Simulation of Beam Position Scheduling for Phased Array Radar

This documentation presents a comprehensive simulation framework for beam position scheduling in phased array radar systems. The simulation operates in real-time mode, providing immediate visualization of scheduling results through interactive graphical interfaces. The system architecture incorporates modular design principles, allowing dynamic modification of radar array parameters including element spacing, aperture size, and configuration patterns through parameterized input functions.

Beam position scheduling constitutes a fundamental component in phased array radar operation, implemented through sophisticated beamforming algorithms that calculate phase shifts across array elements. The core scheduling logic employs optimization techniques such as greedy algorithms or genetic algorithms to maximize radar coverage while minimizing scanning intervals. Key functions include beam dwell time calculation, interference avoidance mechanisms, and priority-based target tracking protocols, all managed through a central scheduler class with configurable timing parameters.

The simulation environment serves as a critical development tool for validating radar performance under various operational scenarios. Through Monte Carlo simulations and scenario testing, engineers can evaluate system robustness, identify potential bottlenecks in beam switching latency, and optimize resource allocation strategies. The codebase includes diagnostic modules for analyzing beam positioning accuracy, coverage gaps, and real-time computational load distribution across processing units.