Detail publikace
Verification of Vibration Power Generator Model for Prediction of Harvested Power
HADAŠ, Z. SINGULE, V. ONDRŮŠEK, Č.
Český název
Verification of Vibration Power Generator Model for Prediction of Harvested Power
Anglický název
Verification of Vibration Power Generator Model for Prediction of Harvested Power
Typ
článek v časopise ve Web of Science, Jimp
Jazyk
en
Originální abstrakt
This paper deals with simulation modelling of a vibration power generator and verification of a complex generator model for prediction of harvested power. The vibration power generator is an electromagnetic energy harvesting device which uses an ambient energy on mechanical vibrations for generating useful electrical energy. This energy harvesting device presents a complex mechatronic system and it consists of resonance mechanism, electromechanical converter, power management (electronics and energy storage) and powered device. When this system is placed in environment with sufficient mechanical vibration, the generator harvests energy and it can be use as autonomous source of electrical energy for powering of wireless sensors or remote application in this environment. The verified simulation model of this device can provide a prediction of possible harvested power without any physical position of this device in a vibratory environment, only acceleration measurement is used as input.
Český abstrakt
This paper deals with simulation modelling of a vibration power generator and verification of a complex generator model for prediction of harvested power. The vibration power generator is an electromagnetic energy harvesting device which uses an ambient energy on mechanical vibrations for generating useful electrical energy. This energy harvesting device presents a complex mechatronic system and it consists of resonance mechanism, electromechanical converter, power management (electronics and energy storage) and powered device. When this system is placed in environment with sufficient mechanical vibration, the generator harvests energy and it can be use as autonomous source of electrical energy for powering of wireless sensors or remote application in this environment. The verified simulation model of this device can provide a prediction of possible harvested power without any physical position of this device in a vibratory environment, only acceleration measurement is used as input.
Anglický abstrakt
This paper deals with simulation modelling of a vibration power generator and verification of a complex generator model for prediction of harvested power. The vibration power generator is an electromagnetic energy harvesting device which uses an ambient energy on mechanical vibrations for generating useful electrical energy. This energy harvesting device presents a complex mechatronic system and it consists of resonance mechanism, electromechanical converter, power management (electronics and energy storage) and powered device. When this system is placed in environment with sufficient mechanical vibration, the generator harvests energy and it can be use as autonomous source of electrical energy for powering of wireless sensors or remote application in this environment. The verified simulation model of this device can provide a prediction of possible harvested power without any physical position of this device in a vibratory environment, only acceleration measurement is used as input.
Klíčová slova česky
Mechatronics, Simulation Modelling, Simulink, Energy Harvesting, Electro-mechanical Conversion, Vibration Power Generator.
Klíčová slova anglicky
Mechatronics, Simulation Modelling, Simulink, Energy Harvesting, Electro-mechanical Conversion, Vibration Power Generator.
Rok RIV
2010
Vydáno
11.05.2010
Nakladatel
Trans Tech Publications
Místo
Zurich, Switzerland
ISSN
1012-0394
Časopis
Solid State Phenomena
Ročník
2010
Číslo
164
Strany od–do
291–296
Počet stran
6
BIBTEX
@article{BUT48698,
author="Zdeněk {Hadaš} and Vladislav {Singule} and Čestmír {Ondrůšek},
title="Verification of Vibration Power Generator Model for Prediction of Harvested Power",
journal="Solid State Phenomena",
year="2010",
volume="2010",
number="164",
month="May",
pages="291--296",
publisher="Trans Tech Publications",
address="Zurich, Switzerland",
issn="1012-0394"
}