A comparison of remotely sensed environmental predictors for avian distributions

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A comparison of remotely sensed environmental predictors for avian distributions. / Hopkins, Laurel M; Hallman, Tyler A; Kilbride, John et al.
In: Landscape Ecology, Vol. 37, No. 4, 16.02.2022, p. 997-1016.

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Hopkins, LM, Hallman, TA, Kilbride, J, Robinson, WD & Hutchinson, RA 2022, 'A comparison of remotely sensed environmental predictors for avian distributions', Landscape Ecology, vol. 37, no. 4, pp. 997-1016. https://doi.org/10.1007/s10980-022-01406-y

APA

Hopkins, L. M., Hallman, T. A., Kilbride, J., Robinson, W. D., & Hutchinson, R. A. (2022). A comparison of remotely sensed environmental predictors for avian distributions. Landscape Ecology, 37(4), 997-1016. https://doi.org/10.1007/s10980-022-01406-y

CBE

Hopkins LM, Hallman TA, Kilbride J, Robinson WD, Hutchinson RA. 2022. A comparison of remotely sensed environmental predictors for avian distributions. Landscape Ecology. 37(4):997-1016. https://doi.org/10.1007/s10980-022-01406-y

MLA

VancouverVancouver

Hopkins LM, Hallman TA, Kilbride J, Robinson WD, Hutchinson RA. A comparison of remotely sensed environmental predictors for avian distributions. Landscape Ecology. 2022 Feb 16;37(4):997-1016. doi: 10.1007/s10980-022-01406-y

Author

Hopkins, Laurel M ; Hallman, Tyler A ; Kilbride, John et al. / A comparison of remotely sensed environmental predictors for avian distributions. In: Landscape Ecology. 2022 ; Vol. 37, No. 4. pp. 997-1016.

RIS

TY - JOUR

T1 - A comparison of remotely sensed environmental predictors for avian distributions

AU - Hopkins, Laurel M

AU - Hallman, Tyler A

AU - Kilbride, John

AU - Robinson, W Douglas

AU - Hutchinson, Rebecca A

PY - 2022/2/16

Y1 - 2022/2/16

N2 - ContextWith greater accessibility and processing power from online platforms, summaries of remotely sensed data are increasingly used in species distribution models (SDMs). Comparisons of the predictive power of these environmental variables could inform SDMs moving forward.ObjectivesWe evaluated the performance of freely available Landsat data as predictor sets for SDMs. Our objectives were to (1) compare the performance of single season SDMs built on mean values of raw spectral bands, Tasseled Cap transformations, and eight different indices, including NDVI, (2) evaluate the performance gain with the addition of standard deviation, textural metrics, and additional seasons, and (3) compare the performance of SDMs built on these continuous spectral predictor sets to SDMs built on classified land cover data (e.g., percent forest cover).MethodsWe used statewide point counts to build multi-scale SDMs for 13 avian species across Oregon, USA. We compared the performance of SDMs built on each predictor set based on our objectives.ResultsOf the Landsat-derived predictor sets, SDMs built on raw spectral bands had the highest overall performance with nearly equivalent performance in Tasseled-Cap models. While performance gains from standard deviations, textural metrics, and additional seasons were minimal in raw-band and Tasseled-Cap models, gains were appreciable in single-index models. Classified land cover models performed equivalently to raw band models.ConclusionsWhen predictive performance is paramount, means of raw Landsat bands are strong predictors for avian SDMs. When parsimonious variables are essential, SDMs of single indices (e.g., NDVI) greatly benefit from additional information, such as standard deviation.

AB - ContextWith greater accessibility and processing power from online platforms, summaries of remotely sensed data are increasingly used in species distribution models (SDMs). Comparisons of the predictive power of these environmental variables could inform SDMs moving forward.ObjectivesWe evaluated the performance of freely available Landsat data as predictor sets for SDMs. Our objectives were to (1) compare the performance of single season SDMs built on mean values of raw spectral bands, Tasseled Cap transformations, and eight different indices, including NDVI, (2) evaluate the performance gain with the addition of standard deviation, textural metrics, and additional seasons, and (3) compare the performance of SDMs built on these continuous spectral predictor sets to SDMs built on classified land cover data (e.g., percent forest cover).MethodsWe used statewide point counts to build multi-scale SDMs for 13 avian species across Oregon, USA. We compared the performance of SDMs built on each predictor set based on our objectives.ResultsOf the Landsat-derived predictor sets, SDMs built on raw spectral bands had the highest overall performance with nearly equivalent performance in Tasseled-Cap models. While performance gains from standard deviations, textural metrics, and additional seasons were minimal in raw-band and Tasseled-Cap models, gains were appreciable in single-index models. Classified land cover models performed equivalently to raw band models.ConclusionsWhen predictive performance is paramount, means of raw Landsat bands are strong predictors for avian SDMs. When parsimonious variables are essential, SDMs of single indices (e.g., NDVI) greatly benefit from additional information, such as standard deviation.

U2 - 10.1007/s10980-022-01406-y

DO - 10.1007/s10980-022-01406-y

M3 - Article

VL - 37

SP - 997

EP - 1016

JO - Landscape Ecology

JF - Landscape Ecology

SN - 1572-9761

IS - 4

ER -