Of scales and stationarity in animal movements

被引:118
|
作者
Benhamou, Simon [1 ]
机构
[1] CNRS, Ctr Ecol Fonct & Evolut, UMR 5175, F-34033 Montpellier, France
关键词
diffusion-advection; home range; Levy walk; navigation; pattern and process; random walk; searching modes; space use; FLIGHT SEARCH PATTERNS; HOME-RANGE; SAMPLING RATE; INSECT MOVEMENT; SPATIAL MEMORY; LEVY; BEHAVIOR; TIME; NAVIGATION; ECOLOGY;
D O I
10.1111/ele.12225
中图分类号
Q14 [生态学(生物生态学)];
学科分类号
071012 ; 0713 ;
摘要
With recent technological advances in tracking devices, movements of numerous animal species can be recorded with a high resolution over large spatial and temporal ranges. This opens promising perspectives for understanding how an animal perceives and reacts to the multi-scale structure of its environment. Yet, conceptual issues such as confusion between movement scales and searching modes prevent us from properly inferring the movement processes at different scales. Here, I propose to build on stationarity (i.e. stability of statistical parameters) to develop a consistent theoretical framework in which animal movements are modelled as a generic composite multi-scale multi-mode random walk model. This framework makes it possible to highlight scales that are relevant to the studied animal, the nature of the behavioural processes that operate at each of these different scales, and the way in which the processes involved at any given scale can interact with those operating at smaller or larger scales. This explicitly scale-focused approach should help properly analyse actual movements by relating, for each scale and each mode, the values of the main model parameters (speed, short- and long-term persistences, degree of stochasticity) to the animal's needs and skills and its response to its environment at multiple scales.
引用
收藏
页码:261 / 272
页数:12
相关论文
共 50 条
  • [41] An "orientation sphere" visualization for examining animal head movements
    Wilson, Rory P.
    Williams, Hannah J.
    Holton, Mark D.
    di Virgilio, Agustina
    Borger, Luca
    Potts, Jonathan R.
    Gunner, Richard
    Arkwright, Alex
    Fahlman, Andreas
    Bennett, Nigel C.
    Alagaili, Abdulaziz
    Cole, Nik C.
    Duarte, Carlos M.
    Scantlebury, David M.
    ECOLOGY AND EVOLUTION, 2020, 10 (10): : 4291 - 4302
  • [42] Dissemination of parasites by animal movements in small ruminant farms
    Vasileiou, N. G. C.
    Fthenakis, G. C.
    Papadopoulos, E.
    VETERINARY PARASITOLOGY, 2015, 213 (1-2) : 56 - 60
  • [43] 'Animal Crackers', Ten Short Movements for Easy Piano
    Piccirilli, D
    CLAVIER, 2003, 42 (01): : 37 - 37
  • [44] RECIPROCAL INHIBITION - A MECHANISM UNDERLYING OSCILLATORY ANIMAL MOVEMENTS
    FRIESEN, WO
    NEUROSCIENCE AND BIOBEHAVIORAL REVIEWS, 1994, 18 (04): : 547 - 553
  • [45] Post-Brexit pain for zoo animal movements
    Loeb, Josh
    VETERINARY RECORD, 2023, 193 (10) : 388 - 388
  • [46] ARE ANIMAL DISPLAYS BODILY MOVEMENTS OR MANIFESTATIONS OF THE ANIMALS MIND
    SMIT, H
    BEHAVIOR AND PHILOSOPHY, 1995, 23 (01) : 13 - 19
  • [47] Use of luminous paint for observation of animal movements in the dark
    Lochhead, JH
    SCIENCE, 1939, 89 : 301 - 301
  • [48] Modeling animal movements using stochastic differential equations
    Preisler, HK
    Ager, AA
    Johnson, BK
    Kie, JG
    ENVIRONMETRICS, 2004, 15 (07) : 643 - 657
  • [49] Beyond Migration: Causes and Consequences of Nomadic Animal Movements
    Teitelbaum, Claire S.
    Mueller, Thomas
    TRENDS IN ECOLOGY & EVOLUTION, 2019, 34 (06) : 569 - 581
  • [50] GPS error in studies addressing animal movements and activities
    Ganskopp, David C.
    Johnson, Dustin D.
    RANGELAND ECOLOGY & MANAGEMENT, 2007, 60 (04) : 350 - 358