Data

Data from: Fate of internal waves on a shallow shelf

The University of Western Australia
Davis, Kristen ; Arthur, Robert ; Reid, Emma ; DeCarlo, Thomas ; Cohen, Anne ; Fringer, Oliver ; Rogers, Justin
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ctx_ver=Z39.88-2004&rft_val_fmt=info%3Aofi%2Ffmt%3Akev%3Amtx%3Adc&rfr_id=info%3Asid%2FANDS&rft_id=info:doi10.7280/D1VH54&rft.title=Data from: Fate of internal waves on a shallow shelf&rft.identifier=10.7280/D1VH54&rft.publisher=DRYAD&rft.description=Internal waves strongly influence the physical and chemical environment of coastal ecosystems worldwide. We report novel observations from a distributed temperature sensing (DTS) system that tracked the transformation of internal waves from the shelf break to the surf zone over a narrow shelf-slope region in the South China Sea. The spatially-continuous view of temperature fields provides a perspective of physical processes commonly available only in laboratory settings or numerical models, including internal wave reflection off a natural slope, shoreward transport of dense fluid within trapped cores, and observations of internal run-down (near-bed, offshore-directed jets of water preceding a breaking internal wave). Analysis shows that the fate of internal waves on this shelf – whether transmitted into shallow waters or reflected back offshore – is mediated by local water column density structure and background currents set by the previous shoaling internal waves, highlighting the importance of wave-wave interactions in nearshore internal wave dynamics.&rft.creator=Davis, Kristen &rft.creator=Arthur, Robert &rft.creator=Reid, Emma &rft.creator=DeCarlo, Thomas &rft.creator=Cohen, Anne &rft.creator=Fringer, Oliver &rft.creator=Rogers, Justin &rft.date=2020&rft.type=dataset&rft.language=English Access the data

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Internal waves strongly influence the physical and chemical environment of coastal ecosystems worldwide. We report novel observations from a distributed temperature sensing (DTS) system that tracked the transformation of internal waves from the shelf break to the surf zone over a narrow shelf-slope region in the South China Sea. The spatially-continuous view of temperature fields provides a perspective of physical processes commonly available only in laboratory settings or numerical models, including internal wave reflection off a natural slope, shoreward transport of dense fluid within trapped cores, and observations of internal run-down (near-bed, offshore-directed jets of water preceding a breaking internal wave). Analysis shows that the fate of internal waves on this shelf – whether transmitted into shallow waters or reflected back offshore – is mediated by local water column density structure and background currents set by the previous shoaling internal waves, highlighting the importance of wave-wave interactions in nearshore internal wave dynamics.

Notes

External Organisations
University of California Davis; Lawrence Livermore National Laboratory; Woods Hole Oceanographic Institution; Stanford University
Associated Persons
Kristen Davis (Creator); Robert Arthur (Creator); Emma Reid (Creator); Anne Cohen (Creator); Oliver Fringer (Creator); Justin Rogers (Creator)

Issued: 2020-04-14

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Identifiers
ACN 633 798 857