E. Prigge

Vaughn College of Aeronautics and Technology

Papers

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About

E. Prigge has made pioneering contributions to indoor mobile robot localization, specializing in magnetic positioning systems that overcome the limitations of traditional line-of-sight sensors. Their key research areas include absolute position and attitude sensing, signal architecture design, and building-wide localization for autonomous vehicles operating in cluttered environments such as offices and warehouses. Prigge’s most influential work, “Signal Architecture for a Distributed Magnetic Local Positioning System” (2004), has garnered 79 citations and demonstrates how extremely-low frequency magnetic fields can penetrate obstacles to provide robust, accurate positioning without requiring clear lines of sight. This breakthrough addresses a critical challenge in mobile robotics: achieving reliable navigation in complex, real-world settings where optical or ultrasonic sensors often fail. An earlier foundational paper, “An indoor absolute positioning system with no line of sight restrictions and building-wide coverage” (2002), laid the groundwork for this approach, emphasizing workspace coverage and robustness. Prigge’s research has directly impacted the development of autonomous systems for logistics, manufacturing, and service robotics, offering a practical solution for continuous, high-precision localization. Their work remains a key reference for engineers and researchers seeking to deploy mobile robots in GPS-denied indoor environments.