ORIGINAL PAPERS

Spatiotemporal niche relationship between leopard and its sympatric carnivores in the forest of Baizha, Qinghai Province

  • CHAI Yuhua ,
  • MAO Xiaoning ,
  • Gamachenglinqiujiang ,
  • LI Guogang ,
  • SUN Nan
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  • 1 Academy of Plateau Science and Sustainability, School of Life Sciences, Qinghai Normal University, Xining 810008, China;
    2 School of Life Sciences, Zhengzhou University, Zhengzhou 450001, China;
    3 Qinghai Forest Ecosystem Observation and Research Station in the Southern Qilian Mountains, Huzhu 810500, China;
    4 Key Laboratory of Biodiversity Formation Mechanism and Comprehensive Utilization of the Qinghai-Tibet Plateau in Qinghai Province, Xining 810008, China

Received date: 2024-04-30

  Revised date: 2024-10-29

  Online published: 2024-12-02

Abstract

How does the presence of dominant top predators affect the spatiotemporal dynamics of other predators in the community, it is crucial for understanding the maintain mechanisms of animal community diversity. In Baizha forest of Qinghai province, located in the southern Sanjiangyuan region, based on monitoring data of 46 available infrared camera sites collected in winter between (October to next April) from 2021 to 2023, a total of 12 carnivores species are recorded, among which the leopard Panthera pardus is the dominant apex predator in the community. By comparing the vertical spatial distribution, site co-occurrence patterns, and daily activity rhythms between species, this study explores the spatiotemporal interactions between leopard and other predators within the community. The results show: in the spatial niche dimension, leopards utilize the broadest vertical space (Altitude 3 730 - 4 433 m), primarily distributed in the range of altitude 3 900 - 4 100 m. According to the Mann-Whitney U test, the activity altitude of small mustelid is similar to that of leopard, while other carnivores are distributed at significantly higher (snow leopard, wolf, and Eurasian lynx) or lower elevations (brown bear, red fox, and leopard cat). The analysis of single-season dual-species occupancy models between leopards and other carnivores indicates that when leopard is present, wolf and red fox exhibit spatial avoidance (SIF<1); other carnivores tend to coexist with leopard (SIF>1). Elevation is an important factor affecting the probability of site use by the Eurasian lynx, Asian badger, stone marten and leopard cat. Notably, as elevation increases, the spatial relationship between the Asian badger and leopard shifts from coexistence to distinct separation. Regarding the temporal niche dimension, kernel density estimation of daily activity rhythms reveals that leopard exhibited a diurnal activity rhythm, being more active from morning and peaking at 19: 00. Wolf displayes diurnal activity; Although the daily activity does not significantly differ from that of leopard, their activity peaks are staggered. Other carnivores are mainly nocturnal, showing significant differences from the leopard’s diurnal activity rhythm, with the exception of the Asian badger. This study provides fundamental information of the composition and interspecies relationships in the carnivore community of high-altitude forest, and contributes to a deeper understanding of their coexistence mechanisms.

Cite this article

CHAI Yuhua , MAO Xiaoning , Gamachenglinqiujiang , LI Guogang , SUN Nan . Spatiotemporal niche relationship between leopard and its sympatric carnivores in the forest of Baizha, Qinghai Province[J]. ACTA THERIOLOGICA SINICA, 2024 , 44(6) : 706 -716 . DOI: 10.16829/j.slxb.150945

References

Andersen G E, Johnson C N, Jones M E.2020.Space use and temporal partitioning of sympatric Tasmanian devils and spotted-tailed quolls.Austral Ecology, 45(3):355-365.
Berger K M, Gese E M, Berger J.2008.Indirect effects and traditional trophic cascades:a test involving wolves, coyotes, and pronghorn.Ecology, 89(3):818-828.
Berger K M, Gese E M, Berger J.2007.Does interference competition with wolves limit the distribution and abundance of coyotes.Journal of Animal Ecology, 76(6):1075-1085.
Bu H L, Wang F, MCshea W J, Lu Z.2016.Spatial co-occurrence and activity aatterns of mesocarnivores in the temperate forests of southwest China.PLoS ONE, 11(10).DOI:10.1371/journal.pone.0164271.
Chesson P.2000.Mechanisms of maintenance of species diversity.Annual Review of Ecology and Systematics, 31(1):343-366.
Chiang P J, Pei K J C, Vaughan M R, Li C F.2012.Niche relationships of carnivores in a subtropical primary forest in southern Taiwan.Zoological Studies, 51(4):500-511.
Cáceres N C, Machado A F.2013.Spatial, dietary and temporal niche dimensions in ecological segregation of two sympatric, congeneric marsupial species.Open Ecology Journal, 6(1):10-23.
Chaudhary R, Zehra N, Musavi A, Khan J A.2020.Spatio-temporal partitioning and coexistence between leopard (Panthera pardus fusca) and Asiatic lion (Panthera leopersica) in Gir protected area, Gujarat, India.PLoS ONE, 15(3).DOI:10.1371/journal.pone.0229045.
Chatterjee A B, Sankar K, Jhala Y V, Qureshi Q.2023.Spatiotemporal patterns of co-occurrence of tigers and leopards within a protected area in central India.Web Ecology, 23(1):17-34.
Di Bitetti M S, De Angelo C D, Di Blanco Y E, Paviolo A.2010.Niche partitioning and species coexistence in a Neotropical felid assemblage.Acta Oecologica, 36(4):403-412.Gómez-Ortiz Y, Monroy-Vilchis O, Castro-Arellano I.2019.Temporal coexistence in a carnivore assemblage from central Mexico:Temporal-domain dependence.Mammal Research, 64(3):333-342.
Fiske I J, Chandler R B.2011.Unmarked:An R package for fitting hierarchical models of wildlife occurrence and abundance.Journal of Statistical Software, 43(10).DOI:10.18637/jss.v043.i10.
Frey S, Fisher J T, Burton A C, Volpe J P.2017.Investigating animal activity patterns and temporal niche partitioning using camera trap data:challenges and opportunities.Remote Sensing in Ecology and Conservation, 3(3):123-132.
Hayward M W, Henschel P, O’Brien J, Hofmeyr M, Balme G, Kerley G I H.2006.Prey preferences of the leopard (Panthera pardus).
Journal of Zoology, 270:298-313.
He R C, Wang L, Goodale E, Li K, Quan R C.2023.The extremely small body size of Williamson’s mouse deer (Tragulus williamsoni) allows coexistence with sympatric larger ungulates through temporal avoidance.Frontiers in Ecology and Evolution, 11.DOI:10.10.3389/fevo.2023.1125840.
Hu Q, Lin H Q, Dai Q, Yang Z S, He L Y, Zhang W, Shi X G.2020.Niche differentiation among three middle-sized Carnivores in Wolong Nature Reserve.Acta Theriologica Sinica, 55(6):685-691.(in Chinese)
Jia D, Li P Y, Zhao X, Cheng C, Xiao L Y, Lu Z.2020.Overview of Sanjiangyuan community-based camera-trapping monitoring platform.Biodiversity Science, 28(9):1104-1109.(in Chinese)
Karanth U L, Srivathsa A, Vasudev D, Puri M, Parameshwaran R, Kumar N S.2017.Spatio-temporal interactions facilitate large carnivore sympatry across aresource gradient.Proceedings of the Royal Society B, 284.DOI:10.1098/rspb.2016.1860.
Laguardia A, Kamler J F, Li S, Zhang C C, Zhou Z F, Shi K.2017.The current distribution and status of leopards Panthera pardus in China.Oryx, 51(1):153-159.
Lang P F.2020.Study on the distribution and changes of leopards (Panthera pardus) in China in the past 300 years.Master thesis.
Harbin:Northeast Forestry University.(in Chinese)
Laundré J W, Hernández L, LópezMedina P, Campanella A, López-Portillo J, González-Romero A, Grajales-Tam K M, Burke A M, Gronemeyer P, Browning D M.2014.The landscape of fear:the missing link to understand topdown and bottom-up con
Li Z L, Duo L A, Li C, Wang T M.2021.Competition and coexistence among terrestrial mammalian carnivores.Biodiversity Science, 29(1):81-97.(in Chinese)
Li Z L, Wang T M.2022.Competition and coexistence between tigers and leopards in Asia.Biodiversity Science, 30(9):29-45.(in Chinese)
Li Z L, Wang T M, James L D S, Feng R N, Feng L M, Mou P, Ge J P.2019.Coexistence of two sympatric flagship carnivores in the human-dominated forest landscapes of Northeast Asia.Biodiversity Science, 34:291-305.
Li T, Meng D H, Teng L W, Si Y H, Zhang Z R, Liu Z S.2020.Activity rhythm of red fox in Luoshan National Nature Reserve based on infrared camera technology.Chinese Journal of Wildlife, 41(4):891-896.(in Chinese)
Lu Q, Hu Q, Shi X G, Jin S L, Li S, Yao M.2019.Metabarcoding diet analysis of snow leopards (Panthera uncia) in Wolong National Nature Reserve, Sichuan Province.Biodiversity Science, 27(9):960-969.(in Chinese)
Lucherini M, Reppucci J I, Walker R S, Villalba M L, Wurstten A, Gallardo G, Iriarte A, Villalobos R, Perovic P.2009.Activity pattern segregation of carnivores in the High Andes.Journal of Mammalogy, 90(6):1404-1409.
Luo W H, Gao C Y, Li G Z, Li C S, Tang Y M, Wang J, Jiang G S, Hua Y.2020.Spatiotemporal coexistence of North Chinese leopard (Panthera pardus japoness) and prey in Tie Qiao Shan Provineial Nature Reserve.Acta Ecologica Sinica, 40(17):5949-5956.(in Chinese)
Ma B, Pan G L, Li L G, Chen Y, Li W B, Lui Y Z, Jiekeyi B, Sun S W, Shi K.2021.Preliminary study on habitat suitability of snow leopard (Panthera uncia) in central Tianshan Mountains.Acta Theriologica Sinica, 41(1):1-10.(in Chinese)
MacKenzie D I, Nichols J D, Royle J A, Pollock K H, Bailey L L, Hines J E.2006.Occupancy Estimation and Modeling:Inferring Patterns and Dynamics of Species Occurrence.Academic Press, San Diego.
Merrill S B, Mech L D.2003.The usefulness of GPS telemetry to study wolf circadian and social activity.Wildlife Society Bulletin, 31(4):947-960.
Miller J R B, Pitman R T, Mann G K H, Fuller A K, Balme G A.2018.Lions and leopards coexist without spatial, temporal or demographic effects of interspecific competition.Journal of Animal Ecology, 87(6):1709-1726.
Monterroso P, Diaz-Ruiz F, Lukacs P M, Alves P C, Ferreras P.2020.Ecological traits and the spatial structure of competitive coexistence among carnivores.Ecology, 101(8).DOI:10.1002/ecy.3059.
Nawaz M A, Martin J, Swenson J E.2014.Identifying critical habitats for the conservation of the threatened Himalayan brown bear.Biological Conservation, 170:115-123.
Newsome T M, Boitani L, Chapron G, Ciucci P, Dickman C R, Del linger J A, LópezBao J V, Peterson R O, Shores C R, Wirsing A J, Ripple W J.2016.Food habits of the world’s grey wolves.Mammal Review, 46(4):255-269.
Niedballa J, Wilting A, Sollmann R, Hofer1 H, Courtiol A.2019.Assessing analytical methods for detecting spatiotemporal interactions between species from camera trapping data.Remote Sensing in Ecology and Conservation, 5(3):272-285.
O’Brien T G.2008.On the use of automated cameras to estimate species richness for large and medium sized rainforest mammals.Animal Conservation, 11(3):179-181.
O’Brien T G, Kinnaird M F, Wibisono H T.2003.Crouching tigers, hidden prey:Sumatran tiger and prey populations in a tropical forest landscape.Animal Conservation, 6(2):131-139.
O’Malley C, Elbroch L M, Lendrum P E, Quigley H.2018.Motiontriggered video cameras reveal spatial and temporal patterns of red fox foraging on carrion provided bymountain lions.PeerJ, 6(4).DOI:10.7717/peerj.5324.
Octenjak D, Pađen L, Šilić V, Reljić S, Vukičević T T, Kusak J.2020.Wolf diet and prey selection in Croatia.Mammal Research, 65(4):647-654.
Padial J M, Avila E, Sanchez J M.2002.Feeding habits and overlap among red fox (Vulpes vulpes) and stone marten (Martes foina) in two Mediterranean mountain habitats.Mammalian Biology, 67(3):137-146.
Podolski I, Belotti E, Bufka L, Reulen H, Heurich M.2013.Seasonal and daily activity patterns of free-living Eurasian Lynx lynx lynx in relation to availability of kills.Wildlife Biology, 9(1):69-77.
R Core Team.2023.R:A Language and Environment for Statistical Computing.Vienna, Austria:R Foundation for Statistical Computing.https://www.R-project.org/.
Rowcliffe M.2014.Animal Activity Statistics.R package version 1.3.4.
Ridout M S, Linkie M.2009.Estimating overlap of daily activity patterns from camera trap data.Journal of Agricultural Biological and Environmental Statistics, 14(3):322-337.
Ripple W J, Beschta R L.2004.Wolves and the ecology of fear:Can predation risk structure ecosystems?BioScience, 54:755-766.
Ripple W J, Estes J A, Beschta R L, Wilmers C C, Ritchie E G, Hebblewhite M, Berger J, Elmhagen B, Letnic M, Nelson M P, Schmitz O J, Smith D W, Wallach A D, Wirsing A J.2014.Status and ecological effects of the world’s largest carnivores.Science, 343(6167):151-162.
Ritchie E G, Johnson C N.2009.Predator interactions, mesopredator release and biodiversity conservation.Ecology Letters, 12:982-998.
Schoener T W.1974.Resource partitioning in ecological communities.Science, 185:27-39.
Shao X N, Lu Q, Xiong M Y, Bu H L, Shi X Y, Wang D J, Zhao J D, Li S, Yao M.2021.Prey partitioning and livestock consumption in the world’s richest large carnivore assemblage.Current Biology, 31:4887-4897.
Srivathsa A, Ramachandran V, Saravanan P, Sureshbabu A, Ganguly D, Ramakrishnan U.2023.Topcats and underdogs:intraguild interactions among three apex carnivores across Asia’s forestscapes.Biological Reviews, 98(6):2114-2135.
Sunarto S, Kelly M J, Parakkasi K, Hutajulu M B.2015.Cat coexistence in central Sumatra:ecological characteristics, spatial and temporal overlap, and implications for management.Journal of Zoology, 296(2):104-115.
Sun N, Cao C H, Li G G, Liu Z H, Quan R C.2020.Macaca leonina has a wider niche breadth than sympatric M.mulatta in a fragmented tropical forest in southwest China.American Journal of Primatology, 82(2).DOI:10.1002/ajp.23100.
Theuerkauf J, Jedrzejewski W, Schmidt K, Okarma H, Ruczynski I, Sniezko S, Gula R.2003.Daily patterns and duration of wolf activity in the Bialowieza forest, Poland.Journal of Mammalogy, 84(1):243-253.
Vitekere K.2021.North China Leopard conservation status and coexistence patterns with red fox and leopar cat in Tieqiaoshan Nature Reserve, Shanxi.Harbin:Northeast Forestry University.
Vissia S, Fattebert J, Langevelde F V.2022.Leopard density and interspecific spatiotemporal interactions in a hyena-dominated landscape.Research Article, 12.DOI:10.1002/ece3.9365.
Wei F W, Yang Q C, Wu Y, Jiang X L, Yang B G, Yang G, Li M, Zhou J, Li S, Hu Y B, Ge D Y, Li S, Yu W H, Cheng B Y, Zhang Z J, Zhou C Q, Wu S B, Zhang L, Cheng Z Z, Cheng S D, Deng H Q, Jiang T L, Zhang L B, Shi H Y, Lu X L, Li Q, Liu Z, Cui Y Q, Li Y C.2021.Catalogue of mammals in China (2021).Acta Theriologica Sinica, 41(5):487-501.(in Chinese)
Werhahn G, Kusi N, Li X Y, Chen C, Zhi L, Martin R L, Sillero-Zubiri C, Macdonald D W.2019.Himalayan wolf foraging ecology and the importance of wild prey.Global Ecology and Conservation, 20.DOI:10.1016/j.gecco.2019.e00780.
Wickham H, Chang W, Henry L, Kohske T, Wilke C, Kara Woo, Hiroaki Yutani, Dunnington D, van den Brand T.2016.ggplot2:Create Elegant Data Visualisations Using the Grammar of Graphics.R package version 3.5.0.
Xu W H, Xiao Y, Zhang J J, Yang W, Zhang L, Hull V, Wang Z, Zheng H, Liu J G, Polasky S, Jiang L, Xiao Y, Shi X W, Rao E M, Lu F, Wang X K, Daily G C, Ouyang Z Y.2017.Strengthening protected areas for biodiversity and ecosystem services in China.Proceedings of the National Academy of Sciences of the United States of America, 114(7):1601-1606.
Xu A C, Jiang Z G, Li C W, Cai P.2010.Food habits and hunting patterns of Tibetan brown bear during warm seasons in Kekexili region on Qinghai-Tibetan Plateau.Zoological Research, 31(6):670-674.(in Chinese)
Xu F, Ma M, Yin S J, Bariushaa M.2006.Autumn habitat selection by snow leopard (Uncia uncia) in Beita Mountain, Xinjiang, China.Zoological Research, 27(2):221-224.(in Chinese)
Zhang C Z, Ma T, Wu L J, Liu X M.2023.Temporal niche relationship between snow leopard (Panthera uncia) and its sympatric large carnivores in Qilian Mountains, Gansu Province.Acta Theriologica Sinica, 43(1):109-115.(in Chinese)
Zhang H Y, Zhang D X, Mao R R, Wang Y Z, Zhou Q, Xu T, Zhang L X.2023.Daily activity patterns of leopard cats and their potential prey in forest ecosystem of Xinglong Mountains of Gansu Province, China.Chinese Journal of Wildlife, 44(2):239-247.(in Chinese) Smith A T, 解焱.2009.中国兽类野外手册.长沙:湖南教育出版社.
马兵, 潘国梁, 李雷光, 陈颖, 李祎斌, 刘一正, 巴力克·杰克义, 孙世为, 时坤.2021.天山中部雪豹栖息地适宜性研究初报.兽类学报, 41(1):1-10.
刘少英, 吴毅, 李晟.2022.中国兽类图鉴.福州:海峡书局出版社.
张红勇, 张德喜, 毛锐锐, 王一竹, 周倩, 徐涛, 张立勋.2023.甘肃兴隆山森林生态系统豹猫及其潜在猎物的日活动模式.野生动物学报, 44(2):239-247.
张常智, 马腾, 乌力吉, 刘晓敏.2023.甘肃祁连山脉雪豹及其同域分布大型食肉动物时间生态位关系.兽类学报, 43(1):109-115.
李涛, 孟德怀, 滕丽微, 司雨蕙, 张致荣, 刘振生.2020.基于红外相机技术的罗山国家级自然保护区赤狐活动节律.野生动物学报, 41(4):891-896.
李治霖, 多立安, 李晟, 王天明.2021.陆生食肉动物竞争与共存研究概述.生物多样性, 29(1):81-97.
李治霖, 王天明.2022.亚洲同域分布虎和豹竞争与共存关系概述.生物多样性, 30(9):29-45.
陆琪, 胡强, 施小刚, 金森龙, 李晟, 姚蒙.2019.基于分子宏条形码分析四川卧龙国家级自然保护区雪豹的食性.生物多样性, 27(9):960-969.
何友均.2008.三江源自然光保护区森林植物多样性及其保护研究.北京:中国林业出版社.
罗文慧, 高春雨, 李吉照, 李春实, 唐一鸣, 王姣, 姜广顺, 华彦.2020.山西铁桥山省级自然保护区华北豹及其猎物的时空动态研究.生态学报, 40(17):5949-5956.
郎鹏飞.2020.中国近300年豹分布与变迁研究.哈尔滨:东北林业大学硕士学位论文.
胡强, 林红强, 戴强, 杨志松, 何流洋, 张文, 施小刚.2020.卧龙保护区三种中型食肉动物的生态位差异.动物学杂志, 55(6):685-691.
贾丁, 李沛芸, 赵翔, 程琛, 肖凌云, 吕植.2020.三江源红外相机社区监测平台概述.生物多样性, 28(9):1104-1109.
徐峰, 马鸣, 殷守敬, Bariushaa Munkhtsog.2006.新疆北塔山雪豹对秋季栖息地的选择.动物学研究, 27(2):221-224.
徐爱春, 蒋志刚, 李春旺, 蔡平.2010.青藏高原可可西里地区藏棕熊暖季食性及采食行为模式.动物学研究, 31(6):670-674.
魏辅文, 杨奇森, 吴毅, 蒋学龙, 刘少英, 李保国, 杨光, 李明, 周江, 李松, 胡义波, 葛德燕, 李晟, 余文华, 陈炳耀, 张泽钧, 周材权, 吴诗宝, 张立, 陈中正, 陈顺德, 邓怀庆, 江廷磊, 张礼标, 石红艳, 卢学理, 李权, 刘铸, 崔雅倩, 李玉春.2021.中国兽类名录(2021版).兽类学报, 41(5):487-501.
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