On theoretical and experimental study of a two-degree-of-freedom anti-resonance floating vibration isolation system
Chunrong Liu, Daolin Xu, Jiaxi Zhou, Steve Bishop
Abstract
Chunrong Liu, Daolin Xu, Jiaxi Zhou, Steve Bishop
Abstract
A two-degree-of-freedom floating vibration isolator (TDOFFVI) based on an anti-resonance mechanism is presented. This isolator has two tunable anti-resonance frequencies capable of attenuating vibrations at one or two frequency excitations simultaneously. A mathematical model of the TDOFFVI is developed. The force transmissibility and the anti-resonance frequencies in conjunction with design parameters are formulated and the optimal design of the TDOFFVI is given. A physical prototype of the TDOFFVI has been designed, built and tested. The experimental results validate the theoretical analysis and show that the TDOFFVI can perform effectively in vibration isolation.
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A two-degree-of-freedom floating vibration isolator (TDOFFVI) based on an anti-resonance mechanism is presented. This isolator has two tunable anti-resonance frequencies capable of attenuating vibrations at one or two frequency excitations simultaneously. A mathematical model of the TDOFFVI is developed. The force transmissibility and the anti-resonance frequencies in conjunction with design parameters are formulated and the optimal design of the TDOFFVI is given. A physical prototype of the TDOFFVI has been designed, built and tested. The experimental results validate the theoretical analysis and show that the TDOFFVI can perform effectively in vibration isolation.
Key concepts: Transmissibility (structural dynamics), Vibration isolation, Resonance (particle physics), Vibration, Isolator, Dynamic Vibration Absorber, Acoustics, Engineering