Develops a unified first-principles theory for quartz tuning fork resonators that explains electrical resonance spectra beyond mechanical eigenmodes alone and unifies prior descriptions.
Unified Theory of Quartz Tuning Fork Resonators
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abstract
Quartz tuning forks, functioning as electrically driven piezoelectric resonators, have long served as exceptionally stable and widely adopted timing references in diverse domains of research and industry. Yet, experimentally measured electrical resonance spectra often exhibit resonance evolutions that remain unexplained within existing theoretical descriptions. Here we develop a unified continuum electromechanical modal framework that integrates piezoelectric electrodynamics, variational structural dynamics, and symmetry-selected electromechanical observability. Our theory shows quantitative agreement with experimental results, demonstrating that electrical observability emerges not from the underlying mechanical eigenmodes alone. The resulting framework unifies conventional coupled-oscillator, equivalent-circuit, and continuum descriptions within a single first-principles theory and provides a rigorous basis for precision electromechanical characterization.
fields
physics.class-ph 1years
2026 1verdicts
UNVERDICTED 1representative citing papers
citing papers explorer
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Unified Theory of Quartz Tuning Fork Resonators
Develops a unified first-principles theory for quartz tuning fork resonators that explains electrical resonance spectra beyond mechanical eigenmodes alone and unifies prior descriptions.