = "English",
volume = "236",
journal = "Ocean Engineering",
issn = "0029-8018",
publisher = "Elsevier Ltd",

}

RIS

TY - JOUR

T1 - A benchmarking exercise for environmental contours

AU - Haselsteiner, A.F.

AU - Coe, R.G.

AU - Manuel, L.

AU - Chai, W.

AU - Leira, B.

AU - Clarindo, G.

AU - Guedes Soares, C.

AU - Hannesdóttir, Á.

AU - Dimitrov, N.

AU - Sander, A.

AU - Ohlendorf, J.-H.

AU - Thoben, K.-D.

AU - Hauteclocque, G.D.

AU - Mackay, E.

AU - Jonathan, P.

AU - Qiao, C.

AU - Myers, A.

AU - Rode, A.

AU - Hildebrandt, A.

AU - Schmidt, B.

AU - Vanem, E.

AU - Huseby, A.B.

PY - 2021/9/15

Y1 - 2021/9/15

N2 - Environmental contours are used to simplify the process of design response analysis. A wide variety of contour methods exist; however, there have been a very limited number of comparisons of these methods to date. This paper is the output of an open benchmarking exercise, in which contributors developed contours based on their preferred methods and submitted them for a blind comparison study. The exercise had two components—one, focusing on the robustness of contour methods across different offshore sites and, the other, focusing on characterizing sampling uncertainty. Nine teams of researchers contributed to the benchmark. The analysis of the submitted contours highlighted significant differences between contours derived via different methods. For example, the highest wave height value along a contour varied by as much as a factor of two between some submissions while the number of metocean data points or observations that fell outside a contour deviated by an order of magnitude between the contributions (even for contours with a return period shorter than the duration of the record). These differences arose from both different joint distribution models and different contour construction methods, however, variability from joint distribution models appeared to be higher than variability from contour construction methods.

AB - Environmental contours are used to simplify the process of design response analysis. A wide variety of contour methods exist; however, there have been a very limited number of comparisons of these methods to date. This paper is the output of an open benchmarking exercise, in which contributors developed contours based on their preferred methods and submitted them for a blind comparison study. The exercise had two components—one, focusing on the robustness of contour methods across different offshore sites and, the other, focusing on characterizing sampling uncertainty. Nine teams of researchers contributed to the benchmark. The analysis of the submitted contours highlighted significant differences between contours derived via different methods. For example, the highest wave height value along a contour varied by as much as a factor of two between some submissions while the number of metocean data points or observations that fell outside a contour deviated by an order of magnitude between the contributions (even for contours with a return period shorter than the duration of the record). These differences arose from both different joint distribution models and different contour construction methods, however, variability from joint distribution models appeared to be higher than variability from contour construction methods.

KW - Environmental contour

KW - Extreme response

KW - Joint distribution

KW - Metocean extremes

KW - Structural reliability

KW - Offshore oil well production

KW - Comparison study

KW - Construction method

KW - Contour method

KW - Distribution models

KW - Joint distributions

KW - Metocean extreme

KW - Response analysis

KW - Benchmarking

U2 - 10.1016/j.oceaneng.2021.109504

DO - 10.1016/j.oceaneng.2021.109504

M3 - Journal article

VL - 236

JO - Ocean Engineering

JF - Ocean Engineering

SN - 0029-8018

M1 - 109504

ER -