🎯 Analyze Nonlinear Dynamics Using Energy-Based Modeling
This project presents a complete Lagrangian formulation and MATLAB simulation of a Double Spring Pendulum system, capturing its highly nonlinear and coupled dynamics. It is ideal for understanding advanced concepts in classical mechanics, vibrations, and control systems through a practical, simulation-based approach.
The model derives equations of motion using energy methods and solves them numerically to visualize system behavior under different initial conditions and parameters.
⚙️ Key Features
✅ Full Lagrangian dynamic derivation
✅ Nonlinear coupled equations of motion
✅ MATLAB implementation with ODE solvers
✅ Time-domain response plots (angles, velocities)
✅ Energy analysis & phase portraits
✅ Configurable masses, lengths & spring constants
✅ Clean, well-commented MATLAB code
✅ Ready for academic reports & demos
📦 What’s Included
📁 MATLAB source codes & functions
📄 Detailed PDF explaining theory & derivation
📊 Simulation scripts with plotting routines
📝 Example initial conditions & test cases
📈 Result visualization (time histories & phase plots)
🎓 Applications
Classical & analytical mechanics courses
Vibrations and dynamic systems study
Control system modeling practice
Nonlinear dynamics & chaos analysis
Final year / semester projects
MATLAB learning for mechanical engineers
💻 Requirements
MATLAB (any recent version)
Basic knowledge of dynamics & ODEs
🌟 Why Choose This Project?
✔️ Clear step-by-step Lagrangian formulation
✔️ Perfect bridge between theory & simulation
✔️ Highly customizable parameters
✔️ Saves time on derivations & coding
✔️ Professional structure for submission