Revealing driver-mediated indirect interactions between ecosystem services using Bayesian Belief Networks

• Bayesian Belief Networks improve our understanding of ecosystem service interactions. • Human activity influences trade-offs and synergies among ecosystem services. • Not accounting for an urban driver under- or overestimates direct interactions. • Human activity intensity explains a trade-off among bird-watching & carbon storage. • Identifying drivers behind interactions may lead to more informed decision making. Understanding the drivers mediating ecosystem service interactions is essential for supporting policy decisions aimed at sustaining synergies and mitigating trade-offs. Currently, most studies assessing ecosystem service interactions do not model them as a causal network. Here, we use Bayesian Belief Networks (BBNs) to assess how human activity intensity influences ecosystem service interactions ( e.g. , trade-off, synergy, no effect). We quantify changes in interactions for two snapshots in time in Southern Quebec (Canada) among aboveground forest carbon regulation, maple syrup provisioning, livestock provisioning, landscape recreation, bird-watching recreation, and number of bird species per route (an Essential Biodiversity Variable). By comparing correlation analyses to BBNs with or without the driver of human activity intensity, we show that not accounting for human activity intensity results in incorrectly attributing a driver-mediated trade-off as a direct trade-off ( e.g. , between bird-watching recreation and aboveground forest carbon regulation) and failure to detect direct interactions ( e.g. , between bird-watching recreation and livestock provisioning). BBNs provide a more complete understanding of interactions. In contrast to correlation analysis, which can only assess a relationship between two variables, BBNs can assess relationships among multiple variables and as such determine whether a relationship is due to a shared driver or whether the relationship is due to a direct synergy or trade-off among services. However, if relevant drivers are excluded, then direct interactions may be missed, and driver-mediated relationships may be incorrectly attributed as direct interactions. A better understanding of drivers that shape ecosystem service interactions could guide their management and provide targeted policy interventions.

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Publication Details

Journal
Ecosystem Services
Published
2025-03-17
DOI
https://doi.org/10.1016/j.ecoser.2025.101717
Citations
10
Primary Topic
Land Use and Ecosystem Services
Type
article
Field-Weighted Citation Impact
11.05
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article

Revealing driver-mediated indirect interactions between ecosystem services using Bayesian Belief Networks

Marie‐Josée Fortin, Andrew Gonzalez, Carina R. Firkowski, Amanda M. Schwantes
10 citations
Ecosystem Services
Land Use and Ecosystem Services
11.05
article

Revealing driver-mediated indirect interactions between ecosystem services using Bayesian Belief Networks

Marie‐Josée Fortin, Andrew Gonzalez, Carina R. Firkowski, Amanda M. Schwantes
article en
10 citations

Abstract

• Bayesian Belief Networks improve our understanding of ecosystem service interactions. • Human activity influences trade-offs and synergies among ecosystem services. • Not accounting for an urban driver under- or overestimates direct interactions. • Human activity intensity explains a trade-off among bird-watching & carbon storage. • Identifying drivers behind interactions may lead to more informed decision making. Understanding the drivers mediating ecosystem service interactions is essential for supporting policy decisions aimed at sustaining synergies and mitigating trade-offs. Currently, most studies assessing ecosystem service interactions do not model them as a causal network. Here, we use Bayesian Belief Networks (BBNs) to assess how human activity intensity influences ecosystem service interactions ( e.g. , trade-off, synergy, no effect). We quantify changes in interactions for two snapshots in time in Southern Quebec (Canada) among aboveground forest carbon regulation, maple syrup provisioning, livestock provisioning, landscape recreation, bird-watching recreation, and number of bird species per route (an Essential Biodiversity Variable). By comparing correlation analyses to BBNs with or without the driver of human activity intensity, we show that not accounting for human activity intensity results in incorrectly attributing a driver-mediated trade-off as a direct trade-off ( e.g. , between bird-watching recreation and aboveground forest carbon regulation) and failure to detect direct interactions ( e.g. , between bird-watching recreation and livestock provisioning). BBNs provide a more complete understanding of interactions. In contrast to correlation analysis, which can only assess a relationship between two variables, BBNs can assess relationships among multiple variables and as such determine whether a relationship is due to a shared driver or whether the relationship is due to a direct synergy or trade-off among services. However, if relevant drivers are excluded, then direct interactions may be missed, and driver-mediated relationships may be incorrectly attributed as direct interactions. A better understanding of drivers that shape ecosystem service interactions could guide their management and provide targeted policy interventions.

Ecosystem ServicesVol. 73
University of Toronto (CA), McGill University Health Centre (CA), Centre For Cold Ocean Resources Engineering (CA), South African Environmental Observation Network (ZA), McGill University (CA)
Openalex Percentile: Top 1%
Land Use and Ecosystem Services
11.05
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