Using Species Distribution Models to Predict Potential Landscape Restoration Effects on Puma Conservation

被引:105
|
作者
Silva Angelieri, Cintia Camila [1 ,2 ]
Adams-Hosking, Christine [2 ]
Micchi de Barros Ferraz, Katia Maria Paschoaletto [3 ]
de Souza, Marcelo Pereira [4 ]
McAlpine, Clive Alexander [2 ]
机构
[1] Univ Sao Paulo, Water Resources & Environm Studies Ctr, Sao Carlos Sch Engn, Sao Carlos, SP, Brazil
[2] Univ Queensland, Sch Geog Planning & Environm Management, Brisbane, Qld, Australia
[3] Univ Sao Paulo, Dept Forest Sci, Luiz de Queiroz Coll Agr, Piracicaba, SP, Brazil
[4] Univ Sao Paulo, Dept Biol, Ribeirao Preto Sch Philosophy Sci & Literature, BR-14049 Ribeirao Preto, SP, Brazil
来源
PLOS ONE | 2016年 / 11卷 / 01期
基金
巴西圣保罗研究基金会;
关键词
JAGUAR PANTHERA-ONCA; LIVESTOCK PREDATION; TROPHIC CASCADES; EXTINCTION RISK; ATLANTIC FOREST; CONCOLOR; HABITAT; COUGARS; DISPERSAL; BRAZIL;
D O I
10.1371/journal.pone.0145232
中图分类号
O [数理科学和化学]; P [天文学、地球科学]; Q [生物科学]; N [自然科学总论];
学科分类号
07 ; 0710 ; 09 ;
摘要
A mosaic of intact native and human-modified vegetation use can provide important habitat for top predators such as the puma (Puma concolor), avoiding negative effects on other species and ecological processes due to cascade trophic interactions. This study investigates the effects of restoration scenarios on the puma's habitat suitability in the most developed Brazilian region (Sao Paulo State). Species Distribution Models incorporating restoration scenarios were developed using the species' occurrence information to (1) map habitat suitability of pumas in Sao Paulo State, Southeast, Brazil; (2) test the relative contribution of environmental variables ecologically relevant to the species habitat suitability and (3) project the predicted habitat suitability to future native vegetation restoration scenarios. The Maximum Entropy algorithm was used (Test AUC of 0.84 +/- 0.0228) based on seven environmental non-correlated variables and non-autocorrelated presence-only records (n = 342). The percentage of native vegetation (positive influence), elevation (positive influence) and density of roads (negative influence) were considered the most important environmental variables to the model. Model projections to restoration scenarios reflected the high positive relationship between pumas and native vegetation. These projections identified new high suitability areas for pumas (probability of presence >0.5) in highly deforested regions. High suitability areas were increased from 5.3% to 8.5% of the total State extension when the landscapes were restored for >= the minimum native vegetation cover rule (20%) established by the Brazilian Forest Code in private lands. This study highlights the importance of a landscape planning approach to improve the conservation outlook for pumas and other species, including not only the establishment and management of protected areas, but also the habitat restoration on private lands. Importantly, the results may inform environmental policies and land use planning in Sao Paulo State, Brazil.
引用
收藏
页数:18
相关论文
共 50 条
  • [1] Distribution Models of Timber Species for Forest Conservation and Restoration in the Andean-Amazonian Landscape, North of Peru
    Cotrina Sanchez, Dany A.
    Barboza Castillo, Elgar
    Rojas Briceno, Nilton B.
    Oliva, Manuel
    Torres Guzman, Cristobal
    Amasifuen Guerra, Carlos A.
    Bandopadhyay, Subhajit
    SUSTAINABILITY, 2020, 12 (19)
  • [2] Species distribution models predict rare species occurrences despite significant effects of landscape context
    McCune, J. L.
    JOURNAL OF APPLIED ECOLOGY, 2016, 53 (06) : 1871 - 1879
  • [3] Hierarchical species distribution models in support of vegetation conservation at the landscape scale
    Mateo, Ruben G.
    Gaston, Aitor
    Jose Aroca-Fernandez, Maria
    Broennimann, Olivier
    Guisan, Antoine
    Saura, Santiago
    Ignacio Garcia-Vinas, Juan
    JOURNAL OF VEGETATION SCIENCE, 2019, 30 (02) : 386 - 396
  • [4] Using landscape metrics and species potential distribution modeling in cities to develop the Selection of Areas for Species Conservation Index (SASCI)
    dos Reis, Allan Rodrigo Nunho
    Biondi, Daniela
    Viezzer, Jennifer
    de Oliveira, Jefferson Dias
    Kovalsyki, Bruna
    TREES-STRUCTURE AND FUNCTION, 2021, 35 (04): : 1341 - 1350
  • [5] Using landscape metrics and species potential distribution modeling in cities to develop the Selection of Areas for Species Conservation Index (SASCI)
    Allan Rodrigo Nunho dos Reis
    Daniela Biondi
    Jennifer Viezzer
    Jefferson Dias de Oliveira
    Bruna Kovalsyki
    Trees, 2021, 35 : 1341 - 1350
  • [6] Avoiding pitfalls of using species distribution models in conservation planning
    Loiselle, BA
    Howell, CA
    Graham, CH
    Goerck, JM
    Brooks, T
    Smith, KG
    Williams, PH
    CONSERVATION BIOLOGY, 2003, 17 (06) : 1591 - 1600
  • [7] Using extinctions in species distribution models to evaluate and predict threats: a contribution to plant conservation planning on the island of Sardinia
    Fois, Mauro
    Bacchetta, Gianluigi
    Cuena-Lombrana, Alba
    Cogoni, Donatella
    Pinna, Maria Silvia
    Sulis, Elena
    Fenu, Giuseppe
    ENVIRONMENTAL CONSERVATION, 2018, 45 (01) : 11 - 19
  • [8] Using verified species distribution models to inform the conservation of a rare marine species
    Stirling, David A.
    Boulcott, Philip
    Scott, Beth E.
    Wright, Peter J.
    DIVERSITY AND DISTRIBUTIONS, 2016, 22 (07) : 808 - 822
  • [9] Suitability assessment for forest landscape restoration based on species diversity conservation
    Fan, Niqiao
    Wang, Yiwen
    Yang, Xin
    Li, Jiajing
    Kang, Jiemin
    Liu, Qiang
    Zhang, Zhidong
    FRONTIERS IN FORESTS AND GLOBAL CHANGE, 2024, 7
  • [10] Prioritizing localized management actions for seagrass conservation and restoration using a species distribution model
    Adams, Matthew P.
    Saunders, Megan I.
    Maxwell, Paul S.
    Tuazon, Daniel
    Roelfsema, Chris M.
    Callaghan, David P.
    Leon, Javier
    Grinham, Alistair R.
    O'Brien, Katherine R.
    AQUATIC CONSERVATION-MARINE AND FRESHWATER ECOSYSTEMS, 2016, 26 (04) : 639 - 659