Subsystems of Second Order Arithmetic (Paperback)

Stephen G. Simpson

ISBN 10: 0521150140 / ISBN 13: 9780521150149

Published by Cambridge University Press, Cambridge, 2010

About this Item

Paperback. Almost all of the problems studied in this book are motivated by an overriding foundational question: What are the appropriate axioms for mathematics? Through a series of case studies, these axioms are examined to prove particular theorems in core mathematical areas such as algebra, analysis, and topology, focusing on the language of second-order arithmetic, the weakest language rich enough to express and develop the bulk of mathematics. In many cases, if a mathematical theorem is proved from appropriately weak set existence axioms, then the axioms will be logically equivalent to the theorem. Furthermore, only a few specific set existence axioms arise repeatedly in this context, which in turn correspond to classical foundational programs. This is the theme of reverse mathematics, which dominates the first half of the book. The second part focuses on models of these and other subsystems of second-order arithmetic. Through a series of case studies, this volume examines these axioms to prove particular theorems in core mathematical areas. Shipping may be from multiple locations in the US or from the UK, depending on stock availability.

Seller Inventory # 9780521150149

Bibliographic Details

• Title: Subsystems of Second Order Arithmetic (Paperback)
• Publisher: Cambridge University Press, Cambridge
• Publication Date: 2010
• Language: English
• ISBN 10: 0521150140
• ISBN 13: 9780521150149
• Binding: Paperback
• Edition: 2nd Edition
• Condition: new

About this title

Synopsis

Through a series of case studies, this volume examines these axioms to prove particular theorems in core mathematical areas.

Book Description

What are the appropriate axioms for mathematics? Through a series of case studies, this volume examines these axioms to prove particular theorems in core areas including algebra, analysis, and topology, focusing on the language of second-order arithmetic, the weakest language rich enough to express and develop the bulk of mathematics.