Aircraft Navigation: Design Theory for A Self-Organizing, High Accuracy Navigation System
V. J. Burns
Abstract
V. J. Burns
Abstract
Aircraft navigation system accuracy can be optimized by proper integration of present subsystems. The Loran-C coordinate converter is a new tool which facilitates the system integration task. Certain navigation devices, e.g., a doppler-free-gyro subsystem, are calibrated in-flight to yield a much better total navigation system. Self-organizing features are included to perform simple decision-making functions automatically and thus, release the human navigator for more important tasks. The self-organizing navigation system concept shows great promise as the navigation system of the future.
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Aircraft navigation system accuracy can be optimized by proper integration of present subsystems. The Loran-C coordinate converter is a new tool which facilitates the system integration task. Certain navigation devices, e.g., a doppler-free-gyro subsystem, are calibrated in-flight to yield a much better total navigation system. Self-organizing features are included to perform simple decision-making functions automatically and thus, release the human navigator for more important tasks. The self-organizing navigation system concept shows great promise as the navigation system of the future.
Key concepts: Navigation system, Radio navigation, Task (project management), Computer science, Air navigation, Satellite navigation, Mobile robot navigation, Simple (philosophy)