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Energy Harvesters and Self-powered Sensors for Smart Electronics

Energy Harvesters and Self-powered Sensors for Smart Electronics

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This book is a printed edition of the Special Issue “Energy Harvesters and Self-Powered Sensors for Smart Electronics” that was published in Micromachines, which showcases the rapid development of various energy harvesting technologies and novel devices. In the current 5G and Internet of Things (IoT) era, energy demand for numerous and widely distributed IoT nodes has greatly driven the innovation of various energy harvesting technologies, providing key functionalities as energy harvesters (i.e., sustainable power supplies) and/or self-powered sensors for diverse IoT systems. Accordingly, this book includes one editorial and nine research articles to explore different aspects of energy harvesting technologies such as electromagnetic energy harvesters, piezoelectric energy harvesters, and hybrid energy harvesters. The mechanism design, structural optimization, performance improvement, and a wide range of energy harvesting and self-powered monitoring applications have been involved. This book can serve as a guidance for researchers and students who would like to know more about the device design, optimization, and applications of different energy harvesting technologies.

This book is included in DOAB.

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Keywords

  • bimetallic effect
  • broadband
  • diamagnetically stabilized levitation
  • Economics, finance, business & management
  • Electromagnetic
  • electromagnetic energy harvester
  • electromagnetic generator (EMG)
  • energy harvester
  • Energy harvesting
  • FEM
  • flowing water
  • high performance
  • human body kinetic energy
  • hybrid energy harvester
  • Industry & industrial studies
  • Information technology industries
  • low frequency
  • magnetic coupling
  • maximum gap
  • Media, information & communication industries
  • modeling
  • n/a
  • nonlinear
  • optimization
  • pattern search
  • piezoelectric
  • piezoelectric energy harvester
  • piezoelectric vibration energy harvester
  • piezoelectricity
  • power density improvement
  • PZT
  • resonant frequency
  • stable levitation
  • Taguchi method
  • tandem
  • temperature threshold
  • Vibration
  • vibration energy harvesting
  • vibrational cantilever
  • vortex-induced vibration
  • wideband

Links

DOI: 10.3390/books978-3-0365-2674-4

Editions

edition cover

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