Modeling three-dimensional space use and overlap in birds

被引:38
|
作者
Cooper, Nathan W. [1 ,2 ]
Sherry, Thomas W. [1 ]
Marra, Peter P. [2 ]
机构
[1] Tulane Univ, Dept Ecol & Evolutionary Biol, New Orleans, LA 70118 USA
[2] Smithsonian Conservat Biol Inst, Migratory Bird Ctr, Washington, DC USA
来源
AUK | 2014年 / 131卷 / 04期
基金
美国国家科学基金会;
关键词
3D; American Redstart; home range; joint space use; overlap; territory; volume of intersection index; utilization distribution overlap index; KERNEL DENSITY ESTIMATORS; HOME-RANGE; UTILIZATION DISTRIBUTIONS; VERTICAL STRATIFICATION; MIGRATORY PASSERINES; BANDWIDTH MATRICES; FOREST; ECOLOGY; BEHAVIOR; SIZE;
D O I
10.1642/AUK-14-17.1
中图分类号
Q95 [动物学];
学科分类号
071002 ;
摘要
How animals use space has fundamental behavioral and ecological implications. Utilization distributions are among the most common methods for quantifying space use and have advanced our knowledge of animal ecology in a variety of ways. However, until recently, they were limited to 2 spatial dimensions (2D), despite the fact that most taxa use their environments in all 3 dimensions (3D). We (1) created 3D utilization distributions via a multivariate kernel density estimator, (2) adapted 2 overlap indices for use with 3D data, (3) estimated the minimum sample sizes required for accurate estimation of territory size, and (4) assessed these methods using data from American Redstarts (Setophaga ruticilla) during their nonbreeding season in Jamaica. We found that, compared to 3D methods, 2D methods overestimated individual (pairwise) spatial overlap by 3% in scrub habitat and 4% in mangrove habitat. Similarly, 2D methods overestimated total (all neighbors combined) spatial overlap by 9% in scrub and 12% in mangrove habitat. This indicates that American Redstarts may partition territorial space in all 3 spatial dimensions. Moreover, using overlap indices, we found that American Redstarts may avoid areas of overlap, possibly to limit agonistic interactions with neighbors. Although 3D methods require larger sample sizes (80-110 locations) than 2D (40-70 locations), we argue that modeling animal space use in 3D is more realistic and will enhance understanding of niche differentiation, interspecific and intraspecific competition, habitat selection and use, and wildlife conservation.
引用
收藏
页码:681 / 693
页数:13
相关论文
共 50 条
  • [31] Three-dimensional optoelectronic stacked processor by use of free-space optical interconnection and three-dimensional VLSI chip stacks
    Li, Guoqiang
    Huang, Dawei
    Yuceturk, Emel
    Marchand, Philippe J.
    Esener, Sadik C.
    Ozguz, Volkan H.
    Liu, Yue
    Applied Optics, 2002, 41 (02): : 348 - 360
  • [32] Modeling three-dimensional fabrics and three-dimensional reinforced composites: challenges and solutions
    Lomov, S. V.
    Perie, G.
    Ivanov, D. S.
    Verpoest, I.
    Marsal, D.
    TEXTILE RESEARCH JOURNAL, 2011, 81 (01) : 28 - 41
  • [33] Three-Dimensional Electromagnetic Void Space
    Xu, Changqing
    Chu, Hongchen
    Luo, Jie
    Hang, ZhiHong
    Wu, Ying
    Lai, Yun
    PHYSICAL REVIEW LETTERS, 2021, 127 (12)
  • [34] Superintegrability in three-dimensional Euclidean space
    Kalnins, EG
    Williams, GC
    Miller, W
    Pogosyan, GS
    JOURNAL OF MATHEMATICAL PHYSICS, 1999, 40 (02) : 708 - 725
  • [35] The Archimedean Arbelos in Three-dimensional Space
    Sadi Abu-Saymeh
    Mowaffaq Hajja
    Results in Mathematics, 2008, 52 : 1 - 16
  • [36] The Representation of Three-Dimensional Space in Fish
    de Perera, Theresa Burt
    Holbrook, Robert I.
    Davis, Victoria
    FRONTIERS IN BEHAVIORAL NEUROSCIENCE, 2016, 10
  • [37] Particle tracking in three-dimensional space
    Dracos, TH
    THREE-DIMENSIONAL VELOCITY AND VORTICITY MEASURING AND IMAGE ANALYSIS TECHNIQUES, 1996, 4 : 209 - 227
  • [38] Electron in three-dimensional momentum space
    Bacchetta, Alessandro
    Mantovani, Luca
    Pasquini, Barbara
    PHYSICAL REVIEW D, 2016, 93 (01):
  • [39] The Electron in Three-Dimensional Momentum Space
    L. Mantovani
    A. Bacchetta
    B. Pasquini
    Few-Body Systems, 2016, 57 : 515 - 519
  • [40] Neural codes for three-dimensional space
    Gnadt, JW
    ACCOMMODATION AND VERGENCE MECHANISMS IN THE VISUAL SYSTEM, 2000, : 11 - 19