Hands-on Lab: Difference between revisions
From phys660
Jump to navigationJump to search
(Created page with "= Unix = = Programming = = Java Applets =") |
No edit summary |
||
Line 4: | Line 4: | ||
= Java Applets = | = Java Applets = | ||
== Dissipative Chaos == | |||
*Chaos in Driven Pendulum | |||
*Poincare Section of Driven Pendulum | |||
*Duffing Equation Attractor (Real Space) | |||
*Lorentz Attractor | |||
*Strange Attractors | |||
*Hamiltonian Chaos | |||
==Chaos in Three-Body Problems== | |||
*Poincare Section of Double Pendulum | |||
*Extensible Pendulum | |||
*Standard Area Preserving Map | |||
==Transient Chaos== | |||
*Chaotic Scattering | |||
==Fractals== | |||
*Fractal Coastlines | |||
*Diffusion Limited Aggregation | |||
*Mandelbrot Set | |||
*Julia Set | |||
==Nonlinear Physics and Solitons== | |||
*Toda Lattice Soliton | |||
*KdV Solitons | |||
*FPU paradox in Coupled Pendulums | |||
==Fourier Techniques== | |||
*Normal Modes of Coupled Oscillators: a) Three, b) Many, c) Phonons in Solids | |||
*Fourier Series | |||
*Fourier Transform | |||
*Discrete-time Fourier Transform | |||
*Fourier Syntesis | |||
*Convolution and Autocorrelation | |||
==Statistical Physics== | |||
*Brownian Motion | |||
*Random Walk in 1D | |||
*Random Walk in 2D | |||
*Self-Avoiding Random Walk | |||
*Monte Carlo Estimatation for Pi | |||
*Percolation | |||
*Ising Model Java Applet | |||
==Quantum Mechanics== | |||
*The two slit experiment and the collapse of the wavefunction | |||
*Detector in two slit experiment | |||
*Quantum Scattering of Wave Packet | |||
*Visual Quantum Mechanics | |||
*Quantum Mechanics Applets | |||
==Complex Systems== | |||
*Cellular Automata | |||
*Game of Life | |||
*BTW Sandpile: A model of Self-Organized Criticality | |||
*3D BTW Sandpile Simulation by UD student John Meyer | |||
*Forest Fire: A model of Self-Organized Criticality | |||
*Spin Glasses | |||
*Hopfield Neural Network | |||
*Neural Networks with Java | |||
*Self-Organizing Networks | |||
*Image Compression by Neural Networks | |||
*Genetic Algorithms |
Revision as of 09:29, 6 January 2012
Unix
Programming
Java Applets
Dissipative Chaos
- Chaos in Driven Pendulum
- Poincare Section of Driven Pendulum
- Duffing Equation Attractor (Real Space)
- Lorentz Attractor
- Strange Attractors
- Hamiltonian Chaos
Chaos in Three-Body Problems
- Poincare Section of Double Pendulum
- Extensible Pendulum
- Standard Area Preserving Map
Transient Chaos
- Chaotic Scattering
Fractals
- Fractal Coastlines
- Diffusion Limited Aggregation
- Mandelbrot Set
- Julia Set
Nonlinear Physics and Solitons
- Toda Lattice Soliton
- KdV Solitons
- FPU paradox in Coupled Pendulums
Fourier Techniques
- Normal Modes of Coupled Oscillators: a) Three, b) Many, c) Phonons in Solids
- Fourier Series
- Fourier Transform
- Discrete-time Fourier Transform
- Fourier Syntesis
- Convolution and Autocorrelation
Statistical Physics
- Brownian Motion
- Random Walk in 1D
- Random Walk in 2D
- Self-Avoiding Random Walk
- Monte Carlo Estimatation for Pi
- Percolation
- Ising Model Java Applet
Quantum Mechanics
- The two slit experiment and the collapse of the wavefunction
- Detector in two slit experiment
- Quantum Scattering of Wave Packet
- Visual Quantum Mechanics
- Quantum Mechanics Applets
Complex Systems
- Cellular Automata
- Game of Life
- BTW Sandpile: A model of Self-Organized Criticality
- 3D BTW Sandpile Simulation by UD student John Meyer
- Forest Fire: A model of Self-Organized Criticality
- Spin Glasses
- Hopfield Neural Network
- Neural Networks with Java
- Self-Organizing Networks
- Image Compression by Neural Networks
- Genetic Algorithms