Energy efficient active vibration control strategies using electromagnetic linear actuators

Energy efficient current control methods in electromagnetic linear actuators are required to minimize the electrical power requirements imposed by active vibration control strategies. In this paper an efficient bidirectional buck-boost converter is discussed in two scenarios: an active vibration iso...

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Veröffentlicht in:Journal of physics. Conference series 2018-06, Vol.1048 (1), p.12011
Hauptverfasser: Torres-Perez, Angel, Hassan, Ali, Kaczmarczyk, Stefan, Picton, Phil
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Hassan, Ali
Kaczmarczyk, Stefan
Picton, Phil
description Energy efficient current control methods in electromagnetic linear actuators are required to minimize the electrical power requirements imposed by active vibration control strategies. In this paper an efficient bidirectional buck-boost converter is discussed in two scenarios: an active vibration isolation system and an active dynamic vibration absorber ( ADVA ) using a voice coil motor (VCM) actuator. An electrical analogous circuit of an experimental test platform is used as part of the simulation model. This test platform is based on a vibration shaker that provides the based excitation required for the single Degree of-Freedom (1DoF) vibration model under study. The proposed bidirectional non-isolated buck-boost converter can recover the energy when the VCM acts as a generator and store it for future use. Simulation results prove that this type of topology is far more efficient than linear amplifiers typically used in active vibration control. Within the context of slender structures, this efficient current control method improves the viability of using active vibration control in flexible structures such as beams.
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subjects Active control
active DVA
Actuators
bidirectional DC converters
buck-boost
Circuits
Coils
Control methods
Converters
Flexible structures
Linear amplifiers
Model testing
Physics
switching power amplifier
Topology
Vibration control
voice coil motors
title Energy efficient active vibration control strategies using electromagnetic linear actuators
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