Piezoelectric Materials for Energy Harvesting and Sensing Applications: Roadmap for Future Smart Materials

Piezoelectric materials are widely referred to as “smart” materials because they can transduce mechanical pressure acting on them to electrical signals and vice versa. They are extensively utilized in harvesting mechanical energy from vibrations, human motion, mechanical loads, etc., and converting...

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Vydáno v:	Advanced science Ročník 8; číslo 17; s. e2100864 - n/a
Hlavní autoři:	Mahapatra, Susmriti Das, Mohapatra, Preetam Chandan, Aria, Adrianus Indrat, Christie, Graham, Mishra, Yogendra Kumar, Hofmann, Stephan, Thakur, Vijay Kumar
Médium:	Journal Article
Jazyk:	angličtina
Vydáno:	Germany John Wiley & Sons, Inc 01.09.2021 John Wiley and Sons Inc Wiley
Témata:	Alternative energy sources Aqueous solutions Biosensing Techniques - methods Electric Power Supplies energy harvesting Energy resources Equipment Design - methods flexible devices Internet of Things Nanocomposites Nanostructured materials Nanotechnology - methods Nanowires Photovoltaic cells piezoelectric nanogenerator polymer nanocomposites polyvinylidene fluoride copolymers Review Reviews Sensors Smart Materials Wireless communications Zinc oxides energy harvesting flexible devices polymer nanocomposites piezoelectric nanogenerator polyvinylidene fluoride copolymers nanostructured materials
ISSN:	2198-3844, 2198-3844
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Abstract	Piezoelectric materials are widely referred to as “smart” materials because they can transduce mechanical pressure acting on them to electrical signals and vice versa. They are extensively utilized in harvesting mechanical energy from vibrations, human motion, mechanical loads, etc., and converting them into electrical energy for low power devices. Piezoelectric transduction offers high scalability, simple device designs, and high‐power densities compared to electro‐magnetic/static and triboelectric transducers. This review aims to give a holistic overview of recent developments in piezoelectric nanostructured materials, polymers, polymer nanocomposites, and piezoelectric films for implementation in energy harvesting. The progress in fabrication techniques, morphology, piezoelectric properties, energy harvesting performance, and underpinning fundamental mechanisms for each class of materials, including polymer nanocomposites using conducting, non‐conducting, and hybrid fillers are discussed. The emergent application horizon of piezoelectric energy harvesters particularly for wireless devices and self‐powered sensors is highlighted, and the current challenges and future prospects are critically discussed. This paper presents a comprehensive review of the energy harvesting performance of different types of piezoelectric materials. These materials include nanostructured materials, polymers, polymer nanocomposites synthesized using different types of fillers and piezoelectric films. The fabrication techniques, energy harvesting mechanisms, and applications of piezoelectric nanogenerators built using these materials are discussed thoroughly.
AbstractList	Piezoelectric materials are widely referred to as “smart” materials because they can transduce mechanical pressure acting on them to electrical signals and vice versa. They are extensively utilized in harvesting mechanical energy from vibrations, human motion, mechanical loads, etc., and converting them into electrical energy for low power devices. Piezoelectric transduction offers high scalability, simple device designs, and high‐power densities compared to electro‐magnetic/static and triboelectric transducers. This review aims to give a holistic overview of recent developments in piezoelectric nanostructured materials, polymers, polymer nanocomposites, and piezoelectric films for implementation in energy harvesting. The progress in fabrication techniques, morphology, piezoelectric properties, energy harvesting performance, and underpinning fundamental mechanisms for each class of materials, including polymer nanocomposites using conducting, non‐conducting, and hybrid fillers are discussed. The emergent application horizon of piezoelectric energy harvesters particularly for wireless devices and self‐powered sensors is highlighted, and the current challenges and future prospects are critically discussed. This paper presents a comprehensive review of the energy harvesting performance of different types of piezoelectric materials. These materials include nanostructured materials, polymers, polymer nanocomposites synthesized using different types of fillers and piezoelectric films. The fabrication techniques, energy harvesting mechanisms, and applications of piezoelectric nanogenerators built using these materials are discussed thoroughly. Piezoelectric materials are widely referred to as “smart” materials because they can transduce mechanical pressure acting on them to electrical signals and vice versa. They are extensively utilized in harvesting mechanical energy from vibrations, human motion, mechanical loads, etc., and converting them into electrical energy for low power devices. Piezoelectric transduction offers high scalability, simple device designs, and high‐power densities compared to electro‐magnetic/static and triboelectric transducers. This review aims to give a holistic overview of recent developments in piezoelectric nanostructured materials, polymers, polymer nanocomposites, and piezoelectric films for implementation in energy harvesting. The progress in fabrication techniques, morphology, piezoelectric properties, energy harvesting performance, and underpinning fundamental mechanisms for each class of materials, including polymer nanocomposites using conducting, non‐conducting, and hybrid fillers are discussed. The emergent application horizon of piezoelectric energy harvesters particularly for wireless devices and self‐powered sensors is highlighted, and the current challenges and future prospects are critically discussed. Piezoelectric materials are widely referred to as “smart” materials because they can transduce mechanical pressure acting on them to electrical signals and vice versa. They are extensively utilized in harvesting mechanical energy from vibrations, human motion, mechanical loads, etc., and converting them into electrical energy for low power devices. Piezoelectric transduction offers high scalability, simple device designs, and high‐power densities compared to electro‐magnetic/static and triboelectric transducers. This review aims to give a holistic overview of recent developments in piezoelectric nanostructured materials, polymers, polymer nanocomposites, and piezoelectric films for implementation in energy harvesting. The progress in fabrication techniques, morphology, piezoelectric properties, energy harvesting performance, and underpinning fundamental mechanisms for each class of materials, including polymer nanocomposites using conducting, non‐conducting, and hybrid fillers are discussed. The emergent application horizon of piezoelectric energy harvesters particularly for wireless devices and self‐powered sensors is highlighted, and the current challenges and future prospects are critically discussed. This paper presents a comprehensive review of the energy harvesting performance of different types of piezoelectric materials. These materials include nanostructured materials, polymers, polymer nanocomposites synthesized using different types of fillers and piezoelectric films. The fabrication techniques, energy harvesting mechanisms, and applications of piezoelectric nanogenerators built using these materials are discussed thoroughly. Abstract Piezoelectric materials are widely referred to as “smart” materials because they can transduce mechanical pressure acting on them to electrical signals and vice versa. They are extensively utilized in harvesting mechanical energy from vibrations, human motion, mechanical loads, etc., and converting them into electrical energy for low power devices. Piezoelectric transduction offers high scalability, simple device designs, and high‐power densities compared to electro‐magnetic/static and triboelectric transducers. This review aims to give a holistic overview of recent developments in piezoelectric nanostructured materials, polymers, polymer nanocomposites, and piezoelectric films for implementation in energy harvesting. The progress in fabrication techniques, morphology, piezoelectric properties, energy harvesting performance, and underpinning fundamental mechanisms for each class of materials, including polymer nanocomposites using conducting, non‐conducting, and hybrid fillers are discussed. The emergent application horizon of piezoelectric energy harvesters particularly for wireless devices and self‐powered sensors is highlighted, and the current challenges and future prospects are critically discussed. Piezoelectric materials are widely referred to as "smart" materials because they can transduce mechanical pressure acting on them to electrical signals and vice versa. They are extensively utilized in harvesting mechanical energy from vibrations, human motion, mechanical loads, etc., and converting them into electrical energy for low power devices. Piezoelectric transduction offers high scalability, simple device designs, and high-power densities compared to electro-magnetic/static and triboelectric transducers. This review aims to give a holistic overview of recent developments in piezoelectric nanostructured materials, polymers, polymer nanocomposites, and piezoelectric films for implementation in energy harvesting. The progress in fabrication techniques, morphology, piezoelectric properties, energy harvesting performance, and underpinning fundamental mechanisms for each class of materials, including polymer nanocomposites using conducting, non-conducting, and hybrid fillers are discussed. The emergent application horizon of piezoelectric energy harvesters particularly for wireless devices and self-powered sensors is highlighted, and the current challenges and future prospects are critically discussed.Piezoelectric materials are widely referred to as "smart" materials because they can transduce mechanical pressure acting on them to electrical signals and vice versa. They are extensively utilized in harvesting mechanical energy from vibrations, human motion, mechanical loads, etc., and converting them into electrical energy for low power devices. Piezoelectric transduction offers high scalability, simple device designs, and high-power densities compared to electro-magnetic/static and triboelectric transducers. This review aims to give a holistic overview of recent developments in piezoelectric nanostructured materials, polymers, polymer nanocomposites, and piezoelectric films for implementation in energy harvesting. The progress in fabrication techniques, morphology, piezoelectric properties, energy harvesting performance, and underpinning fundamental mechanisms for each class of materials, including polymer nanocomposites using conducting, non-conducting, and hybrid fillers are discussed. The emergent application horizon of piezoelectric energy harvesters particularly for wireless devices and self-powered sensors is highlighted, and the current challenges and future prospects are critically discussed.
Author	Thakur, Vijay Kumar Aria, Adrianus Indrat Mishra, Yogendra Kumar Mohapatra, Preetam Chandan Hofmann, Stephan Mahapatra, Susmriti Das Christie, Graham
AuthorAffiliation	4 Mads Clausen Institute NanoSYD University of Southern Denmark Alsion 2 Sønderborg 6400 Denmark 1 Technology & Manufacturing Group Intel Corporation 5000 West Chandler Boulevard Chandler Arizona 85226 USA 2 Surface Engineering and Precision Centre School of Aerospace Transport and Manufacturing Cranfield University Cranfield MK43 0AL UK 6 Biorefining and Advanced Materials Research Center Scotland's Rural College (SRUC) Kings Buildings Edinburgh EH9 3JG UK 3 Institute of Biotechnology Department of Chemical Engineering and Biotechnology University of Cambridge Cambridge CB2 1QT UK 7 Department of Mechanical Engineering School of Engineering Shiv Nadar University Delhi Uttar Pradesh 201314 India 5 Division of Electrical Engineering Department of Engineering University of Cambridge Cambridge CB2 1PZ UK
AuthorAffiliation_xml	– name: 7 Department of Mechanical Engineering School of Engineering Shiv Nadar University Delhi Uttar Pradesh 201314 India – name: 5 Division of Electrical Engineering Department of Engineering University of Cambridge Cambridge CB2 1PZ UK – name: 6 Biorefining and Advanced Materials Research Center Scotland's Rural College (SRUC) Kings Buildings Edinburgh EH9 3JG UK – name: 2 Surface Engineering and Precision Centre School of Aerospace Transport and Manufacturing Cranfield University Cranfield MK43 0AL UK – name: 1 Technology & Manufacturing Group Intel Corporation 5000 West Chandler Boulevard Chandler Arizona 85226 USA – name: 3 Institute of Biotechnology Department of Chemical Engineering and Biotechnology University of Cambridge Cambridge CB2 1QT UK – name: 4 Mads Clausen Institute NanoSYD University of Southern Denmark Alsion 2 Sønderborg 6400 Denmark
Author_xml	– sequence: 1 givenname: Susmriti Das surname: Mahapatra fullname: Mahapatra, Susmriti Das organization: Intel Corporation – sequence: 2 givenname: Preetam Chandan surname: Mohapatra fullname: Mohapatra, Preetam Chandan organization: Intel Corporation – sequence: 3 givenname: Adrianus Indrat surname: Aria fullname: Aria, Adrianus Indrat organization: Cranfield University – sequence: 4 givenname: Graham surname: Christie fullname: Christie, Graham organization: University of Cambridge – sequence: 5 givenname: Yogendra Kumar surname: Mishra fullname: Mishra, Yogendra Kumar email: mishra@mci.sdu.dk organization: University of Southern Denmark – sequence: 6 givenname: Stephan surname: Hofmann fullname: Hofmann, Stephan email: sh315@cam.ac.uk organization: University of Cambridge – sequence: 7 givenname: Vijay Kumar orcidid: 0000-0002-0790-2264 surname: Thakur fullname: Thakur, Vijay Kumar email: Vijay.thakur@sruc.ac.uk, Vijay.thakur@snu.edu.in organization: Shiv Nadar University
BackLink	https://www.ncbi.nlm.nih.gov/pubmed/34254467$$D View this record in MEDLINE/PubMed
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Snippet	Piezoelectric materials are widely referred to as “smart” materials because they can transduce mechanical pressure acting on them to electrical signals and... Piezoelectric materials are widely referred to as "smart" materials because they can transduce mechanical pressure acting on them to electrical signals and... Abstract Piezoelectric materials are widely referred to as “smart” materials because they can transduce mechanical pressure acting on them to electrical...
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SubjectTerms	Alternative energy sources Aqueous solutions Biosensing Techniques - methods Electric Power Supplies energy harvesting Energy resources Equipment Design - methods flexible devices Internet of Things Nanocomposites Nanostructured materials Nanotechnology - methods Nanowires Photovoltaic cells piezoelectric nanogenerator polymer nanocomposites polyvinylidene fluoride copolymers Review Reviews Sensors Smart Materials Wireless communications Zinc oxides
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Title	Piezoelectric Materials for Energy Harvesting and Sensing Applications: Roadmap for Future Smart Materials
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