Stillwell is . . . One of the better current mathematical authors: he writes clearly and engagingly, and makes more of an effort than most to provide historical detail and a sense of how various mathematical ideas tie in with one another. . . . The features we have learned to expect from Stillwell (including, but not limited to, excellent writing) are present in [Elements of Mathematics] as well.--MAA Reviews
A beautiful and relatively elementary account of a part of mathematics where three main fields - algebra, analysis and geometry - meet. The book provides a broad view of these subjects at the level of calculus, without being a calculus book. Its roots are in arithmetic and geometry, the two opposite poles of mathematics, and the source of historic conceptual conflict. The resolution of this conflict, and its role in the development of mathematics, is one of the main stories in the book. Stillwell has chosen an array of exciting and worthwhile topics and elegantly combines mathematical history with mathematics. He covers the main ideas of Euclid, but with 2000 years of extra insights attached. Presupposing only high school algebra, it can be read by any well prepared student entering university. Moreover, this book will be popular with graduate students and researchers in mathematics due to its attractive and unusual treatment of fundamental topics. A set of well-written exercises at the end of each section allows new ideas to be instantly tested and reinforced.
This book offers a collection of historical essays detailing a large variety of mathematical disciplines and issues; it’s accessible to a broad audience. This second edition includes new chapters on Chinese and Indian number theory, on hypercomplex numbers, and on algebraic number theory. Many more exercises have been added as well as commentary that helps place the exercises in context.
Linking set theory with analysis, this text offers a detailed exploration of the real numbers system. It provides a unique introduction to set theory while thoroughly explaining the fundamental concepts of analysis, filling a gap in standard curricula. The book aims to enhance understanding of both mathematical fields through its comprehensive approach.
This book explores the dual nature of algebra as both abstract and applied mathematics, emphasizing its role in solving concrete geometric problems. It traces algebra's evolution from Euclid's era to the 19th century, highlighting its unifying power across various mathematical disciplines and fostering a deeper appreciation for its principles.
Solutions of equations in integers is the central problem of number theory and is the focus of this book. The amount of material is suitable for a one-semester course. The author has tried to avoid the ad hoc proofs in favor of unifying ideas that work in many situations. There are exercises at the end of almost every section, so that each new idea or proof receives immediate reinforcement.
Exploring the evolution of proof, this book highlights its crucial role in shaping mathematical knowledge from ancient to modern times. It traces the journey from Euclid's geometry to the development of algebra and calculus, illustrating how proof methods have transformed. The discussion extends to number theory, non-Euclidean geometry, and logic, revealing the profound implications of proof on arithmetic and the limitations it imposes on theorem validation. Through historical episodes, it provides a fresh perspective on mathematics' foundational principles and its capacity for innovation.
This book explores four distinct approaches to teaching geometry, highlighting the evolution from Euclid's methods to modern concepts like linear algebra and transformation groups. Each approach is presented in two chapters: one concrete and introductory, the other more abstract, illustrating the richness and diversity of geometric understanding.
Exploring the intersection of set theory and mathematical logic, this book delves into their influence on contemporary mathematics, particularly in number theory and combinatorics. It examines how foundational questions about infinity and the nature of proof have shaped mathematical thought. By tracing the evolution of these ideas, the text provides a comprehensive understanding of their relevance in modern mathematical discussions and developments.
Focusing on geometric aspects, this introduction to topology provides a rich historical context and visual interpretation of concepts. The second edition enhances the learning experience with 300 illustrations, a variety of exercises, and challenging open problems. A new chapter dedicated to unsolvable problems adds depth, making this edition a comprehensive resource for both students and enthusiasts of topology.