A Course in Time Series Analysis / Edition 1

Hardcover (Print)
Used and New from Other Sellers
Used and New from Other Sellers
from $87.59
Usually ships in 1-2 business days
(Save 60%)
Other sellers (Hardcover)
  • All (12) from $87.59   
  • New (8) from $163.76   
  • Used (4) from $87.59   

Overview

New statistical methods and future directions of research in time series

A Course in Time Series Analysis demonstrates how to build time series models for univariate and multivariate time series data. It brings together material previously available only in the professional literature and presents a unified view of the most advanced procedures available for time series model building. The authors begin with basic concepts in univariate time series, providing an up-to-date presentation of ARIMA models, including the Kalman filter, outlier analysis, automatic methods for building ARIMA models, and signal extraction. They then move on to advanced topics, focusing on heteroscedastic models, nonlinear time series models, Bayesian time series analysis, nonparametric time series analysis, and neural networks. Multivariate time series coverage includes presentations on vector ARMA models, cointegration, and multivariate linear systems. Special features include:

  • Contributions from eleven of the world's leading figures in time series
  • Shared balance between theory and application
  • Exercise series sets
  • Many real data examples
  • Consistent style and clear, common notation in all contributions
  • 60 helpful graphs and tables

Requiring no previous knowledge of the subject, A Course in Time Series Analysis is an important reference and a highly useful resource for researchers and practitioners in statistics, economics, business, engineering, and environmental analysis.

An Instructor's Manual presenting detailed solutions to all the problems in the book is available upon request from the Wiley editorial department.

Read More Show Less

Editorial Reviews

From the Publisher
"This text demonstrate how to build time series models for univariate and multivariate time series data." (SciTech Book News, Vol. 25, No. 2, June 2001)

"...material is thoroughly and carefully presented...a very useful addition to any collection both for learning and reference." (Short Book Reviews, Vol. 21, No. 2, August 2001)

"From the preface: 'The book can be used as a principal text or a complementary text for courses in time series.?" (Mathematical Reviews, Issue 2001k)

"...an excellent complement...for a first graduate course in time series analysis...a nice addition to anyone's time series library." (Technometrics, Vol. 43, No. 4, November 2001)

"If you are familiar with the basics...and need a compass to navigate the vast world of time series literature, then this book is certainly what you need to have around...presents seamlessly and coherently overviews of the current status of time series research and applications." (The American Statistician, Vol. 56, No. 1, February 2002)

"...an excellent source of introductory surveys of several timely topics in time series analysis..." (Statistical Papers, July 2002)

"...a nice compendium covering a lot of relevant material..." (Statistics & Decisions, Vol.20, No.4, 2002)

SciTech Book
This text demonstrate how to build time series models for univariate and multivariate time series data.
SciTech Book
This text demonstrate how to build time series models for univariate and multivariate time series data.
Booknews
The time series, a sequence of observations taken at regular intervals, is frequently used to organize data in business, economics, engineering, the environment, medicine, and other areas; examples include daily stock prices, weekly traffic volume, and annual growth rates. This text demonstrates how to build time series models for univariate and multivariate time series data. It covers basic concepts , such as ARIMA models, the Kalman filter, and signal extraction, as well as more advanced topics including heteroscedastic models, nonlinear time series models, and Bayesian time series analysis. Annotation c. Book News, Inc., Portland, OR (booknews.com)
Read More Show Less

Product Details

Meet the Author

DANIEL PE'A, PhD, is Professor of Statistics, Universidad Carlos III de Madrid.

GEORGE C. TIAO, PhD, is W. Allen Wallis Professor of Statistics and Econometrics, Graduate School of Business, University of Chicago.

RUEY S. TSAY, PhD, is H. G. B. Alexander Professor of Statistics and Econometrics, Graduate School of Business, University of Chicago.

Read More Show Less

Table of Contents

1. Introduction 1
D. Pena and G. C. Tiao

1.1. Examples of time series problems, 1

1.1.1. Stationary series, 2

1.1.2. Nonstationary series, 3

1.1.3. Seasonal series, 5

1.1.4. Level shifts and outliers in time series, 7

1.1.5. Variance changes, 7

1.1.6. Asymmetric time series, 7

1.1.7. Unidirectional-feedback relation between series, 9

1.1.8. Comovement and cointegration, 10

1.2. Overview of the book, 10

1.3. Further reading, 19

PART I BASIC CONCEPTS IN UNIVARIATE TIME SERIES

2. Univariate Time Series: Autocorrelation, Linear Prediction, Spectrum, and State-Space Model 25
G. T. Wilson

2.1. Linear time series models, 25

2.2. The autocorrelation function, 28

2.3. Lagged prediction and the partial autocorrelation function, 33

2.4. Transformations to stationarity, 35

2.5. Cycles and the periodogram, 37

2.6. The spectrum, 42

2.7. Further interpretation of time series acf, pacf, and spectrum, 46

2.8. State-space models and the Kalman Filter, 48

3. Univariate Autoregressive Moving-Average Models 53
G. C. Tiao

3.1. Introduction, 53

3.1.1. Univariate ARMA models, 54

3.1.2. Outline of the chapter, 55

3.2. Some basic properties of univariate ARMA models, 55

3.2.1. The ø and TT weights, 56

3.2.2. Stationarity condition and autocovariance structure o f z „ 58

3.2.3. The autocorrelation function, 59

3.2.4. The partial autocorrelation function, 60

3.2.5. The extended autocorrelaton function, 61

3.3. Model specification strategy, 63

3.3.1. Tentative specification, 63

3.3.2. Tentative model specification via SEACF, 67

3.4. Examples, 68

4. Model Fitting and Checking, and the Kalman Filter 86
G. T. Wilson

4.1. Prediction error and the estimation criterion, 86

4.2. The likelihood of ARMA models, 90

4.3. Likelihoods calculated using orthogonal errors, 94

4.4. Properties of estimates and problems in estimation, 98

4.5. Checking the fitted model, 101

4.6. Estimation by fitting to the sample spectrum, 104

4.7. Estimation of structural models by the Kalman filter, 105

5. Prediction and Model Selection 111
D. Pefia

5.1. Introduction, 111

5.2. Properties of minimum mean-square error prediction, 112

5.2.1. Prediction by the conditional expectation, 112

5.2.2. Linear predictions, 113

5.3. The computation of ARIMA forecasts, 114

5.4. Interpreting the forecasts from ARIMA models, 116

5.4.1. Nonseasonal models, 116

5.4.2. Seasonal models, 120

5.5. Prediction confidence intervals, 123

5.5.1. Known parameter values, 123

5.5.2. Unknown parameter values, 124

5.6. Forecast updating, 125

5.6.1. Computing updated forecasts, 125

5.6.2. Testing model stability, 125

5.7. The combination of forecasts, 129

5.8. Model selection criteria, 131

5.8.1. The FPE and AIC criteria, 131

5.8.2. The Schwarz criterion, 133

5.9. Conclusions, 133

6. Outliers, Influential Observations, and Missing Data 136
D. Pena

6.1. Introduction, 136

6.2. Types of outliers in time series, 138

6.2.1. Additive outliers, 138

6.2.2. Innovative outliers, 141

6.2.3. Level shifts, 143

6.2.4. Outliers and intervention analysis, 146

6.3. Procedures for outlier identification and estimation, 147

6.3.1. Estimation of outlier effects, 148

6.3.2. Testing for outliers, 149

6.4. Influential observations, 152

6.4.1. Influence on time series, 152

6.4.2. Influential observations and outliers, 153

6.5. Multiple outliers, 154

6.5.1. Masking effects, 154

6.5.2. Procedures for multiple outlier identification, 156

6.6. Missing-value estimation, 160

6.6.1. Optimal interpolation and inverse autocorrelation function, 160

6.6.2. Estimation of missing values, 162

6.7. Forecasting with outliers, 164

6.8. Other approaches, 166

6.9. Appendix, 166

7. Automatic Modeling Methods for Univariate Series 171
V. Gomez and A. Maravall

7.1. Classical model identification methods, 171

7.1.1. Subjectivity of the classical methods, 172

7.1.2. The difficulties with mixed ARMA models, 173

7.2. Automatic model identification methods, 173

7.2.1. Unit root testing, 174

7.2.2. Penalty function methods, 174

7.2.3. Pattern identification methods, 175

7.2.4. Uniqueness of the solution and the purpose of modeling, 176

7.3. Tools for automatic model identification, 177

7.3.1. Test for the log-level specification, 177

7.3.2. Regression techniques for estimating unit roots, 178

7.3.3. The Hannan-Rissanen method, 181

7.3.4. Liu's filtering method, 185

7.4. Automatic modeling methods in the presence of outliers, 186

7.4.1. Algorithms for automatic outlier detection and correction, 186

7.4.2. Estimation and filtering techniques to speed up the algorithms, 190

7.4.3. The need to robustify automatic modeling methods, 191

7.4.4. An algorithm for automatic model identification in the presence of outliers, 191

7.5. An automatic procedure for the general regression-ARIMA model in the presence of outlierw, special effects, and, possibly, missing observations, 192

7.5.1. Missing observations, 192

7.5.2. Trading day and Easter effects, 193

7.5.3. Intervention and regression effects, 194

7.6. Examples, 194

7.7. Tabular summary, 196

8. Seasonal Adjustment and Signal Extraction Time Series 202
V. Gomez and A. Maravall

8.1. Introduction, 202

8.2. Some remarks on the evolution of seasonal adjustment methods, 204

8.2.1. Evolution of the methodologic approach, 204

8.2.2. The situation at present, 207

8.3. The need for preadjustment, 209

8.4. Model specification, 210

8.5. Estimation of the components, 213

8.5.1. Stationary case, 215

8.5.2. Nonstationary series, 217

8.6 Historical or final estimator, 218

8.6.1. Properties of final estimator, 218

8.6.2. Component versus estimator, 219

8.6.3. Covariance between estimators, 221

8.7. Estimators for recent periods, 221

8.8. Revisions in the estimator, 223

8.8.1. Structure of the revision, 223

8.8.2. Optimality of the revisions, 224

8.9. Inference, 225

8.9.1. Optical Forecasts of the Components, 225

8.9.2. Estimation error, 225

8.9.3. Growth rate precision, 226

8.9.4. The gain from concurrent adjustment, 227

8.9.5. Innovations in the components (pseudoinnovations), 228

8.10. An example, 228

8.11. Relation with fixed filters, 235

8.12. Short-versus long-term trends; measuring economic cycles, 236

PART II ADVANCED TOPICS IN UNIVARIATE TIME SERIES

9. Heteroscedastic Models
R. S. Tsay

9.1. The ARCH model, 250

9.1.1. Some simple properties of ARCH models, 252

9.1.2. Weaknesses of ARCH models, 254

9.1.3. Building ARCH models, 254

9.1.4. An illustrative example, 255

9.2. The GARCH Model, 256

9.2.1. An illustrative example, 257

9.2.2. Remarks, 259

9.3. The exponential GARCH model, 260

9.3.1. An illustrative example, 261

9.4. The CHARMA model, 262

9.5. Random coefficient autoregressive (RCA) model, 263

9.6. Stochastic volatility model, 264

9.7. Long-memory stochastic volatility model, 265

10. Nonlinear Time Series Models: Testing and Applications 267
R. S. Tsay

10.1. Introduction, 267

10.2. Nonlinearity tests, 268

10.2.1. The test, 268

10.2.2. Comparison and application, 270

10.3. The Tar model, 274

10.3.1. U.S. real GNP, 275

10.3.2. Postsample forecasts and discussion, 279

10.4. Concluding remarks, 282

11. Bayesian Time Series Analysis 286
R. S. Tsay

11.1. Introduction, 286

11.2. A general univariate time series model, 288

11.3. Estimation, 289

11.3.1. Gibbs sampling, 291

11.3.2. Griddy Gibbs, 292

11.3.3. An illustrative example, 292

11.4. Model discrimination, 294

11.4.1. A mixed model with switching, 295

11.4.2. Implementation, 296

11.5. Examples, 297

12 Nonparametric Time Series Analysis: Nonparametric Regression, Locally Weighted Regression, Autoregression, and Quantile Regression 308
S. Heiler

12.1 Introduction, 308

12.2 Nonparametric regression, 309

12.3 Kernel estimation in time series, 314

12.4 Problems of simple kernel estimation and restricted approaches, 319

12.5 Locally weighted regression, 321

12.6 Applications of locally weighted regression to time series, 329

12.7 Parameter selection, 330

12.8 Time series decomposition with locally weighted regression, 336

13. Neural Network Models 348
K. Hornik and F. Leisch

13.1. Introduction, 348

13.2. The multilayer perceptron, 349

13.3. Autoregressive neural network models, 354

13.3.1. Example: Sunspot series, 355

13.4. The recurrent perceptron, 356

13.4.1. Examples of recurrent neural network models, 357

13.4.2. A unifying view, 359

PART III MULTIVARIATE TIME SERIES

14. Vector ARMA Models 365
G. C. Tiao

14.1. Introduction, 365

14.2. Transfer function or unidirectional models, 366

14.3. The vector ARMA model, 368

14.3.1. Some simple examples, 368

14.3.2. Relationship to transfer function model, 371

14.3.3. Cross-covariance and correlation matrices, 371

14.3.4. The partial autoregression matrices, 372

14.4. Model building strategy for multiple time series, 373

14.4.1. Tentative specification, 373

14.4.2. Estimation, 378

14.4.3. Diagnostic checking, 379

14.5. Analyses of three examples, 380

14.5.1. The SCC data, 380

14.5.2. The gas furnace data, 383

14.5.3. The census housing data, 387

14.6. Structural analysis of multivariate time series, 392

14.6.1. A canonical analysis of multiple time series, 395

14.7. Scalar component models in multiple time series, 396

14.7.1. Scalar component models, 398

14.7.2. Exchangeable models and overparameterization, 400

14.7.3. Model specification via canonical correlation analysis, 402

14.7.4. An illustrative example, 403

14.7.5. Some further remarks, 404

15. Cointegration in the VAR Model 408
5. Johansen

15.1. Introduction, 408

15.1.1. Basic definitions, 409

15.2. Solving autoregressive equations, 412

15.2.1. Some examples, 412

15.2.2. An inversion theorem for matrix polynomials, 414

15.2.3. Granger's representation, 417

15.2.4. Prediction, 419

15.3. The statistical model for / ( l ) variables, 420

15.3.1. Hypotheses on cointegrating relations, 421

15.3.2. Estimation of cointegrating vectors and calculation of test statistics, 422

15.3.3. Estimation of â under restrictions, 426

15.4. Asymptotic theory, 426

15.4.1. Asymptotic results, 427

15.4.2. Test for cointegrating rank, 427

15.4.3. Asymptotic distribution of â and test for restrictions on â, 429

15.5. Various applications of the cointegration model, 432

15.5.1. Rational expectations, 432

15.5.2. Arbitrage pricing theory, 433

15.5.3. Seasonal cointegration, 433

16. Identification of Linear Dynamic Multiinput/Multioutput Systems 436
M. Deistler

16.1. Introduction and problem statement, 436

16.2. Representations of linear systems, 438

16.2.1. Input/output representations, 438

16.2.2. Solutions of linear vector difference equations (VDEs), 440

16.2.3. ARMA and state-space representations, 441

16.3. The structure of state-space systems, 443

16.4. The structure of ARMA systems, 444

16.5. The realization of state-space systems, 445

16.5.1. General structure, 445

16.5.2. Echelon forms, 447

16.6. The realization of ARMA systems, 448

16.7. Parametrization, 449

16.8. Estimation of real-valued parameters, 452

16.9. Dynamic specification, 454

INDEX 457

Read More Show Less

Preface

This book is based on the lectures of the ECAS' 97 Course in Time Series Analysis held at El Escorial, Madrid, Spain, from September 15 to September 19, 1997. The course was sponsored by the European Courses in Advanced Statistics (ECAS). In accordance with the objectives of ECAS, the lectures are directed to both researchers and teachers of statistics in academic institutions and statistical professionals in industry and govermment, with the goal of presenting an overview of the current status of the area. In particular, different approaches to time series analysis are discussed and compared. In editing the book, we have worked hard to uphold ECAS' objectives. In addition, special efforts have been made to unify the notation and to include as many topics as possible, so that readers of the book can have an overview of the current status of time series research and applications.

The book consists of three main components. The first component concern basic materials of univariate time series analysis presented in the first eight chapters. It includes recent developments in outlier detection, automatic model selection, and seasonal adjustment. The second component addresses advanced topics in univariate time series analysis such as conditional heteroscedastic models, nonlinear models, Bayesian analysis, nonparametric methods, and neural networks. This component represents current research activities in univariate time series analysis. The third and final component of the book concerns with multivariate time series, including vector ARMA models, cointegration, and linear systems.

The book can be used as a principal text or a complementary text for courses in time series. A basic time series course can be taught from the first part of the book that presents the basic material that can be found in the standard texts in time series. This part also includes topics not normally covered in these texts, such as the extended and inverse autocorrelation function, the decomposition of the forecast function of ARIMA models, a detailed analysis of outliers and influential observations and automatic methods for model building and model based seasonal adjustment. For a basic course this book should be complemented with some of the excellent texts available. The book would be very well suited for an advanced course in which some of the basic material can be quickly reviewed using the first part, that skips many details and concentrates in the main concepts of general applicability. Then the course can concentrate in the topics in Parts 2 and 3. If the scope of the course is more in methodological extensions of univariate linear models the material in Part 2 can be useful, whereas if the objective is to introduce multivariate modeling Part 3 will be appropriate. To facilitate the use of the book as a text, all the time series data used in this book can be down loaded from the web address: http://gsb.uchicago.edu/ fac/ruey. tsay/teaching/ecas/

We are grateful to all people who have made this book possible: (1) to the 11 authors of the chapters of the book who have been extremely helpful in the timely revisions of the drafts of the chapters and have made a big effort to unify the presentation and (2) to the organizers of the course and all the students from many different countries in four continents that made this one week of lectures a very enjoyable experience for all the participants. We are very grateful to our host in the Monastery of El Escorial, father Agustin Alonso, who did his best to make our staying in the monastery an unforgettable experience. The success of the course was in large part due to the enthusiastic work in all the organization details of Ana Justel, Regina Kaiser, Juan Romo, Esther Ruiz, and Maria Jesus Sanchez. In the preparation of the book we are also grateful to Monica Benito for her help in organizing the index and the references in the book.

The Editors

About ECAS

ECAS is a foundation of Statistical Societies within Europe that, according to its constitution, was founded in order to foster links and to promote cooperation between statisticians in Europe. In order to achieve these aims, courses on an advanced level covering varying aspects of statistics are organized every 2 years in different countries of Europe. In 1999 Statistical Societies members of ECAS belongs to the following countries: Austria, Belgium, Denmark, France, Finland, Germany, Italy, Portugal, Spain, Sweden, Switzerland, The Netherlands, and the United Kingdom.

The first ECAS course was held in Capri, Italy, on Multidimensional Data Analysis in 1987. Subsequent courses were held on robustness in statistics in 1989 in the castle Reisenburg, Germany; on experimental design in 1991 in SW, France; on the analysis of categorical data in 1995 in Leiden, The Netherlands; on longitudinal data analysis and repeated measures in 1995 in Milton Keynes, United Kingdom; on time series analysis in 1997 in San Lorenzo del Escorial, Spain; and on environmental statistics in 1999 in Garpenberg, Sweden.

A Council has the overall responsibility for ECAS. Its members are nominated by the statistical societies of participating countries. The Presidents of ECAS have been Jean Jacques Debrosque (Belgium, 1987-1993) and Siegfried Heiler (Germany, 1994-1997). The current President is Daniel Pefia (Spain, 1998-2001).

Read More Show Less

Customer Reviews

Be the first to write a review
( 0 )
Rating Distribution

5 Star

(0)

4 Star

(0)

3 Star

(0)

2 Star

(0)

1 Star

(0)

Your Rating:

Your Name: Create a Pen Name or

Barnes & Noble.com Review Rules

Our reader reviews allow you to share your comments on titles you liked, or didn't, with others. By submitting an online review, you are representing to Barnes & Noble.com that all information contained in your review is original and accurate in all respects, and that the submission of such content by you and the posting of such content by Barnes & Noble.com does not and will not violate the rights of any third party. Please follow the rules below to help ensure that your review can be posted.

Reviews by Our Customers Under the Age of 13

We highly value and respect everyone's opinion concerning the titles we offer. However, we cannot allow persons under the age of 13 to have accounts at BN.com or to post customer reviews. Please see our Terms of Use for more details.

What to exclude from your review:

Please do not write about reviews, commentary, or information posted on the product page. If you see any errors in the information on the product page, please send us an email.

Reviews should not contain any of the following:

  • - HTML tags, profanity, obscenities, vulgarities, or comments that defame anyone
  • - Time-sensitive information such as tour dates, signings, lectures, etc.
  • - Single-word reviews. Other people will read your review to discover why you liked or didn't like the title. Be descriptive.
  • - Comments focusing on the author or that may ruin the ending for others
  • - Phone numbers, addresses, URLs
  • - Pricing and availability information or alternative ordering information
  • - Advertisements or commercial solicitation

Reminder:

  • - By submitting a review, you grant to Barnes & Noble.com and its sublicensees the royalty-free, perpetual, irrevocable right and license to use the review in accordance with the Barnes & Noble.com Terms of Use.
  • - Barnes & Noble.com reserves the right not to post any review -- particularly those that do not follow the terms and conditions of these Rules. Barnes & Noble.com also reserves the right to remove any review at any time without notice.
  • - See Terms of Use for other conditions and disclaimers.
Search for Products You'd Like to Recommend

Recommend other products that relate to your review. Just search for them below and share!

Create a Pen Name

Your Pen Name is your unique identity on BN.com. It will appear on the reviews you write and other website activities. Your Pen Name cannot be edited, changed or deleted once submitted.

 
Your Pen Name can be any combination of alphanumeric characters (plus - and _), and must be at least two characters long.

Continue Anonymously

    If you find inappropriate content, please report it to Barnes & Noble
    Why is this product inappropriate?
    Comments (optional)