PFM (piezoresponse force microscopy)-aided design for molecular ferroelectrics

With prosperity, decay, and another spring, molecular ferroelectrics have passed a hundred years since Valasek first discovered ferroelectricity in the molecular compound Rochelle salt. Recently, the proposal of ferroelectrochemistry has injected new vigor into this century-old research field. It sh...

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Published inChemical Society reviews Vol. 5; no. 14; pp. 8248 - 8278
Main Authors Zhang, Han-Yue, Chen, Xiao-Gang, Tang, Yuan-Yuan, Liao, Wei-Qiang, Di, Fang-Fang, Mu, Xin, Peng, Hang, Xiong, Ren-Gen
Format Journal Article
LanguageEnglish
Published London Royal Society of Chemistry 21.07.2021
Subjects
atomic force microscopy
Crystallography
Design optimization
electronics
Ferroelectric domains
Ferroelectric materials
Ferroelectricity
Ferroelectrics
mechanics
Microscopy
Nondestructive testing
optics
Physical properties
Piezoelectricity
spring
vigor
Online AccessGet full text
ISSN0306-0012
1460-4744
1460-4744
DOI10.1039/c9cs00504h

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Abstract With prosperity, decay, and another spring, molecular ferroelectrics have passed a hundred years since Valasek first discovered ferroelectricity in the molecular compound Rochelle salt. Recently, the proposal of ferroelectrochemistry has injected new vigor into this century-old research field. It should be highlighted that piezoresponse force microscopy (PFM) technique, as a non-destructive imaging and manipulation method for ferroelectric domains at the nanoscale, can significantly speed up the design rate of molecular ferroelectrics as well as enhance the ferroelectric and piezoelectric performances relying on domain engineering. Herein, we provide a brief review of the contribution of the PFM technique toward assisting the design and performance optimization of molecular ferroelectrics. Relying on the relationship between ferroelectric domains and crystallography, together with other physical characteristics such as domain switching and piezoelectricity, we believe that the PFM technique can be effectively applied to assist the design of high-performance molecular ferroelectrics equipped with multifunctionality, and thereby facilitate their practical utilization in optics, electronics, magnetics, thermotics, and mechanics among others. Along with the rapid development of ferroelectrochemistry, piezoresponse force microscopy (PFM) with high detection speed and accuracy has become a powerful tool for screening the potential candidates for molecular ferroelectrics.
AbstractList With prosperity, decay, and another spring, molecular ferroelectrics have passed a hundred years since Valasek first discovered ferroelectricity in the molecular compound Rochelle salt. Recently, the proposal of ferroelectrochemistry has injected new vigor into this century-old research field. It should be highlighted that piezoresponse force microscopy (PFM) technique, as a non-destructive imaging and manipulation method for ferroelectric domains at the nanoscale, can significantly speed up the design rate of molecular ferroelectrics as well as enhance the ferroelectric and piezoelectric performances relying on domain engineering. Herein, we provide a brief review of the contribution of the PFM technique toward assisting the design and performance optimization of molecular ferroelectrics. Relying on the relationship between ferroelectric domains and crystallography, together with other physical characteristics such as domain switching and piezoelectricity, we believe that the PFM technique can be effectively applied to assist the design of high-performance molecular ferroelectrics equipped with multifunctionality, and thereby facilitate their practical utilization in optics, electronics, magnetics, thermotics, and mechanics among others. Along with the rapid development of ferroelectrochemistry, piezoresponse force microscopy (PFM) with high detection speed and accuracy has become a powerful tool for screening the potential candidates for molecular ferroelectrics.
With prosperity, decay, and another spring, molecular ferroelectrics have passed a hundred years since Valasek first discovered ferroelectricity in the molecular compound Rochelle salt. Recently, the proposal of ferroelectrochemistry has injected new vigor into this century-old research field. It should be highlighted that piezoresponse force microscopy (PFM) technique, as a non-destructive imaging and manipulation method for ferroelectric domains at the nanoscale, can significantly speed up the design rate of molecular ferroelectrics as well as enhance the ferroelectric and piezoelectric performances relying on domain engineering. Herein, we provide a brief review of the contribution of the PFM technique toward assisting the design and performance optimization of molecular ferroelectrics. Relying on the relationship between ferroelectric domains and crystallography, together with other physical characteristics such as domain switching and piezoelectricity, we believe that the PFM technique can be effectively applied to assist the design of high-performance molecular ferroelectrics equipped with multifunctionality, and thereby facilitate their practical utilization in optics, electronics, magnetics, thermotics, and mechanics among others.
With prosperity, decay, and another spring, molecular ferroelectrics have passed a hundred years since Valasek first discovered ferroelectricity in the molecular compound Rochelle salt. Recently, the proposal of ferroelectrochemistry has injected new vigor into this century-old research field. It should be highlighted that piezoresponse force microscopy (PFM) technique, as a non-destructive imaging and manipulation method for ferroelectric domains at the nanoscale, can significantly speed up the design rate of molecular ferroelectrics as well as enhance the ferroelectric and piezoelectric performances relying on domain engineering. Herein, we provide a brief review of the contribution of the PFM technique toward assisting the design and performance optimization of molecular ferroelectrics. Relying on the relationship between ferroelectric domains and crystallography, together with other physical characteristics such as domain switching and piezoelectricity, we believe that the PFM technique can be effectively applied to assist the design of high-performance molecular ferroelectrics equipped with multifunctionality, and thereby facilitate their practical utilization in optics, electronics, magnetics, thermotics, and mechanics among others.With prosperity, decay, and another spring, molecular ferroelectrics have passed a hundred years since Valasek first discovered ferroelectricity in the molecular compound Rochelle salt. Recently, the proposal of ferroelectrochemistry has injected new vigor into this century-old research field. It should be highlighted that piezoresponse force microscopy (PFM) technique, as a non-destructive imaging and manipulation method for ferroelectric domains at the nanoscale, can significantly speed up the design rate of molecular ferroelectrics as well as enhance the ferroelectric and piezoelectric performances relying on domain engineering. Herein, we provide a brief review of the contribution of the PFM technique toward assisting the design and performance optimization of molecular ferroelectrics. Relying on the relationship between ferroelectric domains and crystallography, together with other physical characteristics such as domain switching and piezoelectricity, we believe that the PFM technique can be effectively applied to assist the design of high-performance molecular ferroelectrics equipped with multifunctionality, and thereby facilitate their practical utilization in optics, electronics, magnetics, thermotics, and mechanics among others.
Author Chen, Xiao-Gang
Mu, Xin
Peng, Hang
Xiong, Ren-Gen
Zhang, Han-Yue
Tang, Yuan-Yuan
Liao, Wei-Qiang
Di, Fang-Fang
AuthorAffiliation Ordered Matter Science Research Center
Nanchang University
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  givenname: Ren-Gen
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Notes 10.1039/c9cs00504h
Han-Yue Zhang received her Bachelor's degree in Chemistry from Nanjing Normal University in 2018. She is currently a PhD candidate in Materials Physics and Chemistry, Southeast University, under the supervision of Prof. Ren-Gen Xiong. Her research interests include the chemical design of molecular ferroelectrics and their performance optimization under the guidelines of ferroelectrochemistry.
Professor Ren-Gen Xiong is the head of the Ordered Matter Science Research Center at Nanchang University as well as the Jiangsu Key Laboratory for Science and Applications of Molecular Ferroelectrics in the Southeast University. He has more than 200 papers as a corresponding author, including those in Science (4 articles), J. Am. Chem. Soc. (over 40 articles), Angew. Chem., Int. Ed. (16 articles), Adv. Mater. (11 articles), and Chem. Soc. Rev. (5 articles). For more than 20 years, he has been conducting research focused on the synthesis and properties of non-centrosymmetric compound, especially in the field of molecular ferroelectrics, establishing ferroelectrochemistry.
Xiao-Gang Chen received his BS degree (2016) from Southeast University Chengxian College. He is currently a PhD candidate of Material Physics and Chemistry at Southeast University and is supervised by Prof. Ren-Gen Xiong. His current research focuses on the design optimization of molecular-based ferroelectrics, especially in the field of halogen hybrid perovskites.
Hang Peng graduated from Nanchang University with a Bachelor's degree in 2019. She is currently a PhD candidate at Nanchang University under the supervision of Prof. Xiong. Her research interests are focused on host-guest inclusion ferroelectrics.
Electronic supplementary information (ESI) available. See DOI
Professor Yuan-Yuan Tang received his PhD degree from Southeast University in 2019, and then became a professor at Ordered Matter Science Research Center, Nanchang University. His current research interests focus on the rational design of molecular ferroelectrics with the help of PFM.
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Snippet With prosperity, decay, and another spring, molecular ferroelectrics have passed a hundred years since Valasek first discovered ferroelectricity in the...
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SubjectTerms atomic force microscopy
Crystallography
Design optimization
electronics
Ferroelectric domains
Ferroelectric materials
Ferroelectricity
Ferroelectrics
mechanics
Microscopy
Nondestructive testing
optics
Physical properties
Piezoelectricity
spring
vigor
Title PFM (piezoresponse force microscopy)-aided design for molecular ferroelectrics
URI https://www.proquest.com/docview/2552972113
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