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Dynamics of nonlinear &

chaotic systems Lecture 1: An

Introduction

S. Denisov

Dynamics of nonlinear & chaotic systems

Lecture 1: An Introduction

S. Denisov

Theo I, Institut f¨ur Physik, Universit¨at Augsburg

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Introduction S. Denisov

My name: Sergey ([Sjergjej]) Denisov

My location: IFP, South Building, Room 517, phone: 3228; Q

& A: every working day, better afternoon

My email: sergey.denisov@physik.uni-augsburg.de

My web-page: http://www.physik.uni-augsburg.de/ denisose

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Dynamics of nonlinear &

chaotic systems Lecture 1: An

Introduction S. Denisov

About the course

Course description

The course is aimed at newcomers to nonlinear dynamics and chaos, especially master students taking a FIRST course in this subject. The goal is to introduce the basic phenomena

observed in nonliear dynamics, explaining the mathematics involved in generating these phenomena, and showing how they can be used to understand some of the wonders of real world.

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Introduction S. Denisov

The essential prerequisite is single-variable calculus, including curve-sketching, Taylor series, and basics of differential equations. In a few places, multivariable calculus (partial derivatives, Jacobian matrix, etc) and linear algebra

(eigenvalues & eigenvectors) are used (but I will remind/briefly introduce them). Basic physics (Newton laws etc) is used throughout.

Technical details

We will study problems which either demand (i) a piece of paper & a pen or (ii) a PC or laptop. The computer exercises will usually use Fortran, but you are free to use whatever

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Dynamics of nonlinear &

chaotic systems Lecture 1: An

Introduction S. Denisov

About the course

Textbooks & sources:

Scholarpedia (http://www.scholarpedia.org) & Wiki (sometimes);

Edward Ott, Chaos in Dynamical Systems (the best to my taste);

Steven Strogatz, Nonlinear Dynamics and Chaos; http://www.physik.uni-

augsburg.de/ denisose/lecture.shtml

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Introduction

S. Denisov Course outline

Dynamics: Nonlinear maps and chaos;

Dynamics: Nonlinear diff. equations & flows;

Geometry: strange attractors & fractals;

Dynamics: Hamiltonian chaos;

Dynamics: Control of chaos;

Quantum: Quantum chaos;

Real life: Chaos in our lives;

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Dynamics of nonlinear &

chaotic systems Lecture 1: An

Introduction S. Denisov

About the course

Chaos logo & mascot: Lorenz attractor

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Introduction S. Denisov

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Dynamics of nonlinear &

chaotic systems Lecture 1: An

Introduction S. Denisov

About the course

See you on Monday!

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