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Please use this identifier to cite or link to this item:
http://hdl.handle.net/10174/36760
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Title: | Can a small island nation build resilience? The significance of resource-use patterns and socio-metabolic risks in The Bahamas |
Authors: | del Campo, Francisco Martin Singh, Simron Jit Fishman, Tomer Thomas, Adelle Noll, Dominik Drescher, Michael |
Editors: | Wood, Richard Zhu, Junming Liu, Gang |
Keywords: | circular economy island industrial ecology island sustainability material flow analysis socio- metabolic research socio-metabolic risk |
Issue Date: | Apr-2023 |
Publisher: | Journal of Industrial Ecology |
Citation: | Martin del Campo, Francisco, Simron Jit Singh, Tomer Fishman, Adelle Thomas, Dominik Noll, and Michael Drescher. n.d. “Can a Small Island Nation Build Resilience? The Significance of Resource-Use Patterns and Socio-Metabolic Risks in The Bahamas.” Journal of Industrial Ecology n/a (n/a). Accessed April 17, 2023. https://doi.org/10.1111/jiec.13369. |
Abstract: | Resource-use patterns may entail systemic risks and cascade effects, which conse- quently inhibit the ability to deliver socioeconomic services. Identifying resource-use patterns exhibiting systemic risks and reshaping their combinations is a potential lever in realizing the transition to a sustainable, resilient, and resource-secure system. Using an island context to assess the quantity and composition of resource through- put enables a more comprehensive analysis of these risks. This article presents the first mass-balance account of socio-metabolic flows for The Bahamas in 2018, to identify socio-metabolic risks and cascading effects. Socio-metabolic risks are sys- temic risks related to critical resource availability, material circulation integrity, and (in)equities in cost and benefit distributions. We utilize the economy-wide material flow accounting framework to map the material flow patterns across the economy. In 2018, annual direct material input was estimated at 9.4 t/cap/yr, of which 60% were imports. High masses of waste (1.4 t/cap/yr) remained unrecovered due to the lack of recycling. Total domestic extraction (DE) were dominated by non-metallic miner- als with more than 80%, while marine biomass makes up barely 1% of total DE. Due to its linear, undiversified metabolism, and heavy imports dependency, the system is susceptible to socio-metabolic risks and cascading effects including low levels of self-sufficiency, high vulnerability to shocks, commodity price fluctuations, threats to sensitive ecosystems, health impacts, and economic losses, among others. A holistic resource management strategy and nature-based solutions that consider the trade- offs and synergies between different resource-use patterns are critical when exploring potential plans for metabolic risk reduction. |
URI: | https://onlinelibrary.wiley.com/doi/full/10.1111/jiec.13369 http://hdl.handle.net/10174/36760 |
Type: | article |
Appears in Collections: | MED - Publicações - Artigos em Revistas Internacionais Com Arbitragem Científica
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