Publications
Kays, R., Sheppard, J., Mclean, K., Welch, C., Paunescu, C., Wang, V., Kravit, G. and Crofoot, M., 2019. Hot monkey, cold reality: surveying rainforest canopy mammals using drone-mounted thermal infrared sensors. International Journal of Remote Sensing, 40(2), pp.407-419.
McLean, K.A., Trainor, A.M., Asner, G.P., Crofoot, M.C., Hopkins, M.E., Campbell, C.J., Martin, R.E., Knapp, D.E. and Jansen, P.A., 2016. Movement patterns of three arboreal primates in a Neotropical moist forest explained by LiDAR-estimated canopy structure. Landscape Ecology, 31(8), pp.1849-1862.
McCauley, D.J., McLean, K.A., Bauer, J., Young, H.S. and Micheli, F., 2012. Evaluating the performance of methods for estimating the abundance of rapidly declining coastal shark populations. Ecological Applications, 22(2), pp.385-392.
Santagata, S., Bacela, K., Reid, D.F., Mclean, K.A., Cohen, J.S., Cordell, J.R., Brown, C.W., Johengen, T.H. and Ruiz, G.M., 2009. Concentrated sodium chloride brine solutions as an additional treatment for preventing the introduction of nonindigenous species in the ballast tanks of ships declaring no ballast on board. Environmental Toxicology and Chemistry, 28(2), pp.346-353.
Kays, R., Sheppard, J., Mclean, K., Welch, C., Paunescu, C., Wang, V., Kravit, G. and Crofoot, M., 2019. Hot monkey, cold reality: surveying rainforest canopy mammals using drone-mounted thermal infrared sensors. International Journal of Remote Sensing, 40(2), pp.407-419.
McLean, K.A., Trainor, A.M., Asner, G.P., Crofoot, M.C., Hopkins, M.E., Campbell, C.J., Martin, R.E., Knapp, D.E. and Jansen, P.A., 2016. Movement patterns of three arboreal primates in a Neotropical moist forest explained by LiDAR-estimated canopy structure. Landscape Ecology, 31(8), pp.1849-1862.
McCauley, D.J., McLean, K.A., Bauer, J., Young, H.S. and Micheli, F., 2012. Evaluating the performance of methods for estimating the abundance of rapidly declining coastal shark populations. Ecological Applications, 22(2), pp.385-392.
Santagata, S., Bacela, K., Reid, D.F., Mclean, K.A., Cohen, J.S., Cordell, J.R., Brown, C.W., Johengen, T.H. and Ruiz, G.M., 2009. Concentrated sodium chloride brine solutions as an additional treatment for preventing the introduction of nonindigenous species in the ballast tanks of ships declaring no ballast on board. Environmental Toxicology and Chemistry, 28(2), pp.346-353.
ARBOREAL WILDLIFE ECOLOGY IN TROPICAL FOREST CANOPIES
Three quarters of all vertebrates in the tropics live in or use the aboveground environment, and many of these species perform important ecosystem functions. For my dissertation research, I focused on movement behavior and habitat use for the community of animals that make use of this critical sub-habitat.
Movement patterns of three arboreal primates in a Neotropical moist forest explained by LiDAR-estimated canopy structure
Published in Landscape Ecology
Animals move in patterned and often predictable ways relative to their surrounding environment. Understanding the movement ecology of a species requires not only information on where animals move (e.g. biotelemetry), but also the environmental features around them. In tropical forests, traditional satellite-based remote sensing used characterize terrestrial habitat fail to capture the complex, three-dimensional structure of the forest canopy. Thus, our understanding of movement decisions and habitat suitability for arboreal (tree-dwelling) wildlife is quite limited. However, high-resolution Light Detection and Ranging (LiDAR) technology provides a means of capturing the vertical complexity of forest structure at the landscape scale. Using environmental variables derived from LiDAR collected by the Carnegie Airborne Observatory, I used step-selection functions to model movement behavior in three neotropical primate species.
Collaborators:
Dr. Greg Asner, Carnegie Institute for Science
Dr. Margaret Crofoot, University of California - Davis
Dr. Patrick Jansen, Smithsonian Tropical Research Institute/Wageningen University
Dr. Anne Trainor, Yale University/The Nature Conservancy
Dr. Christina Campbell, CSU - Northridge
Dr. Mariah Hopkins, University of Texas - Austin
Published in Landscape Ecology
Animals move in patterned and often predictable ways relative to their surrounding environment. Understanding the movement ecology of a species requires not only information on where animals move (e.g. biotelemetry), but also the environmental features around them. In tropical forests, traditional satellite-based remote sensing used characterize terrestrial habitat fail to capture the complex, three-dimensional structure of the forest canopy. Thus, our understanding of movement decisions and habitat suitability for arboreal (tree-dwelling) wildlife is quite limited. However, high-resolution Light Detection and Ranging (LiDAR) technology provides a means of capturing the vertical complexity of forest structure at the landscape scale. Using environmental variables derived from LiDAR collected by the Carnegie Airborne Observatory, I used step-selection functions to model movement behavior in three neotropical primate species.
Collaborators:
Dr. Greg Asner, Carnegie Institute for Science
Dr. Margaret Crofoot, University of California - Davis
Dr. Patrick Jansen, Smithsonian Tropical Research Institute/Wageningen University
Dr. Anne Trainor, Yale University/The Nature Conservancy
Dr. Christina Campbell, CSU - Northridge
Dr. Mariah Hopkins, University of Texas - Austin
|
|
Arboreal Camera Traps
Motion-sensitive cameras or "camera traps" provide an effective, non-invasive means of surveying wildlife, detecting changes in populations, and confirming presence of rare or cryptic species. Arboreal mammals live most of their lives well out of view and are often highly nocturnal, but only a handful of studies have deployed camera traps into the forest canopy. Considering the diversity of arboreal wildlife, expanding wildlife surveys into the forest canopy provides a far more complete view of the wildlife communities in these forests.
Motion-sensitive cameras or "camera traps" provide an effective, non-invasive means of surveying wildlife, detecting changes in populations, and confirming presence of rare or cryptic species. Arboreal mammals live most of their lives well out of view and are often highly nocturnal, but only a handful of studies have deployed camera traps into the forest canopy. Considering the diversity of arboreal wildlife, expanding wildlife surveys into the forest canopy provides a far more complete view of the wildlife communities in these forests.
|
|
