4.2 Article

Using terrestrial laser scanning to support ecological research in the rocky intertidal zone

Journal

JOURNAL OF COASTAL CONSERVATION
Volume 18, Issue 6, Pages 701-714

Publisher

SPRINGER
DOI: 10.1007/s11852-014-0346-8

Keywords

Terrestrial laser scanning; Airborne lidar; Rocky intertidal; Shorebird habitat; Sea-level rise; Climate change

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Scale-appropriate, foundational datasets are necessary for ecological analyses of the rocky intertidal ecosystem. We used terrestrial laser scanning (TLS) to characterize and quantify the rocky intertidal zone topography at a western U.S. coastal site (Rabbit Rock, Oregon) to support ecological research relating to potential climate-induced changes in distribution and abundance of intertidal invertebrates and a large-bodied shorebird, the Black Oystercatcher (Haematopus bachmani). Alternate available data (e.g., aerial photography, airborne LIDAR) proved inadequate or infeasible for development of a topographic surface model inclusive of intertidal area from Mean Lower Low Water to Mean Higher High Water tidal elevation. Our TLS-derived topographic surface model competently supported development of an invertebrate distribution model relative to tidal elevation and topography. Using the developed model, we estimated current and future aerial extent of the intertidal zone and potential foraging habitat for Black Oystercatcher in our study area. Intertidal zone area decreased from 7,194 m(2) to 6,409 m(2) and 3,070 m(2) with 1 and 2 m sea-level rise, respectively. Surprisingly, due to the configuration of site substrate, potential foraging habitat for Black Oystercatcher increased from 5,658 to 5,903 m(2) with 1 m sea-level rise, but declined to 3,068 m(2) with 2 m sea-level rise. Our results demonstrate the utility of TLS for ecological research in the rocky intertidal zone. They further illustrate that climate change effects on ecological conditions may vary considerably depending on local configurations.

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