Cover image for Exploring Spatial Scale in Geography.
Exploring Spatial Scale in Geography.
Title:
Exploring Spatial Scale in Geography.
Author:
Lloyd, Christopher D.
ISBN:
9781118526798
Personal Author:
Edition:
1st ed.
Physical Description:
1 online resource (275 pages)
Contents:
Exploring Spatial Scale in Geography -- Contents -- Preface -- Acknowledgements -- About the Companion Website -- 1 Introduction -- 1.1 The purpose of the book -- 1.1.1 What this book adds -- 1.1.2 Scales of analysis and alternative definitions -- 1.3 Case studies and examples -- 1.4 Why is spatial scale important? -- 1.5 Structure of the book -- 1.6 Further reading -- References -- 2 Scale in Spatial Data Analysis: Key Concepts -- 2.1 Definitions of spatial scale -- 2.2 Spatial autocorrelation and spatial dependence -- 2.3 Scale dependence -- 2.4 Scale and data models -- 2.5 Spatial scales of inquiry -- 2.6 Scale and spatial data analysis -- 2.7 Scale and neighbourhoods -- 2.8 Scale and space -- 2.9 Scale, spatial data analysis and physical processes -- 2.10 Scale, spatial data analysis and social processes -- 2.11 Summary -- 2.12 Further reading -- References -- 3 The Modifiable Areal Unit Problem -- 3.1 Basic concepts -- 3.2 Scale and zonation effects -- 3.3 The ecological fallacy -- 3.4 The MAUP and univariate statistics -- 3.4.1 Case study: segregation in Northern Ireland -- 3.4.2 Spatial approaches to segregation -- 3.5 Geographical weighting and the MAUP -- 3.6 The MAUP and multivariate statistics -- 3.6.1 Case study: population variables in Northern Ireland -- 3.7 Zone design -- 3.8 Summary -- 3.9 Further reading -- References -- 4 Measuring Spatial Structure -- 4.1 Basic concepts -- 4.2 Measures of spatial autocorrelation -- 4.2.1 Neighbourhood size -- 4.2.2 Spatial autocorrelation and kernel size -- 4.2.3 Spatial autocorrelation and lags -- 4.2.4 Local measures -- 4.2.5 Global and local and spatial scale -- 4.3 Geostatistics and characterising spatial structure -- 4.3.1 The theory of regionalised variables -- 4.4 The variogram -- 4.4.1 Bias in variogram estimation -- 4.5 The covariance function and correlogram.

4.6 Alternative measures of spatial structure -- 4.7 Measuring dependence between variables -- 4.8 Variograms of risk -- 4.9 Variogram clouds and h-scatterplots -- 4.10 Variogram models -- 4.11 Fitting variogram models -- 4.12 Variogram case study -- 4.12 Variogram case study -- 4.13 Anisotropy and variograms -- 4.13.1 Variogram surfaces -- 4.13.2 Geometric and zonal anisotropy -- 4.14 Variograms and non-stationarity -- 4.14.1 Variograms and long-range trends -- 4.14.2 Variogram non-stationarity -- 4.15 Space-time variograms -- 4.16 Software -- 4.17 Other methods -- 4.18 Point pattern analysis -- 4.18.1 Spatial dependence and point patterns -- 4.18.2 Local function -- 4.18.3 Cross function -- 4.19 Summary -- 4.20 Further reading -- References -- 5 Scale and Multivariate Data -- 5.1 Regression frameworks -- 5.2 Spatial scale and regression -- 5.3 Global regression -- 5.4 Spatial regression -- 5.5 Regression and spatial data -- 5.5.1 Generalised least squares -- 5.5.2 Spatial autoregressive models -- 5.5.3 Spatially lagged dependent variable models and spatial error models case study -- 5.6 Local regression and spatial scale -- 5.6.1 Spatial expansion method -- 5.6.2 Geographically weighted regression -- 5.6.3 Scale and GWR -- 5.6.4 GWR case study: fixed bandwidths -- 5.6.5 GWR case study: variable bandwidths -- 5.6.6 Bayesian spatially varying coefficient process models -- 5.7 Multilevel modelling -- 5.7.1 Case study -- 5.8 Spatial structure of multiple variables -- 5.9 Multivariate analysis and spatial scale -- 5.10 Summary -- 5.11 Further reading -- References -- 6 Fractal Analysis -- 6.1 Basic concepts -- 6.2 Measuring fractal dimension -- 6.2.1 Walking-divider method -- 6.2.2 Box-counting method -- 6.2.3 Variogram method -- 6.3 Fractals and spatial structure -- 6.3.1 Case study: fractal of land surfaces -- 6.3.2 Case study: local fractal.

6.3.3 Fractals and topographic form -- 6.4 Other applications of fractal analysis -- 6.4.1 Fractals and remotely sensed imagery -- 6.4.2 Fractals and urban form -- 6.5 How useful is the fractal model in geography? -- 6.6 Summary -- 6.7 Further reading -- References -- 7 Scale and Gridded Data: Fourier and Wavelet Transforms -- 7.1 Basic concepts -- 7.2 Fourier transforms -- 7.2.1 Continuous Fourier transform -- 7.2.2 Discrete Fourier transform -- 7.2.3 Fast Fourier transform -- 7.2.4 FFT case study -- 7.2.5 Spectral analysis and the covariance function -- 7.2.6 Spectral analysis case study -- 7.3 Wavelet transforms -- 7.3.1 Continuous wavelet transforms -- 7.3.2 Discrete wavelet transforms -- 7.3.3 The Haar basis functions -- 7.3.4 Other basis functions -- 7.3.5 Fast wavelet transform -- 7.3.6 Two-dimensional wavelet transforms -- 7.4 Wavelet analysis applications and other issues -- 7.5 Summary -- 7.6 Further reading -- References -- 8 Areal Interpolation -- 8.1 Basic concepts -- 8.2 Areal weighting -- 8.3 Using additional data -- 8.3.1 Types of secondary data sources for mapping populations -- 8.4 Surface modelling -- 8.4.1 Population surface case study -- 8.5 Other approaches to changing support -- 8.6 Summary -- 8.7 Further reading -- References -- 9 Geostatistical Interpolation and Change of Support -- 9.1 Basic concepts -- 9.2 Regularisation -- 9.2.1 Regularisation with an irregular support -- 9.3 Variogram deconvolution -- 9.3.1 Variogram deconvolution for irregular supports -- 9.3.2 Variography and change of support -- 9.4 Kriging -- 9.4.1 Punctual kriging -- 9.4.2 Poisson kriging -- 9.4.3 Factorial kriging -- 9.4.4 Factorial kriging case study -- 9.4.5 Kriging in the presence of a trend -- 9.4.6 Cokriging -- 9.4.7 Kriging with an external drift and other techniques -- 9.4.8 Interpreting the kriging variance -- 9.4.9 Cross-validation.

9.4.10 Conditional simulation -- 9.4.11 Comparison of kriging approaches -- 9.5 Kriging and change of support -- 9.5.1 Block kriging -- 9.5.2 Area-to-point kriging -- 9.5.3 Case study -- 9.6 Assessing uncertainty and optimal sampling design -- 9.6.1 Nested sampling -- 9.6.2 Assessing optimal sampling design -- 9.6.3 Optimal spatial resolution -- 9.6.4 Other approaches to optimal sampling design -- 9.7 Summary -- 9.8 Further reading -- References -- 10 Summary and Conclusions -- 10.1 Overview of key concepts and methods -- 10.2 Problems and future directions -- 10.3 Summary -- References -- Index -- Supplemental Images.
Abstract:
Exploring Spatial Scale in Geography provides a conceptual and practical guide to issues of spatial scale in all areas of the physical and social sciences.  Scale is at the heart of geography and other spatial sciences. Whether dealing with geomorphological processes, population movements or meteorology, a consideration of spatial scale is vital. Exploring Spatial Scale in Geography takes a practical approach with a core focus on real world problems and potential solutions. Links are made to appropriate software environments with an associated website providing access to guidance material which outlines how particular problems can be approached using popular GIS and spatial data analysis software. This book offers alternative definitions of spatial scale, presents approaches for exploring spatial scale and makes use of a wide variety of case studies in the physical and social sciences to demonstrate key concepts, making it a key resource for anyone who makes use of geographical information.
Local Note:
Electronic reproduction. Ann Arbor, Michigan : ProQuest Ebook Central, 2017. Available via World Wide Web. Access may be limited to ProQuest Ebook Central affiliated libraries.
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