John Maynard Smith was originally trained as an engineer but, despite important excursions into animal mechanics, ecology and ethology, he is now best known as an international authority on evolution. His pre-eminence is based in large part on original research contributions coupled with an uncanny ability for revealing simple explanations to apparently intractable problems. This wide-ranging volume contains a collection of new and original essays, all inspired by Maynard Smith's writings. The essays span the whole field of evolutionary biology: from microevolution to macroevolution; from evolutionarily stable strategies to sympatric speciation; and from population processes in plants to the arithmetic of assessment in animals.

Published by Sinauer Associates, an imprint of Oxford University Press. An Introduction to Population Genetics is intended as a text for a one-semester biology course in population genetics at the undergraduate or graduate levels. The goal of the book is to introduce both classical population genetics theory developed in terms of allele and haplotype frequencies and modern population genetics theory developed in terms of coalescent theory. Numerous applications of theory to problems that arise in the study of human and other populations are presented. Appendices provide the mathematical background necessary to understand the basic theory.

John Maynard Smith was originally trained as an engineer but, despite important excursions into animal mechanics, ecology and ethology, he is now best known as an international authority on evolution. His pre-eminence is based in large part on original research contributions coupled with an uncanny ability for revealing simple explanations to apparently intractable problems. This wide-ranging volume contains a collection of new and original essays, all inspired by Maynard Smith's writings. The essays span the whole field of evolutionary biology: from microevolution to macroevolution; from evolutionarily stable strategies to sympatric speciation; and from population processes in plants to the arithmetic of assessment in animals.