1 Spatial Modelling of the Terrestrial Environment - Georeferencial

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PART III SPATIAL MODELLING OF URBAN SYSTEM DYNAMICS Spatial Modelling of the Terrestrial Environment. Edited by R. Kelly, N. Drake, S. Barr. C○ 2004 John Wiley & Sons, Ltd. ISBN: 0-470-84348-9.
Editorial: Spatial Modelling of Urban System Dynamics Stuart L. Barr With the world’s urban population expected to double between the years 2000 and 2020 (Harrison and Pearce, 2000), many urban areas will become increasingly dynamic environments, experiencing growth that will result in changes in their social and economic structure, spatial pattern of land use and their physical appearance. A consequence of such growth will be that an increasing amount of the Earth’s natural and financial resources will have to be directed towards urban areas, in order to supply the increased demand for energy, food and water, as well as to provide the required housing stock and related education and health services. Concerns over how to effectively manage such resources, in order to minimize the negative impacts of urban growth, have increased the awareness that sustainable urban planning policies need to be adopted that allow resources to be spatially targeted and managed effectively. Computational mathematical models of urban systems provide one potential mechanism by which sounder theories of sustainable urban development may be developed as they allow the likely effects of population growth on the physical, functional and socio-economic structure of urban areas to be estimated (Wilson, 2000). Such models, whether coarse-scale models of urban growth (Batty and Longley, 1994) or small-area level models of urban activity and function, require a range of detailed geographically referenced information for their initialization, calibration and validation. In many cases, particularly in developed nations, such information is provided in the form of national censuses, which often provide the most complete, consistent and objective information at a single point in time on the socio-economic structure of urban areas (Wilson, 2000). A number of concerns have been raised, however, in relation to the suitability of certain national censuses for studying and modelling urban systems; these include, the long time period between censuses (often Spatial Modelling of the Terrestrial Environment. Edited by R. Kelly, N. Drake, S. Barr. C○ 2004 John Wiley & Sons, Ltd. ISBN: 0-470-84348-9.
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Spatial Modelling of the Terrestria
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Copyright C○ 2004 John Wiley & So
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Contents List of Contributors Prefa
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Contributors Jonathan L. Bamber Sch
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List of Contributors xi George Perr
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xiv Preface in theory and applicati
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2 Spatial Modelling of the Terrestr
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Editorial: Spatial Modelling in Hyd
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Editorial: Spatial Modelling in Hyd
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2 Modelling Ice Sheet Dynamics with
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Modelling Ice Sheet Dynamics by Sat
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36 Spatial Modelling of the Terrest
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4 Using Coupled Land Surface and Mi
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Coupled Land Surface and Microwave
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100 Spatial Modelling of the Terres
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Editorial: Terrestrial Sediment and
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Editorial: Terrestrial Sediment and
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6 Remotely Sensed Topographic Data
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Remotely Sensed Topographic Data fo
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7 Modelling Wind Erosion and Dust E
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Modelling Wind Erosion and Dust Emi
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Page 154 and 155: Modelling Wind Erosion and Dust Emi
Page 164 and 165: 8 Near Real-Time Modelling of Regio
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268 Index Bi-spectral InfraRed Dete
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270 Index floodplain maps, UK 92 fl
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272 Index Long-Term Ecological Rese
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274 Index snow depth measurement ne
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276 Index urban land use in remotel
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