Vehicle Adaptive Control with Dynamic Following Algorithm
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Resource Overview
Implement a vehicle following system where two vehicles move in a straight line, with the rear vehicle maintaining a predefined safe distance while adapting to the lead vehicle's acceleration/deceleration patterns. The simulation should generate curves for velocity, acceleration, and distance metrics, incorporating physics-based considerations.
Detailed Documentation
The simulation requires modeling two vehicles moving along a straight path with adaptive distance control. The rear vehicle must maintain a user-defined safe distance while synchronizing its acceleration/deceleration profile with the lead vehicle's movements. When the lead vehicle stops, the follower must brake to a complete stop while preserving the minimum safe distance threshold.
For implementation, consider using a PID controller or model predictive control algorithm to calculate the follower's acceleration command based on relative distance and velocity measurements. Key functions would include:
- Distance monitoring using relative position sensors
- Velocity matching through acceleration control logic
- Emergency braking algorithms for sudden stops
The simulation output must include time-domain plots for:
- Lead and follower velocity profiles
- Acceleration/deceleration curves for both vehicles
- Real-time distance measurement between vehicles
To enhance realism, incorporate physical factors such as road friction, aerodynamic drag, and vehicle mass dynamics using equations like F_friction = μ×m×g and F_drag = 0.5×ρ×C_d×A×v². The control system should demonstrate stability during transient maneuvers while maintaining safe following distances under varying operating conditions.
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