José-Maria Montero, Gema Fernández-Avilés, Jorge Mateu
Spatial and Spatio-Temporal Geostatistical Modeling and Kriging
José-Maria Montero, Gema Fernández-Avilés, Jorge Mateu
Spatial and Spatio-Temporal Geostatistical Modeling and Kriging
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Statistical Methods for Spatial and Spatio-Temporal Data Analysis provides a complete range of spatio-temporal covariance functions and discusses ways of constructing them. This book is a unified approach to modeling spatial and spatio-temporal data together with significant developments in statistical methodology with applications in R.
This book includes: * Methods for selecting valid covariance functions from the empirical counterparts that overcome the existing limitations of the traditional methods. * The most innovative developments in the different steps of the kriging process. * An…mehr
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Statistical Methods for Spatial and Spatio-Temporal Data Analysis provides a complete range of spatio-temporal covariance functions and discusses ways of constructing them. This book is a unified approach to modeling spatial and spatio-temporal data together with significant developments in statistical methodology with applications in R.
This book includes:
* Methods for selecting valid covariance functions from the empirical counterparts that overcome the existing limitations of the traditional methods.
* The most innovative developments in the different steps of the kriging process.
* An up-to-date account of strategies for dealing with data evolving in space and time.
* An accompanying website featuring R code and examples
This book includes:
* Methods for selecting valid covariance functions from the empirical counterparts that overcome the existing limitations of the traditional methods.
* The most innovative developments in the different steps of the kriging process.
* An up-to-date account of strategies for dealing with data evolving in space and time.
* An accompanying website featuring R code and examples
Produktdetails
- Produktdetails
- Wiley Series in Probability and Statistics
- Verlag: Wiley & Sons
- 1. Auflage
- Seitenzahl: 400
- Erscheinungstermin: 17. August 2015
- Englisch
- Abmessung: 235mm x 157mm x 27mm
- Gewicht: 666g
- ISBN-13: 9781118413180
- ISBN-10: 1118413180
- Artikelnr.: 38106584
- Wiley Series in Probability and Statistics
- Verlag: Wiley & Sons
- 1. Auflage
- Seitenzahl: 400
- Erscheinungstermin: 17. August 2015
- Englisch
- Abmessung: 235mm x 157mm x 27mm
- Gewicht: 666g
- ISBN-13: 9781118413180
- ISBN-10: 1118413180
- Artikelnr.: 38106584
José-María Montero and Gema Fernández-Avilés, Department of Statistics, University of Castilla-La Mancha, Spain Jorge Mateu, Department of Mathematics, University Jaume I of Castellon, Spain
List of figures xi List of tables xvii Foreword xix Preface xxi The
companion website xxiii 1 From classical statistics to geostatistics 1 1.1
Not all spatial data are geostatistical data 1 1.2 The limits of classical
statistics 5 1.3 A real geostatistical dataset: data on carbon monoxide in
Madrid, Spain 7 2 Geostatistics: preliminaries 10 2.1 Regionalized
variables 10 2.2 Random functions 11 2.3 Stationary and intrinsic
hypotheses 13 2.3.1 Stationarity 13 2.3.2 Stationary random functions in
the strict sense 14 2.3.3 Second-order stationary random functions 15 2.3.4
Intrinsically stationary random functions 16 2.3.5 Non-stationary random
functions 18 2.4 Support 19 3 Structural analysis 20 3.1 Introduction 20
3.2 Covariance function 21 3.2.1 Definition and properties 21 3.2.2 Some
theoretical isotropic covariance functions 23 3.3 Empirical covariogram 26
3.4 Semivariogram 27 3.4.1 Definition and properties 27 3.4.2 Behavior at
intermediate and large distances 30 3.4.3 Behavior near the origin 31 3.4.4
A discontinuity at the origin 33 3.5 Theoretical semivariogram models 35
3.5.1 Semivariograms with a sill 36 3.5.2 Semivariograms with a hole effect
46 3.5.3 Semivariograms without a sill 47 3.5.4 Combining semivariogram
models 50 3.6 Empirical semivariogram 52 3.7 Anisotropy 64 3.8 Fitting a
semivariogram model 69 3.8.1 Manual fitting 70 3.8.2 Automatic fitting 71 4
Spatial prediction and kriging 80 4.1 Introduction 80 4.2 Neighborhood 83
4.3 Ordinary kriging 84 4.3.1 Point observation support and point predictor
84 4.3.2 Effects of a change in the model parameters 90 4.3.3 Point
observation support and block predictor 99 4.3.4 Block observation support
and block predictor 110 4.4 Simple kriging: the special case of known mean
113 4.5 Simple kriging with an estimated mean 115 4.6 Universal kriging 116
4.6.1 Point observation support and point predictor 116 4.6.2 Point
observation support and block predictor 121 4.6.3 Block observation support
and block predictor 121 4.6.4 Kriging and exact interpolation 122 4.7
Residual kriging 122 4.7.1 Direct residual kriging 123 4.7.2 Iterative
residual kriging 124 4.7.3 Modified iterative residual kriging 125 4.8
Median-Polish kriging 125 4.9 Cross-validation 134 4.10 Non-linear kriging
138 4.10.1 Disjunctive kriging 138 4.10.2 Indicator kriging 142 5
Geostatistics and spatio-temporal random functions 145 5.1 Spatio-temporal
geostatistics 145 5.2 Spatio-temporal continuity 146 5.3 Relevant
spatio-temporal concepts 147 5.4 Properties of the spatio-temporal
covariance and semivariogram 157 6 Spatio-temporal structural analysis (I):
empirical semivariogram and covariogram estimation and model fitting 162
6.1 Introduction 162 6.2 The empirical spatio-temporal semivariogram and
covariogram 163 6.3 Fitting spatio-temporal semivariogram and covariogram
models 170 6.4 Validation and comparison of spatio-temporal semivariogram
and covariogram models 174 7 Spatio-temporal structural analysis (II):
theoretical covariance models 178 7.1 Introduction 178 7.2 Combined
distance or metric model 180 7.3 Sum model 183 7.4 Combined metric-sum
model 184 7.5 Product model 187 7.6 Product-sum model 191 7.7 Porcu and
Mateu mixture-based models 192 7.8 General product-sum model 194 7.9
Integrated product and product-sum models 198 7.10 Models proposed by
Cressie and Huang 201 7.11 Models proposed by Gneiting 207 7.12 Mixture
models proposed by Ma 211 7.12.1 Covariance functions generated by scale
mixtures 211 7.12.2 Covariance functions generated by positive power
mixtures 212 7.13 Models generated by linear combinations proposed by Ma
215 7.14 Models proposed by Stein 222 7.15 Construction of covariance
functions using copulas and completely monotonic functions 223 7.16
Generalized product-sum model 223 7.17 Models that are not fully symmetric
236 7.18 Mixture-based Bernstein zonally anisotropic covariance functions
237 7.19 Non-stationary models 241 7.19.1 Mixture of locally orthogonal
stationary processes 241 7.19.2 Non-stationary models proposed by Ma 242
7.19.3 Non-stationary models proposed by Porcu and Mateu 246 7.20
Anisotropic covariance functions by Porcu and Mateu 247 7.20.1 Constructing
temporally symmetric and spatially anisotropic covariance functions 247
7.20.2 Generalizing the class of spatio-temporal covariance functions
proposed by Gneiting 248 7.20.3 Differentiation and integration operators
acting on classes of anisotropic covariance functions on the basis of
isotropic components: 'La descente étendue' 251 7.21 Spatio-temporal
constructions based on quasi-arithmetic means of covariance functions 253
7.21.1 Multivariate quasi-arithmetic compositions 255 7.21.2 Permissibility
criteria for quasi-arithmetic means of covariance functions in Rd 256
7.21.3 The use of quasi-arithmetic functionals to build non-separable,
stationary, spatio-temporal covariance functions 259 7.21.4
Quasi-arithmeticity and non-stationarity in space 264 8 Spatio-temporal
prediction and kriging 266 8.1 Spatio-temporal kriging 266 8.2
Spatio-temporal kriging equations 267 9 An introduction to functional
geostatistics 274 9.1 Functional data analysis 274 9.2 Functional
geostatistics: The parametric vs. the non-parametric approach 279 9.3
Functional ordinary kriging 283 9.3.1 Preliminaries 283 9.3.2 Functional
ordinary kriging equations 284 9.3.3 Estimating the trace-semivariogram 288
9.3.4 Functional cross-validation 289 A Spectral representations 295 B
Probabilistic aspects of Uij = Z(si).Z(sj) 300 C Basic theory on restricted
maximum likelihood 302 D Most relevant proofs 304 Bibliography and further
reading 327 Index 351
companion website xxiii 1 From classical statistics to geostatistics 1 1.1
Not all spatial data are geostatistical data 1 1.2 The limits of classical
statistics 5 1.3 A real geostatistical dataset: data on carbon monoxide in
Madrid, Spain 7 2 Geostatistics: preliminaries 10 2.1 Regionalized
variables 10 2.2 Random functions 11 2.3 Stationary and intrinsic
hypotheses 13 2.3.1 Stationarity 13 2.3.2 Stationary random functions in
the strict sense 14 2.3.3 Second-order stationary random functions 15 2.3.4
Intrinsically stationary random functions 16 2.3.5 Non-stationary random
functions 18 2.4 Support 19 3 Structural analysis 20 3.1 Introduction 20
3.2 Covariance function 21 3.2.1 Definition and properties 21 3.2.2 Some
theoretical isotropic covariance functions 23 3.3 Empirical covariogram 26
3.4 Semivariogram 27 3.4.1 Definition and properties 27 3.4.2 Behavior at
intermediate and large distances 30 3.4.3 Behavior near the origin 31 3.4.4
A discontinuity at the origin 33 3.5 Theoretical semivariogram models 35
3.5.1 Semivariograms with a sill 36 3.5.2 Semivariograms with a hole effect
46 3.5.3 Semivariograms without a sill 47 3.5.4 Combining semivariogram
models 50 3.6 Empirical semivariogram 52 3.7 Anisotropy 64 3.8 Fitting a
semivariogram model 69 3.8.1 Manual fitting 70 3.8.2 Automatic fitting 71 4
Spatial prediction and kriging 80 4.1 Introduction 80 4.2 Neighborhood 83
4.3 Ordinary kriging 84 4.3.1 Point observation support and point predictor
84 4.3.2 Effects of a change in the model parameters 90 4.3.3 Point
observation support and block predictor 99 4.3.4 Block observation support
and block predictor 110 4.4 Simple kriging: the special case of known mean
113 4.5 Simple kriging with an estimated mean 115 4.6 Universal kriging 116
4.6.1 Point observation support and point predictor 116 4.6.2 Point
observation support and block predictor 121 4.6.3 Block observation support
and block predictor 121 4.6.4 Kriging and exact interpolation 122 4.7
Residual kriging 122 4.7.1 Direct residual kriging 123 4.7.2 Iterative
residual kriging 124 4.7.3 Modified iterative residual kriging 125 4.8
Median-Polish kriging 125 4.9 Cross-validation 134 4.10 Non-linear kriging
138 4.10.1 Disjunctive kriging 138 4.10.2 Indicator kriging 142 5
Geostatistics and spatio-temporal random functions 145 5.1 Spatio-temporal
geostatistics 145 5.2 Spatio-temporal continuity 146 5.3 Relevant
spatio-temporal concepts 147 5.4 Properties of the spatio-temporal
covariance and semivariogram 157 6 Spatio-temporal structural analysis (I):
empirical semivariogram and covariogram estimation and model fitting 162
6.1 Introduction 162 6.2 The empirical spatio-temporal semivariogram and
covariogram 163 6.3 Fitting spatio-temporal semivariogram and covariogram
models 170 6.4 Validation and comparison of spatio-temporal semivariogram
and covariogram models 174 7 Spatio-temporal structural analysis (II):
theoretical covariance models 178 7.1 Introduction 178 7.2 Combined
distance or metric model 180 7.3 Sum model 183 7.4 Combined metric-sum
model 184 7.5 Product model 187 7.6 Product-sum model 191 7.7 Porcu and
Mateu mixture-based models 192 7.8 General product-sum model 194 7.9
Integrated product and product-sum models 198 7.10 Models proposed by
Cressie and Huang 201 7.11 Models proposed by Gneiting 207 7.12 Mixture
models proposed by Ma 211 7.12.1 Covariance functions generated by scale
mixtures 211 7.12.2 Covariance functions generated by positive power
mixtures 212 7.13 Models generated by linear combinations proposed by Ma
215 7.14 Models proposed by Stein 222 7.15 Construction of covariance
functions using copulas and completely monotonic functions 223 7.16
Generalized product-sum model 223 7.17 Models that are not fully symmetric
236 7.18 Mixture-based Bernstein zonally anisotropic covariance functions
237 7.19 Non-stationary models 241 7.19.1 Mixture of locally orthogonal
stationary processes 241 7.19.2 Non-stationary models proposed by Ma 242
7.19.3 Non-stationary models proposed by Porcu and Mateu 246 7.20
Anisotropic covariance functions by Porcu and Mateu 247 7.20.1 Constructing
temporally symmetric and spatially anisotropic covariance functions 247
7.20.2 Generalizing the class of spatio-temporal covariance functions
proposed by Gneiting 248 7.20.3 Differentiation and integration operators
acting on classes of anisotropic covariance functions on the basis of
isotropic components: 'La descente étendue' 251 7.21 Spatio-temporal
constructions based on quasi-arithmetic means of covariance functions 253
7.21.1 Multivariate quasi-arithmetic compositions 255 7.21.2 Permissibility
criteria for quasi-arithmetic means of covariance functions in Rd 256
7.21.3 The use of quasi-arithmetic functionals to build non-separable,
stationary, spatio-temporal covariance functions 259 7.21.4
Quasi-arithmeticity and non-stationarity in space 264 8 Spatio-temporal
prediction and kriging 266 8.1 Spatio-temporal kriging 266 8.2
Spatio-temporal kriging equations 267 9 An introduction to functional
geostatistics 274 9.1 Functional data analysis 274 9.2 Functional
geostatistics: The parametric vs. the non-parametric approach 279 9.3
Functional ordinary kriging 283 9.3.1 Preliminaries 283 9.3.2 Functional
ordinary kriging equations 284 9.3.3 Estimating the trace-semivariogram 288
9.3.4 Functional cross-validation 289 A Spectral representations 295 B
Probabilistic aspects of Uij = Z(si).Z(sj) 300 C Basic theory on restricted
maximum likelihood 302 D Most relevant proofs 304 Bibliography and further
reading 327 Index 351
List of figures xi List of tables xvii Foreword xix Preface xxi The
companion website xxiii 1 From classical statistics to geostatistics 1 1.1
Not all spatial data are geostatistical data 1 1.2 The limits of classical
statistics 5 1.3 A real geostatistical dataset: data on carbon monoxide in
Madrid, Spain 7 2 Geostatistics: preliminaries 10 2.1 Regionalized
variables 10 2.2 Random functions 11 2.3 Stationary and intrinsic
hypotheses 13 2.3.1 Stationarity 13 2.3.2 Stationary random functions in
the strict sense 14 2.3.3 Second-order stationary random functions 15 2.3.4
Intrinsically stationary random functions 16 2.3.5 Non-stationary random
functions 18 2.4 Support 19 3 Structural analysis 20 3.1 Introduction 20
3.2 Covariance function 21 3.2.1 Definition and properties 21 3.2.2 Some
theoretical isotropic covariance functions 23 3.3 Empirical covariogram 26
3.4 Semivariogram 27 3.4.1 Definition and properties 27 3.4.2 Behavior at
intermediate and large distances 30 3.4.3 Behavior near the origin 31 3.4.4
A discontinuity at the origin 33 3.5 Theoretical semivariogram models 35
3.5.1 Semivariograms with a sill 36 3.5.2 Semivariograms with a hole effect
46 3.5.3 Semivariograms without a sill 47 3.5.4 Combining semivariogram
models 50 3.6 Empirical semivariogram 52 3.7 Anisotropy 64 3.8 Fitting a
semivariogram model 69 3.8.1 Manual fitting 70 3.8.2 Automatic fitting 71 4
Spatial prediction and kriging 80 4.1 Introduction 80 4.2 Neighborhood 83
4.3 Ordinary kriging 84 4.3.1 Point observation support and point predictor
84 4.3.2 Effects of a change in the model parameters 90 4.3.3 Point
observation support and block predictor 99 4.3.4 Block observation support
and block predictor 110 4.4 Simple kriging: the special case of known mean
113 4.5 Simple kriging with an estimated mean 115 4.6 Universal kriging 116
4.6.1 Point observation support and point predictor 116 4.6.2 Point
observation support and block predictor 121 4.6.3 Block observation support
and block predictor 121 4.6.4 Kriging and exact interpolation 122 4.7
Residual kriging 122 4.7.1 Direct residual kriging 123 4.7.2 Iterative
residual kriging 124 4.7.3 Modified iterative residual kriging 125 4.8
Median-Polish kriging 125 4.9 Cross-validation 134 4.10 Non-linear kriging
138 4.10.1 Disjunctive kriging 138 4.10.2 Indicator kriging 142 5
Geostatistics and spatio-temporal random functions 145 5.1 Spatio-temporal
geostatistics 145 5.2 Spatio-temporal continuity 146 5.3 Relevant
spatio-temporal concepts 147 5.4 Properties of the spatio-temporal
covariance and semivariogram 157 6 Spatio-temporal structural analysis (I):
empirical semivariogram and covariogram estimation and model fitting 162
6.1 Introduction 162 6.2 The empirical spatio-temporal semivariogram and
covariogram 163 6.3 Fitting spatio-temporal semivariogram and covariogram
models 170 6.4 Validation and comparison of spatio-temporal semivariogram
and covariogram models 174 7 Spatio-temporal structural analysis (II):
theoretical covariance models 178 7.1 Introduction 178 7.2 Combined
distance or metric model 180 7.3 Sum model 183 7.4 Combined metric-sum
model 184 7.5 Product model 187 7.6 Product-sum model 191 7.7 Porcu and
Mateu mixture-based models 192 7.8 General product-sum model 194 7.9
Integrated product and product-sum models 198 7.10 Models proposed by
Cressie and Huang 201 7.11 Models proposed by Gneiting 207 7.12 Mixture
models proposed by Ma 211 7.12.1 Covariance functions generated by scale
mixtures 211 7.12.2 Covariance functions generated by positive power
mixtures 212 7.13 Models generated by linear combinations proposed by Ma
215 7.14 Models proposed by Stein 222 7.15 Construction of covariance
functions using copulas and completely monotonic functions 223 7.16
Generalized product-sum model 223 7.17 Models that are not fully symmetric
236 7.18 Mixture-based Bernstein zonally anisotropic covariance functions
237 7.19 Non-stationary models 241 7.19.1 Mixture of locally orthogonal
stationary processes 241 7.19.2 Non-stationary models proposed by Ma 242
7.19.3 Non-stationary models proposed by Porcu and Mateu 246 7.20
Anisotropic covariance functions by Porcu and Mateu 247 7.20.1 Constructing
temporally symmetric and spatially anisotropic covariance functions 247
7.20.2 Generalizing the class of spatio-temporal covariance functions
proposed by Gneiting 248 7.20.3 Differentiation and integration operators
acting on classes of anisotropic covariance functions on the basis of
isotropic components: 'La descente étendue' 251 7.21 Spatio-temporal
constructions based on quasi-arithmetic means of covariance functions 253
7.21.1 Multivariate quasi-arithmetic compositions 255 7.21.2 Permissibility
criteria for quasi-arithmetic means of covariance functions in Rd 256
7.21.3 The use of quasi-arithmetic functionals to build non-separable,
stationary, spatio-temporal covariance functions 259 7.21.4
Quasi-arithmeticity and non-stationarity in space 264 8 Spatio-temporal
prediction and kriging 266 8.1 Spatio-temporal kriging 266 8.2
Spatio-temporal kriging equations 267 9 An introduction to functional
geostatistics 274 9.1 Functional data analysis 274 9.2 Functional
geostatistics: The parametric vs. the non-parametric approach 279 9.3
Functional ordinary kriging 283 9.3.1 Preliminaries 283 9.3.2 Functional
ordinary kriging equations 284 9.3.3 Estimating the trace-semivariogram 288
9.3.4 Functional cross-validation 289 A Spectral representations 295 B
Probabilistic aspects of Uij = Z(si).Z(sj) 300 C Basic theory on restricted
maximum likelihood 302 D Most relevant proofs 304 Bibliography and further
reading 327 Index 351
companion website xxiii 1 From classical statistics to geostatistics 1 1.1
Not all spatial data are geostatistical data 1 1.2 The limits of classical
statistics 5 1.3 A real geostatistical dataset: data on carbon monoxide in
Madrid, Spain 7 2 Geostatistics: preliminaries 10 2.1 Regionalized
variables 10 2.2 Random functions 11 2.3 Stationary and intrinsic
hypotheses 13 2.3.1 Stationarity 13 2.3.2 Stationary random functions in
the strict sense 14 2.3.3 Second-order stationary random functions 15 2.3.4
Intrinsically stationary random functions 16 2.3.5 Non-stationary random
functions 18 2.4 Support 19 3 Structural analysis 20 3.1 Introduction 20
3.2 Covariance function 21 3.2.1 Definition and properties 21 3.2.2 Some
theoretical isotropic covariance functions 23 3.3 Empirical covariogram 26
3.4 Semivariogram 27 3.4.1 Definition and properties 27 3.4.2 Behavior at
intermediate and large distances 30 3.4.3 Behavior near the origin 31 3.4.4
A discontinuity at the origin 33 3.5 Theoretical semivariogram models 35
3.5.1 Semivariograms with a sill 36 3.5.2 Semivariograms with a hole effect
46 3.5.3 Semivariograms without a sill 47 3.5.4 Combining semivariogram
models 50 3.6 Empirical semivariogram 52 3.7 Anisotropy 64 3.8 Fitting a
semivariogram model 69 3.8.1 Manual fitting 70 3.8.2 Automatic fitting 71 4
Spatial prediction and kriging 80 4.1 Introduction 80 4.2 Neighborhood 83
4.3 Ordinary kriging 84 4.3.1 Point observation support and point predictor
84 4.3.2 Effects of a change in the model parameters 90 4.3.3 Point
observation support and block predictor 99 4.3.4 Block observation support
and block predictor 110 4.4 Simple kriging: the special case of known mean
113 4.5 Simple kriging with an estimated mean 115 4.6 Universal kriging 116
4.6.1 Point observation support and point predictor 116 4.6.2 Point
observation support and block predictor 121 4.6.3 Block observation support
and block predictor 121 4.6.4 Kriging and exact interpolation 122 4.7
Residual kriging 122 4.7.1 Direct residual kriging 123 4.7.2 Iterative
residual kriging 124 4.7.3 Modified iterative residual kriging 125 4.8
Median-Polish kriging 125 4.9 Cross-validation 134 4.10 Non-linear kriging
138 4.10.1 Disjunctive kriging 138 4.10.2 Indicator kriging 142 5
Geostatistics and spatio-temporal random functions 145 5.1 Spatio-temporal
geostatistics 145 5.2 Spatio-temporal continuity 146 5.3 Relevant
spatio-temporal concepts 147 5.4 Properties of the spatio-temporal
covariance and semivariogram 157 6 Spatio-temporal structural analysis (I):
empirical semivariogram and covariogram estimation and model fitting 162
6.1 Introduction 162 6.2 The empirical spatio-temporal semivariogram and
covariogram 163 6.3 Fitting spatio-temporal semivariogram and covariogram
models 170 6.4 Validation and comparison of spatio-temporal semivariogram
and covariogram models 174 7 Spatio-temporal structural analysis (II):
theoretical covariance models 178 7.1 Introduction 178 7.2 Combined
distance or metric model 180 7.3 Sum model 183 7.4 Combined metric-sum
model 184 7.5 Product model 187 7.6 Product-sum model 191 7.7 Porcu and
Mateu mixture-based models 192 7.8 General product-sum model 194 7.9
Integrated product and product-sum models 198 7.10 Models proposed by
Cressie and Huang 201 7.11 Models proposed by Gneiting 207 7.12 Mixture
models proposed by Ma 211 7.12.1 Covariance functions generated by scale
mixtures 211 7.12.2 Covariance functions generated by positive power
mixtures 212 7.13 Models generated by linear combinations proposed by Ma
215 7.14 Models proposed by Stein 222 7.15 Construction of covariance
functions using copulas and completely monotonic functions 223 7.16
Generalized product-sum model 223 7.17 Models that are not fully symmetric
236 7.18 Mixture-based Bernstein zonally anisotropic covariance functions
237 7.19 Non-stationary models 241 7.19.1 Mixture of locally orthogonal
stationary processes 241 7.19.2 Non-stationary models proposed by Ma 242
7.19.3 Non-stationary models proposed by Porcu and Mateu 246 7.20
Anisotropic covariance functions by Porcu and Mateu 247 7.20.1 Constructing
temporally symmetric and spatially anisotropic covariance functions 247
7.20.2 Generalizing the class of spatio-temporal covariance functions
proposed by Gneiting 248 7.20.3 Differentiation and integration operators
acting on classes of anisotropic covariance functions on the basis of
isotropic components: 'La descente étendue' 251 7.21 Spatio-temporal
constructions based on quasi-arithmetic means of covariance functions 253
7.21.1 Multivariate quasi-arithmetic compositions 255 7.21.2 Permissibility
criteria for quasi-arithmetic means of covariance functions in Rd 256
7.21.3 The use of quasi-arithmetic functionals to build non-separable,
stationary, spatio-temporal covariance functions 259 7.21.4
Quasi-arithmeticity and non-stationarity in space 264 8 Spatio-temporal
prediction and kriging 266 8.1 Spatio-temporal kriging 266 8.2
Spatio-temporal kriging equations 267 9 An introduction to functional
geostatistics 274 9.1 Functional data analysis 274 9.2 Functional
geostatistics: The parametric vs. the non-parametric approach 279 9.3
Functional ordinary kriging 283 9.3.1 Preliminaries 283 9.3.2 Functional
ordinary kriging equations 284 9.3.3 Estimating the trace-semivariogram 288
9.3.4 Functional cross-validation 289 A Spectral representations 295 B
Probabilistic aspects of Uij = Z(si).Z(sj) 300 C Basic theory on restricted
maximum likelihood 302 D Most relevant proofs 304 Bibliography and further
reading 327 Index 351