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ZENODO
Dataset . 2016
License: CC 0
Data sources: ZENODO
DRYAD
Dataset . 2016
License: CC 0
Data sources: Datacite
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Data from: Modelling short-rotation coppice and tree planting for urban carbon management – a city-wide analysis

Authors: McHugh, Nicola; Edmondson, Jill L.; Gaston, Kevin J.; Leake, Jonathan R.; O'Sullivan, Odhran S.; O'Sullivan, Odhran S.;

Data from: Modelling short-rotation coppice and tree planting for urban carbon management – a city-wide analysis

Abstract

1. The capacity of urban areas to deliver provisioning ecosystem services is commonly overlooked and underutilized. Urban populations have globally increased fivefold since 1950, and they disproportionately consume ecosystem services and contribute to carbon emissions, highlighting the need to increase urban sustainability and reduce environmental impacts of urban dwellers. Here, we investigated the potential for increasing carbon sequestration, and biomass fuel production, by planting trees and short-rotation coppice (SRC), respectively, in a mid-sized UK city as a contribution to meeting national commitments to reduce CO2 emissions. 2. Iterative GIS models were developed using high-resolution spatial data. The models were applied to patches of public and privately owned urban greenspace suitable for planting trees and SRC, across the 73 km2 area of the city of Leicester. We modelled tree planting with a species mix based on the existing tree populations, and SRC with willow and poplar to calculate biomass production in new trees, and carbon sequestration into harvested biomass over 25 years. 3. An area of 11 km2 comprising 15% of the city met criteria for tree planting and had the potential over 25 years to sequester 4200 tonnes of carbon above-ground. Of this area, 5·8 km2 also met criteria for SRC planting and over the same period this could yield 71 800 tonnes of carbon in harvested biomass. 4. The harvested biomass could supply energy to over 1566 domestic homes or 30 municipal buildings, resulting in avoided carbon emissions of 29 236 tonnes of carbon over 25 years when compared to heating by natural gas. Together with the net carbon sequestration into trees, a total reduction of 33 419 tonnes of carbon in the atmosphere could be achieved in 25 years by combined SRC and tree planting across the city. 5. Synthesis and applications. We demonstrate that urban greenspaces in a typical UK city are underutilized for provisioning ecosystem services by trees and especially SRC, which has high biomass production potential. For urban greenspace management, we recommend that planting SRC in urban areas can contribute to reducing food–fuel conflicts on agricultural land and produce renewable energy sources close to centres of population and demand.

Garden Tree SurveyLocation of gardens surveyed, and details of trees identified including size (circumference, diameter and height).McHugh_etal_JAE_GardenTreeSurvey.csvExisting and Modelled Above-ground CarbonZip file contains comma-delimited data files of existing above-ground carbon stored in the existing tree stock, modelled biomass carbon resulting from tree planting in domestic, public and mixed ownership land over 25 years, and modelled live and harvested biomass carbon resulting from short-rotation coppice over 25 yearsMcHugh_etal_JAE_ExistingandModelledCarbon.zipCarbon assimilated over 25 yearsQuantities of biomass carbon assimilated over 25 years through modelling tree planting and short-rotation coppiceMcHugh_etal_JAE_AssimilatedCarbon.csv

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Keywords

urban biomass carbon, GIS model, wood biofuel, urban tree, urban ecosystems, garden, short-rotation coppice, Land-use, Urban ecosystems

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selected citations
These citations are derived from selected sources.
This is an alternative to the "Influence" indicator, which also reflects the overall/total impact of an article in the research community at large, based on the underlying citation network (diachronically).
BIP!Citations provided by BIP!
popularity
This indicator reflects the "current" impact/attention (the "hype") of an article in the research community at large, based on the underlying citation network.
BIP!Popularity provided by BIP!
influence
This indicator reflects the overall/total impact of an article in the research community at large, based on the underlying citation network (diachronically).
BIP!Influence provided by BIP!
impulse
This indicator reflects the initial momentum of an article directly after its publication, based on the underlying citation network.
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