Ubi es, room to roam? Extension of the LPB-RAP model capabilities for potential habitat analysis

• Dynamic, long-term simulation-based analysis of ecological connectivity. • Comparison between SSP-RCP projection and potential FLR measures implementation. • For smallholder-dominated forest landscapes in spatiotemporal high-resolution. • For landscape planning and policy development towards mitigation and adaptation. The Anthropocene presents challenges for preserving and restoring ecosystems in human-altered landscapes. Policy development and landscape planning must consider long-term developments to maintain and restore functional ecosystems, ideally by using wildlife umbrella species as proxies. Forest and Landscape Restoration (FLR) aims to support both environmental and human well-being. However, the impact of FLR on wildlife umbrella species and their movement potential should be assessed in its potential magnitude for effective conservation. For this purpose, we introduce the LPB-RAP model expanded for potential habitat analysis in smallholder-dominated forest landscapes. It focuses on ecosystem fragmentation and landscape connectivity using Circuit Theory-based methods. LPB-RAP, based on a Monte Carlo framework, enables comprehensive habitat analysis for different SSP-RCP and policy scenarios with a broad analysis spectrum for anthropo- and biosphere aspects. It simulates dichotomous landscapes with and without potential FLR for consideration in long-term planning horizons. As an implementation example serves Ecuador's Esmeraldas province, using the Jaguar ( Panthera onca ) as a target umbrella species within an SSP2-RCP4.5 narrative. The simulation period covers 2018 to 2100 in annual and hectare resolution. The years 2024 and 2070 were chosen as probing dates for the extended habitat analysis. Results indicate that an agroforestry-based FLR scenario to increase forest cover while benefiting forest ecosystems and people would only marginally improve the movement potential for female Jaguars due to their avoidance of human-disturbed areas. Additional measures, including habitat corridors, are needed to enhance movement potential amidst increasing habitat fragmentation and loss, including stakeholders of all scales.

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Publication Details

Journal
Ecological Modelling
Published
2024-12-30
DOI
https://doi.org/10.1016/j.ecolmodel.2024.111005
Citations
2
Primary Topic
Wildlife-Road Interactions and Conservation
Type
article
Field-Weighted Citation Impact
0.92

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article

Ubi es, room to roam? Extension of the LPB-RAP model capabilities for potential habitat analysis

Kimberly R. Hall, Tomislav Hengl, S. Holler, Carmelo Bonannella et al.
2 citations
Ecological Modelling
Wildlife-Road Interactions and Conservation
0.92
article

Ubi es, room to roam? Extension of the LPB-RAP model capabilities for potential habitat analysis

Kimberly R. Hall, Tomislav Hengl, S. Holler, Carmelo Bonannella, Daniel Kübler, Bronwyn Rayfield, Sven Günter, Oliver Schmitz, Galo Zapata‐Ríos, Melvin Lippe, Olaf Conrad, Jürgen Böhner
article en
2 citations

Abstract

• Dynamic, long-term simulation-based analysis of ecological connectivity. • Comparison between SSP-RCP projection and potential FLR measures implementation. • For smallholder-dominated forest landscapes in spatiotemporal high-resolution. • For landscape planning and policy development towards mitigation and adaptation. The Anthropocene presents challenges for preserving and restoring ecosystems in human-altered landscapes. Policy development and landscape planning must consider long-term developments to maintain and restore functional ecosystems, ideally by using wildlife umbrella species as proxies. Forest and Landscape Restoration (FLR) aims to support both environmental and human well-being. However, the impact of FLR on wildlife umbrella species and their movement potential should be assessed in its potential magnitude for effective conservation. For this purpose, we introduce the LPB-RAP model expanded for potential habitat analysis in smallholder-dominated forest landscapes. It focuses on ecosystem fragmentation and landscape connectivity using Circuit Theory-based methods. LPB-RAP, based on a Monte Carlo framework, enables comprehensive habitat analysis for different SSP-RCP and policy scenarios with a broad analysis spectrum for anthropo- and biosphere aspects. It simulates dichotomous landscapes with and without potential FLR for consideration in long-term planning horizons. As an implementation example serves Ecuador's Esmeraldas province, using the Jaguar ( Panthera onca ) as a target umbrella species within an SSP2-RCP4.5 narrative. The simulation period covers 2018 to 2100 in annual and hectare resolution. The years 2024 and 2070 were chosen as probing dates for the extended habitat analysis. Results indicate that an agroforestry-based FLR scenario to increase forest cover while benefiting forest ecosystems and people would only marginally improve the movement potential for female Jaguars due to their avoidance of human-disturbed areas. Additional measures, including habitat corridors, are needed to enhance movement potential amidst increasing habitat fragmentation and loss, including stakeholders of all scales.

Ecological ModellingVol. 501
The Nature Conservancy (US), Wildlife Conservation Society (US), Universität Hamburg (DE), Utrecht University (NL), Johann Heinrich von Thünen-Institut (DE), Carleton University (CA), Open University of the Netherlands (NL)
Universität Hamburg
Life in Land
Openalex Percentile: Top 21%
Wildlife-Road Interactions and Conservation
0.92
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