An Emerging Family of Piezocatalysts: 2D Piezoelectric Materials

Piezocatalysis is an emerging technique that holds great promise for the conversion of ubiquitous mechanical energy into electrochemical energy through piezoelectric effect. However, mechanical energies in natural environment (such as wind energy, water flow energy, and noise) are typically tiny, sc...

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Published inSmall (Weinheim an der Bergstrasse, Germany) Vol. 19; no. 44; pp. e2303586 - n/a
Main Authors Jin, Cheng‐Chao, Liu, Dai‐Ming, Zhang, Ling‐Xia
Format Journal Article
LanguageEnglish
Published Germany Wiley Subscription Services, Inc 01.11.2023
Subjects
2D piezoelectric materials
biomedicines
Charged particles
environmental remediations
Nanoparticles
Nanotechnology
piezocatalysis
Piezoelectricity
small‐molecule catalysis
Water flow
Wind power
biomedicines
piezocatalysis
small-molecule catalysis
piezoelectricity
2D piezoelectric materials
environmental remediations
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Abstract Piezocatalysis is an emerging technique that holds great promise for the conversion of ubiquitous mechanical energy into electrochemical energy through piezoelectric effect. However, mechanical energies in natural environment (such as wind energy, water flow energy, and noise) are typically tiny, scattered, and featured with low frequency and low power. Therefore, a high response to these tiny mechanical energies is critical to achieving high piezocatalytic performance. In comparison to nanoparticles or 1D piezoelectric materials, 2D piezoelectric materials possess characteristics such as high flexibility, easy deformation, large surface area, and rich active sites, showing more promise in future for practical applications. In this review, state‐of‐the‐art research progresses on 2D piezoelectric materials and their applications in piezocatalysis are provided. First, a detailed description of 2D piezoelectric materials are offered. Then a comprehensive summary of the piezocatalysis technique is presented and examines the piezocatalysis applications of 2D piezoelectric materials in various fields, including environmental remediation, small‐molecule catalysis, and biomedicine. Finally, the main challenges and prospects of 2D piezoelectric materials and their applications in piezocatalysis are discussed. It is expected that this review can fuel the practical application of 2D piezoelectric materials in piezocatalysis. 2D piezoelectric materials constitute a promising alternative for piezocatalysis due to their inherent advantages, such as high flexibility, large surface area, and abundant active sites. In this review, the state‐of‐the‐art research progresses on 2D piezoelectric materials and their applications in piezocatalysis are summarized. The overall goal is to inspire and accelerate the practical deployment of 2D piezoelectric materials for piezocatalytic applications.
AbstractList Piezocatalysis is an emerging technique that holds great promise for the conversion of ubiquitous mechanical energy into electrochemical energy through piezoelectric effect. However, mechanical energies in natural environment (such as wind energy, water flow energy, and noise) are typically tiny, scattered, and featured with low frequency and low power. Therefore, a high response to these tiny mechanical energies is critical to achieving high piezocatalytic performance. In comparison to nanoparticles or 1D piezoelectric materials, 2D piezoelectric materials possess characteristics such as high flexibility, easy deformation, large surface area, and rich active sites, showing more promise in future for practical applications. In this review, state‐of‐the‐art research progresses on 2D piezoelectric materials and their applications in piezocatalysis are provided. First, a detailed description of 2D piezoelectric materials are offered. Then a comprehensive summary of the piezocatalysis technique is presented and examines the piezocatalysis applications of 2D piezoelectric materials in various fields, including environmental remediation, small‐molecule catalysis, and biomedicine. Finally, the main challenges and prospects of 2D piezoelectric materials and their applications in piezocatalysis are discussed. It is expected that this review can fuel the practical application of 2D piezoelectric materials in piezocatalysis. 2D piezoelectric materials constitute a promising alternative for piezocatalysis due to their inherent advantages, such as high flexibility, large surface area, and abundant active sites. In this review, the state‐of‐the‐art research progresses on 2D piezoelectric materials and their applications in piezocatalysis are summarized. The overall goal is to inspire and accelerate the practical deployment of 2D piezoelectric materials for piezocatalytic applications.
Piezocatalysis is an emerging technique that holds great promise for the conversion of ubiquitous mechanical energy into electrochemical energy through piezoelectric effect. However, mechanical energies in natural environment (such as wind energy, water flow energy, and noise) are typically tiny, scattered, and featured with low frequency and low power. Therefore, a high response to these tiny mechanical energies is critical to achieving high piezocatalytic performance. In comparison to nanoparticles or 1D piezoelectric materials, 2D piezoelectric materials possess characteristics such as high flexibility, easy deformation, large surface area, and rich active sites, showing more promise in future for practical applications. In this review, state-of-the-art research progresses on 2D piezoelectric materials and their applications in piezocatalysis are provided. First, a detailed description of 2D piezoelectric materials are offered. Then a comprehensive summary of the piezocatalysis technique is presented and examines the piezocatalysis applications of 2D piezoelectric materials in various fields, including environmental remediation, small-molecule catalysis, and biomedicine. Finally, the main challenges and prospects of 2D piezoelectric materials and their applications in piezocatalysis are discussed. It is expected that this review can fuel the practical application of 2D piezoelectric materials in piezocatalysis.
Piezocatalysis is an emerging technique that holds great promise for the conversion of ubiquitous mechanical energy into electrochemical energy through piezoelectric effect. However, mechanical energies in natural environment (such as wind energy, water flow energy, and noise) are typically tiny, scattered, and featured with low frequency and low power. Therefore, a high response to these tiny mechanical energies is critical to achieving high piezocatalytic performance. In comparison to nanoparticles or 1D piezoelectric materials, 2D piezoelectric materials possess characteristics such as high flexibility, easy deformation, large surface area, and rich active sites, showing more promise in future for practical applications. In this review, state-of-the-art research progresses on 2D piezoelectric materials and their applications in piezocatalysis are provided. First, a detailed description of 2D piezoelectric materials are offered. Then a comprehensive summary of the piezocatalysis technique is presented and examines the piezocatalysis applications of 2D piezoelectric materials in various fields, including environmental remediation, small-molecule catalysis, and biomedicine. Finally, the main challenges and prospects of 2D piezoelectric materials and their applications in piezocatalysis are discussed. It is expected that this review can fuel the practical application of 2D piezoelectric materials in piezocatalysis.Piezocatalysis is an emerging technique that holds great promise for the conversion of ubiquitous mechanical energy into electrochemical energy through piezoelectric effect. However, mechanical energies in natural environment (such as wind energy, water flow energy, and noise) are typically tiny, scattered, and featured with low frequency and low power. Therefore, a high response to these tiny mechanical energies is critical to achieving high piezocatalytic performance. In comparison to nanoparticles or 1D piezoelectric materials, 2D piezoelectric materials possess characteristics such as high flexibility, easy deformation, large surface area, and rich active sites, showing more promise in future for practical applications. In this review, state-of-the-art research progresses on 2D piezoelectric materials and their applications in piezocatalysis are provided. First, a detailed description of 2D piezoelectric materials are offered. Then a comprehensive summary of the piezocatalysis technique is presented and examines the piezocatalysis applications of 2D piezoelectric materials in various fields, including environmental remediation, small-molecule catalysis, and biomedicine. Finally, the main challenges and prospects of 2D piezoelectric materials and their applications in piezocatalysis are discussed. It is expected that this review can fuel the practical application of 2D piezoelectric materials in piezocatalysis.
Author Liu, Dai‐Ming
Jin, Cheng‐Chao
Zhang, Ling‐Xia
Author_xml – sequence: 1
  givenname: Cheng‐Chao
  orcidid: 0000-0002-1988-5975
  surname: Jin
  fullname: Jin, Cheng‐Chao
  organization: Chinese Academy of Sciences
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  givenname: Dai‐Ming
  surname: Liu
  fullname: Liu, Dai‐Ming
  organization: Qingdao University of Science & Technology
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  givenname: Ling‐Xia
  orcidid: 0000-0002-5012-7283
  surname: Zhang
  fullname: Zhang, Ling‐Xia
  email: zhlingxia@mail.sic.ac.cn
  organization: Chinese Academy of Sciences
BackLink https://www.ncbi.nlm.nih.gov/pubmed/37386814$$D View this record in MEDLINE/PubMed
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Snippet Piezocatalysis is an emerging technique that holds great promise for the conversion of ubiquitous mechanical energy into electrochemical energy through...
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SubjectTerms 2D piezoelectric materials
biomedicines
Charged particles
environmental remediations
Nanoparticles
Nanotechnology
piezocatalysis
Piezoelectricity
small‐molecule catalysis
Water flow
Wind power
Title An Emerging Family of Piezocatalysts: 2D Piezoelectric Materials
URI https://onlinelibrary.wiley.com/doi/abs/10.1002%2Fsmll.202303586
https://www.ncbi.nlm.nih.gov/pubmed/37386814
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Volume 19
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