Colossal multi-resonant magnetoelectric response in Fe73.5Cu1Nb3Si13.5B9/Terfenol-D/Be-bronze/Pb(Zr,Ti)O3 structure at zero bias magnetic field

Peng, Jinshuan; Zhou, H. D.; Lu, Caijiang

doi:10.1007/s10854-017-7525-y

Cited by 1 publication

(2 citation statements)

References 27 publications

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“…Tang and Lu [38] proposed a self-biased miniature homogenous ME structure consisting of hard-processed Ni foils and a tape-cast multilayer high capacitance PZT plate. Peng et al [45] reported multi-resonant ME behavior exhibited in a zero-bias magnetic field in Fe 73.5 Cu 1 Nb 3-Si 13.5 B 9 /Terfenol-D/Be-bronze/PZT (FTBP) laminates. [39][40][41][42] Brito-Pereira et al [43] developed ME particulate composite films composed of Terfenol-D particles embedded in P(VDF-TrFE) (70/30).…”

Section: Magnetoelectric Materialsmentioning

confidence: 99%

“…The nonlinear ME effects of the voltage harmonics generation combined with magnetic fields coincided with an increase in the amplitudes of the excitation fields. Peng et al [45] reported multi-resonant ME behavior exhibited in a zero-bias magnetic field in Fe 73.5 Cu 1 Nb 3-Si 13.5 B 9 /Terfenol-D/Be-bronze/PZT (FTBP) laminates. Nine zerobiased ME peaks at 0.45-7.38 V/cmOe were obtained in the range 0-70 kHz.…”

Section: Magnetoelectric Materialsmentioning

confidence: 99%

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A Review on Piezoelectric, Magnetostrictive, and Magnetoelectric Materials and Device Technologies for Energy Harvesting Applications

2017

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In the coming era of the internet of things (IoT), wireless sensor networks that monitor, detect, and gather data will play a crucial role in advancements in public safety, human healthcare, industrial automation, and energy management. Batteries are currently the power source of choice for operating wireless network devices due to their ease of installation; however, they require periodic replacement due to capacity limitations. Within the scope of the IoT, battery maintenance of the trillion sensor nodes that may be implemented will be practically infeasible from environmental, resource, and labor cost perspectives. In considering individual self-powered sensor nodes, the idea of harvesting energy from ambient vibrations, heat, and electromagnetic waves has recently triggered noticeable research interest in the academic community. This paper gives an overview of energy harvesting materials and systems. Three main categories are presented: piezoelectric ceramics/polymers, magnetostrictive alloys, and magnetoelectric (ME) multiferroic composites. State-of-the-art harvesting materials and structures are presented with a focus on characterization, fabrication, modeling and simulation, and durability and reliability. Some perspectives and challenges for the future development of energy harvesting materials are also highlighted.

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