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源码名称:Computational Physics using MATLAB.pdf
源码大小:4.93M
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开发语言:MATLAB
更新时间:2020-09-16
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源码介绍
一本用MATLAB编程的计算物理书
一本用MATLAB编程的计算物理书
Table of Contents Preface........................................................................................................................................6 1. Uranium Decay.......................................................................................................................7 3. The Pendulum........................................................................................................................9 3.1 Solution using the Euler method......................................................................................9 3.1.1 Solution using the Euler-Cromer method.................................................................... 10 3.1.2 Simple Harmonic motion example using a variety of numerical approaches.............11 3.2 Solution for a damped pendulum using the Euler-Cromer method............................. 16 3.3 Solution for a non-linear, damped, driven pendulum :- the Physical pendulum, using the Euler-Cromer method.................................................................................................... 18 3.4 Bifurcation diagram for the pendulum .........................................................................24 3.6 The Lorenz Model ..........................................................................................................26 4. The Solar System .................................................................................................................28 4.1 Kepler’s Laws..................................................................................................................28 4.1.1 Ex 4.1 Planetary motion results using different time steps .........................................30 4.2 Orbits using different force laws ....................................................................................35 4.3 Precession of the perihelion of Mercury. .................................................................... 40 4.4 The three body problem and the effect of Jupiter on Earth ..........................................48 4.6 Chaotic tumbling of Hyperion.......................................................................................53 5. Potentials and Fields........................................................................................................... 60 5.1 Solution of Laplace’s equation using the Jacobi relaxation method. ........................... 60 5.1.1 Solution of Laplace’s equation for a hollow metallic prism with a solid, metallic inner conductor. ............................................................................................................................63 5.1.2 Solution of Laplace’s equation for a finite sized capacitor ........................................66 5.1.3 Exercise 5.7 and the Successive Over Relaxation Algorithm.......................................70 5.2 Potentials and fields near Electric charges, Poisson’s Equation.................................... 75 6. Waves ...................................................................................................................................78 6.1 Waves on a string...........................................................................................................78 6.1.1 Waves on a string with free ends .................................................................................81 6.2 Frequency spectrum of waves on a string .....................................................................83 7. Random Systems..................................................................................................................87 7.1 Random walk simulation................................................................................................87 7.1.1 Random walk simulation with random path lengths...................................................89 10. Quantum Mechanics .......................................................................................................... 91 10.2 Time independent Schrodinger equation. Shooting method....................................... 91 Kevin Berwick Page 3 10.5 Wavepacket construction .............................................................................................93 10.3 Time Dependent Schrodinger equation in One dimension. Leapfrog method............95 10.4 Time Dependent Schrodinger equation in two dimensions. Leapfrog method...........99