自共振——驱动线性和非线性静电谐振器的新范式

Danny A. Kassie, D. Elata
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引用次数: 0

摘要

我们首次通过实验证明了静电谐振器的自共振驱动。这个简单的驱动方案,从第一个周期立即锁定共振频率,谐波振荡的幅度迅速收敛到稳定的,充分发展的响应。我们证明了即使谐振器是非线性的,其共振频率受运动幅值的影响,自共振驱动方案自然地跟踪动态响应的非线性主干。我们证明了自共振驱动消除了在扫频中驱动非线性谐振器时出现的分岔不稳定性。这意味着非线性谐振器可以在大振幅下工作而不用担心不稳定。因此,自共振是一种简单而实用的替代锁相环驱动谐振器。
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Auto-Resonance - A New Paradigm for Driving Linear and Nonlinear Electrostatic Resonators
For the first time ever, we experimentally demonstrate auto-resonance driving of an electrostatic resonator. This simple driving scheme, instantaneously locks on to the resonance frequency from the very first cycle, and the amplitude of the harmonic oscillation rapidly converges to the stable, fully-developed response. We demonstrate that even if the resonator is nonlinear and its resonance frequency is affected by motion amplitude, the auto-resonance driving scheme naturally tracks the nonlinear backbone of the dynamic response. We demonstrate that auto-resonance driving eliminates the bifurcation instability, which appears when a nonlinear resonator is driven in frequency sweeps. This means that nonlinear resonators can be operated at large amplitudes without any concern of instability. Auto-resonance is therefore a simple and practical alternative to phase-lock-loop driving of resonators.
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