MATLAB Simulation of a Single Inverted Pendulum System

Resource Overview

MATLAB Simulation of a Single Inverted Pendulum with Control Algorithm Implementation and Dynamic Modeling

Detailed Documentation

MATLAB simulation of a single inverted pendulum serves as a classic control system practice project, aiding in understanding dynamic modeling and control algorithm design. Through simulation programs written in M-language, the stability and control performance of the inverted pendulum system can be visually demonstrated.

### Simulation Approach Mathematical Model Establishment: First, establish the dynamic model of the single inverted pendulum based on Newtonian mechanics or Lagrangian equations, including the motion equations of the pendulum rod and cart. State-Space Representation: Convert the differential equations into a state-space model to facilitate subsequent controller design. Control Algorithm Design: Common control methods include PID control, Linear Quadratic Regulator (LQR), or fuzzy control. Select an appropriate control strategy to achieve balance control of the pendulum. MATLAB Implementation: Write simulation scripts using M-language, including setting system parameters, using ODE solvers (e.g., `ode45`), and creating animations (e.g., `plot` or `animatedline`). Simulation Analysis: Observe system responses, adjust controller parameters, and optimize stability.

### Extended Considerations Experiment with different control algorithms to compare their response speeds and disturbance rejection capabilities. Introduce external disturbances to test system robustness. Extend the simulation to a double inverted pendulum to increase complexity.

This simulation task is not only suitable for teaching demonstrations but also helps deepen the understanding of control theory and MATLAB programming techniques.