Urban DNA and Sustainable Cities: A Multi-City Comparison

The concept of urban DNA has been frequently utilized to describe how a set of urban growth parameters may encode the manner in which cities evolve in space and the spatial forms they assume as they do so. The five growth coefficients of the SLEUTH (Slope, Land-use, Exclusion, Urban, Transport, Hill...

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Main Authors: Athanasios Votsis, Riina Haavisto
Format: Article
Language:English
Published: Frontiers Media S.A. 2019-01-01
Series:Frontiers in Environmental Science
Subjects:
Online Access:https://www.frontiersin.org/article/10.3389/fenvs.2019.00004/full
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spelling doaj-74d9eadab4fd47a5bf02eea42a2170862020-11-25T00:29:43ZengFrontiers Media S.A.Frontiers in Environmental Science2296-665X2019-01-01710.3389/fenvs.2019.00004435799Urban DNA and Sustainable Cities: A Multi-City ComparisonAthanasios VotsisRiina HaavistoThe concept of urban DNA has been frequently utilized to describe how a set of urban growth parameters may encode the manner in which cities evolve in space and the spatial forms they assume as they do so. The five growth coefficients of the SLEUTH (Slope, Land-use, Exclusion, Urban, Transport, Hillshade) cellular automaton model of land use change and urban growth are often seen as an operationalization of urban DNA. For both theoretical urban studies and applied urban modeling, it is important to further develop this concept by understanding whether main urban DNA classes relate to distinct outcomes in terms of livability and sustainability. This study initiates this line of research by gathering empirical evidence about urban DNA and livability-sustainability indicators across a global sample of cities. It produces a behavioral taxonomy of cities according to their urban DNA and performance in livability and sustainability indices and indicators, and attempts a further link with the concept of urban commons. The results show that, notwithstanding variation across cities, it is possible to distinguish six such types of cities with relatively distinct behaviors and performances: multinodal, dispersed cities, with mixed outcomes (type A); multinodal, contiguous, slow-growing (type B); transport-oriented, dispersed, fast-growing (type C); large, buzzy, constrained (type D); dense, contiguous, fast-growing (type E); and transport-oriented, contiguous, interactive (type F) cities.https://www.frontiersin.org/article/10.3389/fenvs.2019.00004/fullurban DNAlivabilitysustainabilitySLEUTH modelurban growthurban commons
collection DOAJ
language English
format Article
sources DOAJ
author Athanasios Votsis
Riina Haavisto
spellingShingle Athanasios Votsis
Riina Haavisto
Urban DNA and Sustainable Cities: A Multi-City Comparison
Frontiers in Environmental Science
urban DNA
livability
sustainability
SLEUTH model
urban growth
urban commons
author_facet Athanasios Votsis
Riina Haavisto
author_sort Athanasios Votsis
title Urban DNA and Sustainable Cities: A Multi-City Comparison
title_short Urban DNA and Sustainable Cities: A Multi-City Comparison
title_full Urban DNA and Sustainable Cities: A Multi-City Comparison
title_fullStr Urban DNA and Sustainable Cities: A Multi-City Comparison
title_full_unstemmed Urban DNA and Sustainable Cities: A Multi-City Comparison
title_sort urban dna and sustainable cities: a multi-city comparison
publisher Frontiers Media S.A.
series Frontiers in Environmental Science
issn 2296-665X
publishDate 2019-01-01
description The concept of urban DNA has been frequently utilized to describe how a set of urban growth parameters may encode the manner in which cities evolve in space and the spatial forms they assume as they do so. The five growth coefficients of the SLEUTH (Slope, Land-use, Exclusion, Urban, Transport, Hillshade) cellular automaton model of land use change and urban growth are often seen as an operationalization of urban DNA. For both theoretical urban studies and applied urban modeling, it is important to further develop this concept by understanding whether main urban DNA classes relate to distinct outcomes in terms of livability and sustainability. This study initiates this line of research by gathering empirical evidence about urban DNA and livability-sustainability indicators across a global sample of cities. It produces a behavioral taxonomy of cities according to their urban DNA and performance in livability and sustainability indices and indicators, and attempts a further link with the concept of urban commons. The results show that, notwithstanding variation across cities, it is possible to distinguish six such types of cities with relatively distinct behaviors and performances: multinodal, dispersed cities, with mixed outcomes (type A); multinodal, contiguous, slow-growing (type B); transport-oriented, dispersed, fast-growing (type C); large, buzzy, constrained (type D); dense, contiguous, fast-growing (type E); and transport-oriented, contiguous, interactive (type F) cities.
topic urban DNA
livability
sustainability
SLEUTH model
urban growth
urban commons
url https://www.frontiersin.org/article/10.3389/fenvs.2019.00004/full
work_keys_str_mv AT athanasiosvotsis urbandnaandsustainablecitiesamulticitycomparison
AT riinahaavisto urbandnaandsustainablecitiesamulticitycomparison
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