Citation Issues in Wave Mechanics Theory of Microwave Absorption

TL;DR

This paper critiques traditional microwave absorption theories, highlighting citation neglect and logical flaws, and proposes a wave mechanics approach that improves understanding and design of thin-film microwave absorbers.

Contribution

It introduces a wave mechanics framework for microwave absorption that corrects misconceptions and provides validated design principles, challenging established impedance-matching paradigms.

Findings

Widespread citation neglect of alternative theories.

Logical flaws in impedance-matching models.

Wave interference governs absorption, ensuring energy conservation.

Abstract

The wave mechanics theory of microwave absorption challenges the long-standing impedance-matching and quarter-wavelength paradigms by demonstrating that conventional models mistakenly conflate bulk material parameters with thin-film phenomena. Drawing on a corpus of 35 peer-reviewed papers and preprints, the study performs a citation-pattern analysis and a logical audit of established theory. Results reveal a striking asymmetry in scholarly engagement, only a handful of supportive or neutral citations appear amid widespread silence, alongside critical logical flaws in impedance matching, notably its inconsistent treatment of penetration, reflection, and absorption from film. By re-framing absorption as a wave-mechanics process governed by interference at parallel interfaces, the wave mechanics framework restores energy-conservation consistency and provides experimentally verified design rules for film thickness, phase response, and broadband performance. The paper further situates the citation neglect within broader issues of peer-review bias and paradigm inertia, illustrating how cargo-cult scientific practices can impede theoretical progress. Recommendations are offered for researchers, editors, and institutions to foster open discourse, rigorously test competing models, and update curricula and design tools accordingly.