The Essence of Chaos
Edward N. Lorenz
- $18.95s paperback (9780295975146) Add to Cart
- hardcover not available
- Published: 1993
- Subject Listing: Science
- Bibliographic information: 240 pp., 70 illus., appendixes, glossary, bibliog., index
- Territorial rights: world rights except in Continental Europe and the Commonwealth (excluding Canada)
- Series: Jessie and John Danz Lecture Series
Chaos surrounds us. Seemingly random events - the flapping of a flag, a storm-driven wave striking the shore, a pinball’s path - often appear to have no order, no rational pattern. Explicating the theory of chaos and the consequences of its principal findings - that actual, precise rules may govern such apparently random behavior - has been a major part of the work of Edward N. Lorenz. In The Essence of Chaos, Lorenz presents to the general reader the features of this “new science,” with its far-reaching implications for much of modern life, from weather prediction to philosophy, and he describes its considerable impact on emerging scientific fields.
Unlike the phenomena dealt with in relativity theory and quantum mechanics, systems that are now described as “chaotic” can be observed without telescopes or microscopes. They range from the simplest happenings, such as the falling of a leaf, to the most complex processes, like the fluctuations of climate. Each process that qualifies, however, has certain quantifiable characteristics: how it unfolds depends very sensitively upon its present state, so that, even though it is not random, it seems to be. Lorenz uses examples from everyday life, and simple calculations, to show how the essential nature of chaotic systems can be understood. In order to expedite this task, he has constructed a mathematical model of a board sliding down a ski slope as his primary illustrative example. With this model as his base, he explains various chaotic phenomena, including some associated concepts such as strange attractors and bifurcations.
As a meteorologist, Lorenz initially became interested in the field of chaos because of its implications for weather forecasting. In a chapter ranging through the history of weather prediction and meteorology to a brief picture of our current understanding of climate, he introduces many of the researchers who conceived the experiments and theories, and he describes his own initial encounter with chaos.
A further discussion invites readers to make their own chaos. Still others debate the nature of randomness and its relationship to chaotic systems, and describe three related fields of scientific thought: nonlinearity, complexity, and fractality. Appendixes present the first publication of Lorenz’s seminal paper “Does the Flap of a Butterfly’s Wing in Brazil Set Off a Tornado in Texas?”; the mathematical equations from which the copious illustrations were derived; and a glossary.
Edward N. Lorenz is emeritus professor of meteorology at the Massachusetts Institute of Technology and is the author of numerous scientific papers.
1) Glimpses of Chaos
2) A Journey Into Chaos
3) Our Chaotic Weather
4) Encounters with Chaos
5) What Else is Chaos
Appendixes - The Butterfly Effect; Mathematical Excursions; A Brief Dynamical-Systems Glossary
"For the personal glimpses of chaos theory development alone, this book is worthwhile; for a clear, sharp development of the subject, the book is excellent; and for tying humanistic and scientific considerations together so well, there is a major debt owed to Lorenz." - Geophysics
"Lorenz has produced a wonderfully accessible book on the ideas and story of chaos. The book is superbly written providing delightful intellectual entertainment." - Bulletin of the American Meteorological Society
"In giving a nontechnical but careful account of the field of dynamical systems and 'chaos,' and setting it in a broader scientific context, Lorenz has ... communicate[d] the nature of the mathematical sciences and how mathematics contributes to society." - SIAM Review
"[A] unique chronicle of the insights of one of the founding fathers of this still burgeoning field." - American Journal of Physics