Mapping areas of spatial-temporal overlap from wildlife tracking data

被引:26
|
作者
Long, Jed A. [1 ]
Webb, Stephen L. [2 ]
Nelson, Trisalyn A. [3 ]
Gee, Kenneth L. [4 ]
机构
[1] Univ St Andrews, Sch Geog & Geosci, Irvine Bldg,North St, St Andrews KY16 9AL, Fife, Scotland
[2] Samuel Roberts Noble Fdn Inc, Ardmore, OK USA
[3] Univ Victoria, Dept Geog, Spatial Pattern Anal & Res Lab, Victoria, BC, Canada
[4] Oaks & Prairies Joint Venture, Gene Autry, OK 73401 USA
来源
MOVEMENT ECOLOGY | 2015年 / 3卷
关键词
WHITE-TAILED DEER; HOME-RANGE; DYNAMIC INTERACTION; HABITAT SELECTION; ANIMAL INTERACTIONS; CONTACT RATES; RANDOM-WALKS; MOVEMENT; SPACE; MANAGEMENT;
D O I
10.1186/s40462-015-0064-3
中图分类号
Q14 [生态学(生物生态学)];
学科分类号
071012 ; 0713 ;
摘要
Background: The study of inter-individual interactions (often termed spatial-temporal interactions, or dynamic interactions) from remote tracking data has focused primarily on identifying the presence of such interactions. New datasets and methods offer opportunity to answer more nuanced questions, such as where on the landscape interactions occur. In this paper, we provide a new approach for mapping areas of spatial-temporal overlap in wildlife from remote tracking data. The method, termed the joint potential path area (jPPA) builds from the time-geographic movement model, originally proposed for studying human movement patterns. Results: The jPPA approach can be used to delineate sub-areas of the home range where inter-individual interaction was possible. Maps of jPPA regions can be integrated with existing geographic data to explore landscape conditions and habitat associated with spatial temporal-interactions in wildlife. We apply the jPPA approach to simulated biased correlated random walks to demonstrate the method under known conditions. The jPPA method is then applied to three dyads, consisting of fine resolution (15 minute sampling interval) GPS tracking data of white-tailed deer (Odocoileus virginianus) collected in Oklahoma, USA. Our results demonstrate the ability of the jPPA to identify and map jPPA sub-areas of the home range. We show how jPPA maps can be used to identify habitat differences (using percent tree canopy cover as a habitat indicator) between areas of spatial-temporal overlap and the overall home range in each of the three deer dyads. Conclusions: The value of the jPPA approach within current wildlife habitat analysis workflows is highlighted along with its simple and straightforward implementation and interpretation. Given the current emphasis on remote tracking in wildlife movement and habitat research, new approaches capable of leveraging both the spatial and temporal information content contained within these data are warranted. We make code (in the statistical software R) for implementing the jPPA approach openly available for other researchers.
引用
收藏
页数:14
相关论文
共 50 条
  • [31] HIDDEN MARKOV RANDOM FIELD FOR SPATIAL AND SPATIAL-TEMPORAL RISK MAPPING
    Azizi, L.
    Forbes, F.
    Charras-Garrido, M.
    Abrial, D.
    JOURNAL OF EPIDEMIOLOGY AND COMMUNITY HEALTH, 2011, 65 : A90 - A90
  • [32] Multi-Scale Spatial-Temporal Transformer: A Novel Framework for Spatial-Temporal Edge Data Prediction
    Ming, Junhao
    Zhang, Dongmei
    Han, Wei
    APPLIED SCIENCES-BASEL, 2023, 13 (17):
  • [33] Spatial-Temporal Synchronous Graph Convolutional Networks: A New Framework for Spatial-Temporal Network Data Forecasting
    Song, Chao
    Lin, Youfang
    Guo, Shengnan
    Wan, Huaiyu
    THIRTY-FOURTH AAAI CONFERENCE ON ARTIFICIAL INTELLIGENCE, THE THIRTY-SECOND INNOVATIVE APPLICATIONS OF ARTIFICIAL INTELLIGENCE CONFERENCE AND THE TENTH AAAI SYMPOSIUM ON EDUCATIONAL ADVANCES IN ARTIFICIAL INTELLIGENCE, 2020, 34 : 914 - 921
  • [34] Capturing Local and Global Spatial-Temporal Correlations of Spatial-Temporal Graph Data for Traffic Flow Prediction
    Cao, Shuqin
    Wu, Libing
    Zhang, Rui
    Li, Jianxin
    Wu, Dan
    2022 INTERNATIONAL JOINT CONFERENCE ON NEURAL NETWORKS (IJCNN), 2022,
  • [35] Bayesian modeling of spatial-temporal data with R
    Shanmugam, Ramalingam
    JOURNAL OF STATISTICAL COMPUTATION AND SIMULATION, 2023, 93 (04) : 684 - 685
  • [36] Spatial-Temporal Editing for Dynamic Hair Data
    Wu, Yijie
    Bao, Yongtang
    Qi, Yue
    2017 INTERNATIONAL CONFERENCE ON VIRTUAL REALITY AND VISUALIZATION (ICVRV 2017), 2017, : 336 - 341
  • [37] Weighted Machine Learning for Spatial-Temporal Data
    Hashemi, Mahdi
    Karimi, Hassan A.
    IEEE JOURNAL OF SELECTED TOPICS IN APPLIED EARTH OBSERVATIONS AND REMOTE SENSING, 2020, 13 : 3066 - 3082
  • [38] Scanner: Simultaneously temporal trend and spatial cluster detection for spatial-temporal data
    Wang, Xin
    Zhang, Xin
    ENVIRONMETRICS, 2024, 35 (05)
  • [39] Spatial-temporal models to monitor groundwater data
    Fuchs, K
    Fank, J
    GROUNDWATER QUALITY: REMEDIATION AND PROTECTION, 1998, (250): : 595 - 598
  • [40] Spatial-temporal models to monitor groundwater data
    Fuchs, Klemens
    Fank, Johann
    IAHS-AISH Publication, 1998, (250): : 595 - 598