Density and morphology: from the building scale to the city scale

The density of the domestic building stock of London is explored, moving from the scale of individual house and blocks of flats, through larger geographical units, to complete boroughs. The description of the stock is highly detailed and is made using the 3DStock method, which derives building geome...

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Main Authors: Daniel Godoy-Shimizu, Philip Steadman, Stephen Evans
Format: Article
Language:English
Published: Ubiquity Press 2021-02-01
Series:Buildings & Cities
Subjects:
Online Access:https://journal-buildingscities.org/articles/83
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spelling doaj-22822e91ce1e4300968341ad1c79b0cf2021-03-16T04:58:55ZengUbiquity PressBuildings & Cities 2632-66552021-02-012110.5334/bc.8351Density and morphology: from the building scale to the city scaleDaniel Godoy-Shimizu0Philip Steadman1Stephen Evans2UCL Energy Institute, University College London, London; UCL Institute for Environmental Design & Engineering, University College London, LondonUCL Energy Institute, University College London, LondonUCL Energy Institute, University College London, LondonThe density of the domestic building stock of London is explored, moving from the scale of individual house and blocks of flats, through larger geographical units, to complete boroughs. The description of the stock is highly detailed and is made using the 3DStock method, which derives building geometry from digital maps and LiDAR (laser measurements from overflying aircraft). This means that accurate estimates of floor areas can be made and used to measure densities as Floor Space Index (FSI) values. Ground coverage or Ground Space Index (GSI) values are calculated from building footprints and land boundaries. The Spacemate tool, devised by Berghauser Pont and Haupt, is used to plot the types and ages of dwellings in terms of FSI, GSI and numbers of storeys. Figures for actual annual gas and electricity consumption are attached to each dwelling. Analysis shows that, in general, energy-use intensities—and especially the intensity of gas use for heating—decrease with increasing density, and with the transition between house types, from detached, to semi-detached, to terraces, to (low-rise) flats.  'Policy/practice relevance' The findings should be of interest to planners and policy-makers concerned with energy use in the domestic stock, and how this may be reduced by fabric measures. The paper provides data on housing densities not previously available in the form of FSI and GSI values. Urban designers and housing architects can gain a fuller understanding of the relation of built form to density, and how these, in turn, affect energy use.https://journal-buildingscities.org/articles/833dstockbuilding stockbuildingsenergy useenergy-use intensitymorphologyspacemateurban density
collection DOAJ
language English
format Article
sources DOAJ
author Daniel Godoy-Shimizu
Philip Steadman
Stephen Evans
spellingShingle Daniel Godoy-Shimizu
Philip Steadman
Stephen Evans
Density and morphology: from the building scale to the city scale
Buildings & Cities
3dstock
building stock
buildings
energy use
energy-use intensity
morphology
spacemate
urban density
author_facet Daniel Godoy-Shimizu
Philip Steadman
Stephen Evans
author_sort Daniel Godoy-Shimizu
title Density and morphology: from the building scale to the city scale
title_short Density and morphology: from the building scale to the city scale
title_full Density and morphology: from the building scale to the city scale
title_fullStr Density and morphology: from the building scale to the city scale
title_full_unstemmed Density and morphology: from the building scale to the city scale
title_sort density and morphology: from the building scale to the city scale
publisher Ubiquity Press
series Buildings & Cities
issn 2632-6655
publishDate 2021-02-01
description The density of the domestic building stock of London is explored, moving from the scale of individual house and blocks of flats, through larger geographical units, to complete boroughs. The description of the stock is highly detailed and is made using the 3DStock method, which derives building geometry from digital maps and LiDAR (laser measurements from overflying aircraft). This means that accurate estimates of floor areas can be made and used to measure densities as Floor Space Index (FSI) values. Ground coverage or Ground Space Index (GSI) values are calculated from building footprints and land boundaries. The Spacemate tool, devised by Berghauser Pont and Haupt, is used to plot the types and ages of dwellings in terms of FSI, GSI and numbers of storeys. Figures for actual annual gas and electricity consumption are attached to each dwelling. Analysis shows that, in general, energy-use intensities—and especially the intensity of gas use for heating—decrease with increasing density, and with the transition between house types, from detached, to semi-detached, to terraces, to (low-rise) flats.  'Policy/practice relevance' The findings should be of interest to planners and policy-makers concerned with energy use in the domestic stock, and how this may be reduced by fabric measures. The paper provides data on housing densities not previously available in the form of FSI and GSI values. Urban designers and housing architects can gain a fuller understanding of the relation of built form to density, and how these, in turn, affect energy use.
topic 3dstock
building stock
buildings
energy use
energy-use intensity
morphology
spacemate
urban density
url https://journal-buildingscities.org/articles/83
work_keys_str_mv AT danielgodoyshimizu densityandmorphologyfromthebuildingscaletothecityscale
AT philipsteadman densityandmorphologyfromthebuildingscaletothecityscale
AT stephenevans densityandmorphologyfromthebuildingscaletothecityscale
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