

The author describes how scientists studying the growth of complexity in nature are discovering order and pattern in chaos. He explains concepts such as nonlinearity, the Butterfly Effect, universal constants, fractals, and strange attractors, and examines the work of scientists such as Mitchell J. Feigenbaum, Edward Lorenz, and Benoit Mandelbrot.
A glimpse inside

Gleick chronicles the emergence of chaos theory as a legitimate scientific field in the late 20th century, showing how it upended the Newtonian expectation that nature is fundamentally predictable. Through the stories of pioneers like Edward Lorenz, he illustrates how small changes in initial conditions can lead to wildly divergent outcomes, a concept that reshaped thinking in physics, mathematics, biology, and beyond.
One of the most famous insights from chaos theory is the Butterfly Effect: the idea that tiny, seemingly insignificant variations can have massive, unpredictable impacts on complex systems. Gleick explains how Lorenz’s weather models revealed this sensitivity, challenging the hope for perfect prediction and highlighting the limits of scientific control.
Ratings at a glance
- 1The Birth of Chaos Theory
- 2The Butterfly Effect
- 3Nonlinearity and Unpredictability
- 4Fractals and Self-Similarity
- 5Strange Attractors and Order in Chaos
Popular quotes from Chaos: Making a New Science
“Sensitive dependence on initial conditions is the hallmark of chaos.”
“In the act of observing the world, we inevitably change it.”
