
doi: 10.1121/1.4824347
pmid: 24180767
This paper provides a simple, practical definition of the coupling coefficient for electrodynamic transducers. Comparing to efforts made in previous works that assumed a lossless spring-inductor model, the definition presented here is based on a lossy mass-inductor model. Time-harmonic analysis is used to model the energy flow in the transducer. Both energy storage and energy dissipation are included in the electrodynamic coupling coefficient definition. An in-depth discussion is provided to explain and justify the derivation and overall methodology. This definition is expected to provide a useful and practical measure of the electromechanical energy conversion performance of electrodynamic transducers, both actuators and generators.
Engineering, Magnetic Fields, Time Factors, Energy Transfer, Transducers, Electric Conductivity, Equipment Design, Models, Theoretical
Engineering, Magnetic Fields, Time Factors, Energy Transfer, Transducers, Electric Conductivity, Equipment Design, Models, Theoretical
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