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More than the sum of the parts: System analysis of the usability of roofs in housing estates Journal Article
Toboso‐Chavero, Susana; Villalba, Gara; Durany, Xavier Gabarrell; Madrid‐López, Cristina
In: Journal of Industrial Ecology, pp. jiec.13114, 2021, ISSN: 1088-1980.
Abstract | Links | BibTeX | Tags: industrial ecology, rainwater harvesting, Renewable energy, roof mosaic, urban agriculture, Urban metabolism
@article{TobosoChavero2021,
title = {More than the sum of the parts: System analysis of the usability of roofs in housing estates},
author = {Susana Toboso‐Chavero and Gara Villalba and Xavier Gabarrell Durany and Cristina Madrid‐L\'{o}pez},
url = {https://onlinelibrary.wiley.com/doi/full/10.1111/jiec.13114 https://onlinelibrary.wiley.com/doi/abs/10.1111/jiec.13114 https://onlinelibrary.wiley.com/doi/10.1111/jiec.13114},
doi = {10.1111/jiec.13114},
issn = {1088-1980},
year = {2021},
date = {2021-03-01},
journal = {Journal of Industrial Ecology},
pages = {jiec.13114},
publisher = {John Wiley & Sons, Ltd},
abstract = {Housing estates, that is, mass social housing on middle- and high-rise apartment blocks, in urban areas are found all over the world with very similar constructive patterns and a multiplicity of environmental and socio-economic problems. In this regard, such areas are optimal for the implementation of a roof mosaic which involves applying a combination of urban farming, solar energy, and harvesting rainwater systems (decentralized systems) on unoccupied roofs. To design sustainable and productive roof mosaic scenarios, we develop an integrated framework through a multi-scale (municipality, building, and household) and multi-dimensional analysis (environmental and socio-economic, structural, and functional) to optimize the supply of essential resources (food, energy, and water). The proposed workflow was applied to a housing estate to rehabilitate unused rooftops (66,433 m2). First, using the Multi-Scale Integrated Analysis of Societal and Ecosystem Metabolism methodology, we determined metabolic rates across buildings and municipality levels, which did not vary significantly (12.60\textendash14.50 g/h for vegetables, 0.82\textendash1.11 MJ/h for electricity, 0.80\textendash1.11 MJ/h for heating, and 5.62\textendash6.59 L/h for water). Second, based on a participatory process involving stakeholders to qualitatively analyze potential scenarios further in terms of preferences, five scenarios were chosen. These rooftop scenarios were found to improve the resource self-sufficiency of housing estate residents by providing 42\textendash53% of their vegetable consumption, 9\textendash35% of their electricity use, and 38\textendash200% of their water needs depending on the scenario. Boosting new urban spaces of resource production involves citizens in sites which face social and economic needs. This article met the requirements for a gold-gold JIE data openness badge described at http://jie.click/badges.},
keywords = {industrial ecology, rainwater harvesting, Renewable energy, roof mosaic, urban agriculture, Urban metabolism},
pubstate = {published},
tppubtype = {article}
}
Housing estates, that is, mass social housing on middle- and high-rise apartment blocks, in urban areas are found all over the world with very similar constructive patterns and a multiplicity of environmental and socio-economic problems. In this regard, such areas are optimal for the implementation of a roof mosaic which involves applying a combination of urban farming, solar energy, and harvesting rainwater systems (decentralized systems) on unoccupied roofs. To design sustainable and productive roof mosaic scenarios, we develop an integrated framework through a multi-scale (municipality, building, and household) and multi-dimensional analysis (environmental and socio-economic, structural, and functional) to optimize the supply of essential resources (food, energy, and water). The proposed workflow was applied to a housing estate to rehabilitate unused rooftops (66,433 m2). First, using the Multi-Scale Integrated Analysis of Societal and Ecosystem Metabolism methodology, we determined metabolic rates across buildings and municipality levels, which did not vary significantly (12.60–14.50 g/h for vegetables, 0.82–1.11 MJ/h for electricity, 0.80–1.11 MJ/h for heating, and 5.62–6.59 L/h for water). Second, based on a participatory process involving stakeholders to qualitatively analyze potential scenarios further in terms of preferences, five scenarios were chosen. These rooftop scenarios were found to improve the resource self-sufficiency of housing estate residents by providing 42–53% of their vegetable consumption, 9–35% of their electricity use, and 38–200% of their water needs depending on the scenario. Boosting new urban spaces of resource production involves citizens in sites which face social and economic needs. This article met the requirements for a gold-gold JIE data openness badge described at http://jie.click/badges.
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