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Using Fractal Analyses to Characterize Movement Paths of White-Tailed Deer and Response to Spatial Scale

It is often difficult to test hypotheses about how and why animal movement responds to environmental conditions, and at what spatial scales movement decisions are made, all of which are critical for sound management. We used fractal dimension (D) as a measure of tortuosity because it described anima...

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Published in:Journal of mammalogy 2009-10, Vol.90 (5), p.1210-1217
Main Authors: Webb, Stephen L., Riffell, Samuel K., Gee, Kenneth L., Demarais, Stephen
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creator Webb, Stephen L.
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description It is often difficult to test hypotheses about how and why animal movement responds to environmental conditions, and at what spatial scales movement decisions are made, all of which are critical for sound management. We used fractal dimension (D) as a measure of tortuosity because it described animal movement patterns and was useful for testing hypotheses about effects of sex, home-range size, monthly rainfall, and reproductive phase on movement paths and for detecting changes in movement patterns of animals across a range of movement distances. We captured and fitted 33 (18 females and 15 males) white-tailed deer (Odocoileus virginianus) with global positioning system collars. We found that females moved more tortuously (D  =  1.75 ± 0.035 SE) than males (D  =  1.549 ± 0.025). These differences in movement were related to home-range size of females but not of males. Rainfall predicted D for females; thus, females may have been able to forage more intensively in a smaller area due to increased forage availability. Fractal D of females was greatest during the parturition period (1.468 ± 0.02), likely due to restricted movements in smaller areas or increased foraging. Home-range size of males was similar in spring and rut, but D was lower during rut, indicating that deer changed movement patterns within previously established home ranges. Movement patterns were similar at path lengths related to foraging patches and home ranges, whereas movement patterns changed as path length approximated the size of habitat patches.
doi_str_mv 10.1644/08-MAMM-A-278.1
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source JSTOR Archival Journals and Primary Sources Collection; Oxford Journals Online
subjects Animal behavior
Animals
Biological and medical sciences
Birds
conception
Deer
Environmental conditions
FEATURE ARTICLES
Females
Forage
fractal dimension
Fractals
Fundamental and applied biological sciences. Psychology
global positioning system collars
Global positioning systems
GPS
Habitat
Habitats
home range
Landscape ecology
Mammalia
movements
Odocoileus virginianus
Parturition
Rain
Rainfall
Reproduction
spatial distribution
spatial scale
Studies
tortuosity
Vertebrates: general zoology, morphology, phylogeny, systematics, cytogenetics, geographical distribution
white-tailed deer
Wildlife ecology
Wildlife management
title Using Fractal Analyses to Characterize Movement Paths of White-Tailed Deer and Response to Spatial Scale
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