James F. Kenney

Stanford University, Boeing (United States)

Papers

Total Citations

H-Index

About

James F. Kenney is a researcher specializing in electromagnetic sensing and nondestructive evaluation, with particular expertise in eddy-current probe technology and sensor array design. His most significant contributions center on the theoretical and experimental characterization of reflection-type eddy-current probes, work that bridges fundamental electromagnetic theory with practical engineering applications. Kenney's development of a generalized ΔZ theory for reflection-type eddy-current probes represented a meaningful advance in the field, enabling more precise characterization of surface-connected flaws in conductive materials — a critical capability in industrial inspection and quality assurance contexts. Notably, this framework was also applied to the design of robotic proximity sensors, demonstrating the broader utility of his theoretical models beyond traditional nondestructive testing. His 1989 studies on eddy-current reflection probes, combining finite-difference computational methods with experimental validation, have accumulated citations across multiple publication venues, reflecting their enduring relevance to the electromagnetics and sensing communities. His earlier 1986 work on electromagnetic sensor arrays further established his role in advancing multi-sensor electromagnetic measurement systems. Kenney's research remains a foundational reference for engineers and scientists working on electromagnetic flaw detection and sensor development.