Executive Summary
This thesis evaluates the fidelity of motion simulators using a deterministic simulation based on a human dynamic orientation model. It aims to optimize motion base control system parameters for six-degree-of-freedom flight simulators. Experimental pilot ratings for motion fidelity were used to validate the simulation, showing positive correlations and adaptability for optimization.
Why It Matters
This document is crucial for defense analysts involved in military training and simulation, as it details the scientific evaluation and optimization of flight simulator fidelity, directly impacting pilot readiness and training effectiveness.
Key Takeaways
- A deterministic simulation model was developed to optimize motion base control systems for flight simulators.
- Pilot ratings of motion fidelity, though inconsistent due to experience, provided a data base for simulation validation.
- The simulation demonstrated adaptability for experimental optimization of wash-out filter parameters, crucial for realistic motion cues.
- The study highlights the importance of human dynamic orientation models in enhancing simulator realism.
- The research was conducted at the Naval Postgraduate School, indicating its military relevance.
Strategic Relevance
Optimizing motion simulator fidelity directly enhances the effectiveness of military pilot training, reducing costs and risks associated with live flight hours while improving pilot proficiency and readiness for complex aircraft like the F-15. This contributes to strategic advantages in air power.