Springer Texts in Statistics
Series Editors
G. Allen
Department of Statistics, Houston, TX, USA
R. De Veaux
Department of Mathematics and Statistics, Williams College, Williamstown, MA, USA
R. Nugent
Department of Statistics, Carnegie Mellon University, Pittsburgh, PA, USA
Springer Texts in Statistics (STS) includes advanced textbooks from 3rd- to 4th-year undergraduate courses to 1st- to 2nd-year graduate courses. Exercise sets should be included. The series editors are currently Genevera I. Allen, Richard D. De Veaux, and Rebecca Nugent. Stephen Fienberg, George Casella, and Ingram Olkin were editors of the series for many years.
More information about this series at http://www.springer.com/series/417
Jay L. Devore
Department of Statistics (Emeritus), California Polytechnic State University, San Luis Obispo, CA, USA
Kenneth N. Berk
Department of Mathematics (Emeritus), Illinois State University, Normal, IL, USA
Matthew A. Carlton
Department of Statistics, California Polytechnic State University, San Luis Obispo, CA, USA
ISSN 1431-875X e-ISSN 2197-4136
Springer Texts in Statistics
ISBN 978-3-030-55155-1 e-ISBN 978-3-030-55156-8
https://doi.org/10.1007/978-3-030-55156-8
2nd edition: Springer Science+Business Media, LLC 2012, corrected publication 2018
The Editor(s) (if applicable) and The Author(s), under exclusive license to Springer Nature Switzerland AG 2007, 2012, 2021
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Preface
Purpose
Our objective is to provide a postcalculus introduction to the discipline of statistics that
Has mathematical integrity and contains some underlying theory.
Shows students a broad range of applications involving real data.
Is up to date in its selection of topics.
Illustrates the importance of statistical software.
Is accessible to a wide audience, including mathematics and statistics majors (yes, there are quite a few of the latter these days, thanks to the proliferation of big data), prospective engineers and scientists, and those business and social science majors interested in the quantitative aspects of their disciplines.
A number of currently available mathematical statistics texts are heavily oriented toward a rigorous mathematical development of probability and statistics, with much emphasis on theorems, proofs, and derivations. The focus is more on mathematics than on statistical practice. Even when applied material is included, the scenarios are often contrived (many examples and exercises involving dice, coins, cards, widgets, or a comparison of treatment A to treatment B).
Our exposition is an attempt to provide a reasonable balance between mathematical rigor and statistical practice. We believe that showing students the applicability of statistics to real-world problems is extremely effective in inspiring them to pursue further coursework and even career opportunities in statistics. Opportunities for exposure to mathematical foundations will follow in due course. In our view, it is more important for students coming out of this course to be able to carry out and interpret the results of a two-sample t test or simple regression analysis, and appreciate how these are based on underlying theory, than to manipulate joint moment generating functions or discourse on various modes of convergence.
Content and Mathematical Level
The book certainly does include core material in probability (Chap. ) is definitely more oriented to dealing with real data than with theoretical properties of models. We also show many examples of output from commonly used statistical software packages, something noticeably absent in most other books pitched at this audience and level.
The challenge for students at this level should lie with mastery of statistical concepts as well as with mathematical wizardry. Consequently, the mathematical prerequisites and demands are reasonably modest. Mathematical sophistication and quantitative reasoning ability are certainly important, especially as they facilitate dealing with symbolic notation and manipulation. Students with a solid grounding in univariate calculus and some exposure to multivariate calculus should feel comfortable with what we are asking of them. The few sections where matrix algebra appears (transformations in Chap. ) can easily be deemphasized or skipped entirely. Proofs and derivations are included where appropriate, but we think it likely that obtaining a conceptual understanding of the statistical enterprise will be the major challenge for readers.
Recommended Coverage
There should be more than enough material in our book for a year-long course. Those wanting to emphasize some of the more theoretical aspects of the subject (e.g., moment generating functions, conditional expectation, transformations, order statistics, sufficiency) should plan to spend correspondingly less time on inferential methodology in the latter part of the book. We have opted not to mark certain sections as optional, preferring instead to rely on the experience and tastes of individual instructors in deciding what should be presented. We would also like to think that students could be asked to read an occasional subsection or even section on their own and then work exercises to demonstrate understanding, so that not everything would need to be presented in class. Remember that there is never enough time in a course of any duration to teach students all that wed like them to know!