TY - JOUR
T1 - Lead-free piezoelectric materials and composites for high power density energy harvesting
AU - Maurya, Deepam
AU - Peddigari, Mahesh
AU - Kang, Min Gyu
AU - Geng, Liwei D.
AU - Sharpes, Nathan
AU - Annapureddy, Venkateswarlu
AU - Palneedi, Haribabu
AU - Sriramdas, Rammohan
AU - Yan, Yongke
AU - Song, Hyun Cheol
AU - Wang, Yu U.
AU - Ryu, Jungho
AU - Priya, Shashank
N1 - Funding Information:
M-G.K. was supported through the Air Force Office of Scientific Research (Grant No. FA9550-14-1-0376).
Funding Information:
Maurya Deepam * a) d) Peddigari Mahesh † d) Kang Min-Gyu ‡ Geng Liwei D. § Sharpes Nathan ** Annapureddy Venkateswarlu †† Palneedi Haribabu † Sriramdas Rammohan ‡ Yan Yongke ‡ Song Hyun-Cheol ‡‡ Wang Yu U. § Ryu Jungho §§ b) Priya Shashank *** c) * Bio-Inspired Materials and Devices Laboratory (BMDL) , Center for Energy Harvesting Materials and Systems (CEHMS) , Virginia Tech , Blacksburg , Virginia 24061 , USA ; and Institute for Critical Technology and Applied Science (ICTAS) , Virginia Tech , Blacksburg , Virginia 24061 , USA † Functional Ceramics Group , Korea Institute of Materials Science (KIMS) , Changwon 51508 , Republic of Korea ‡ Bio-Inspired Materials and Devices Laboratory (BMDL) , Center for Energy Harvesting Materials and Systems (CEHMS) , Virginia Tech , Blacksburg , Virginia 24061 , USA § Department of Materials Science and Engineering , Michigan Technological University , Houghton , Michigan 49931 , USA ** Communications-Electronics Research , Development and Engineering Center , US Army RDECOM , Aberdeen Proving Ground , Maryland 21005 , USA †† Department of Physics , National Institute of Technology Tiruchirappalli , Tiruchirappalli , Tamil Nadu 620015 , India ‡‡ Center for Electronic Materials , Korea Institute of Science and Technology (KIST) , Seoul 02792 , Republic of Korea §§ School of Materials Science and Engineering , Yeungnam University , Gyeongsan , Gyeongbuk 38541 , Korea *** Bio-inspired Materials and Devices Laboratory (BMDL) , Center for Energy Harvesting Materials and Systems (CEHMS) , Virginia Tech , Blacksburg, Virginia 24061 , USA ; and Materials Research Institute , Penn State , University Park , PA 16802 , USA Address all correspondence to these authors. e-mail: a) mauryad@vt.edu e-mail: b) jhryu@ynu.ac.kr e-mail: c) spriya@vt.edu d) These authors contributed equally to this work. This section of Journal of Materials Research is reserved for papers that are reviews of literature in a given area. This article has been updated since original publication. A correction notice detailing the change has also been published at doi: 10.1557/jmr.2018.227 . 22 06 2018 28 08 2018 33 16 2235 2263 07 12 2017 11 05 2018 Copyright © Materials Research Society 2018 2018 Materials Research Society
Publisher Copyright:
© 2018 Materials Research Society.
PY - 2018/8/28
Y1 - 2018/8/28
N2 - In the emerging era of Internet of Things (IoT), power sources for wireless sensor nodes in conjunction with efficient and secure wireless data transfer are required. Energy harvesting technologies are promising solution toward meeting the requirements for sustainable power sources for the IoT. In this review, we focus on approaches for harvesting stray vibrations and magnetic field due to their abundance in the environment. Piezoelectric materials and piezoelectric-magnetostrictive [magnetoelectric (ME)] composites can be used to harvest vibration and magnetic field, respectively. Currently, such harvesters use modified lead zirconate titanate (or lead-based) piezoelectric materials and ME composites. However, environmental concerns and government regulations require the development of a suitable lead-free replacement for lead-based piezoelectric materials. In the past decade, several lead-free piezoelectric compositions have been developed and demonstrated with promising piezoelectric response. This paper reviews the significant results reported on lead-free piezoelectric materials with respect to high-density energy harvesting, covering novel processing techniques for improving the piezoelectric response and temperature stability. The review of the state-of-the-art studies on vibration and magnetic field harvesting is provided and the results are used to discuss various strategies for designing high-performance energy harvesting devices.
AB - In the emerging era of Internet of Things (IoT), power sources for wireless sensor nodes in conjunction with efficient and secure wireless data transfer are required. Energy harvesting technologies are promising solution toward meeting the requirements for sustainable power sources for the IoT. In this review, we focus on approaches for harvesting stray vibrations and magnetic field due to their abundance in the environment. Piezoelectric materials and piezoelectric-magnetostrictive [magnetoelectric (ME)] composites can be used to harvest vibration and magnetic field, respectively. Currently, such harvesters use modified lead zirconate titanate (or lead-based) piezoelectric materials and ME composites. However, environmental concerns and government regulations require the development of a suitable lead-free replacement for lead-based piezoelectric materials. In the past decade, several lead-free piezoelectric compositions have been developed and demonstrated with promising piezoelectric response. This paper reviews the significant results reported on lead-free piezoelectric materials with respect to high-density energy harvesting, covering novel processing techniques for improving the piezoelectric response and temperature stability. The review of the state-of-the-art studies on vibration and magnetic field harvesting is provided and the results are used to discuss various strategies for designing high-performance energy harvesting devices.
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U2 - 10.1557/jmr.2018.172
DO - 10.1557/jmr.2018.172
M3 - Review article
AN - SCOPUS:85048894003
SN - 0884-2914
VL - 33
SP - 2235
EP - 2263
JO - Journal of Materials Research
JF - Journal of Materials Research
IS - 16
ER -