Flexible and printable dielectric polymer composite with tunable permittivity and thermal stability
Lightweight and printable polymer dielectrics are ubiquitous in flexible hybrid electronics, exhibiting high breakdown strength and mechanical reliability. However, their advanced electronic applications are limited due to their relatively low permittivity, compared to their ceramic counterparts. He...
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| Published in | Chemical communications (Cambridge, England) Vol. 56; no. 15; pp. 2332 - 2335 |
|---|---|
| Main Authors | , , , , , , , , , |
| Format | Journal Article |
| Language | English |
| Published |
England
Royal Society of Chemistry
20.02.2020
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| Subjects | |
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| Abstract | Lightweight and printable polymer dielectrics are ubiquitous in flexible hybrid electronics, exhibiting high breakdown strength and mechanical reliability. However, their advanced electronic applications are limited due to their relatively low permittivity, compared to their ceramic counterparts. Here, we report flexible all organic percolative nanocomposites that contain
in situ
grown conductive polymer networks and dielectric polymer matrix, in which their dielectric properties can be designed and guided from the percolation theory. High dielectric constant of all organic percolative nanocomposites is shown over a broad frequency range under intensive bending cycles, while their thermal stability is attributed to thermally conductive 2D montmorillonite nanosheets. The printable polymer composites with high dielectric performance and thermal stability will find broader interest in flexible hybrid electronics and radio frequency devices.
A printable dielectric polymer composite with enhanced dielectric constant and thermal stability. |
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| AbstractList | Lightweight and printable polymer dielectrics are ubiquitous in flexible hybrid electronics, exhibiting high breakdown strength and mechanical reliability. However, their advanced electronic applications are limited due to their relatively low permittivity, compared to their ceramic counterparts. Here, we report flexible all organic percolative nanocomposites that contain
in situ
grown conductive polymer networks and dielectric polymer matrix, in which their dielectric properties can be designed and guided from the percolation theory. High dielectric constant of all organic percolative nanocomposites is shown over a broad frequency range under intensive bending cycles, while their thermal stability is attributed to thermally conductive 2D montmorillonite nanosheets. The printable polymer composites with high dielectric performance and thermal stability will find broader interest in flexible hybrid electronics and radio frequency devices.
A printable dielectric polymer composite with enhanced dielectric constant and thermal stability. Lightweight and printable polymer dielectrics are ubiquitous in flexible hybrid electronics, exhibiting high breakdown strength and mechanical reliability. However, their advanced electronic applications are limited due to their relatively low permittivity, compared to their ceramic counterparts. Here, we report flexible all organic percolative nanocomposites that contain in situ grown conductive polymer networks and dielectric polymer matrix, in which their dielectric properties can be designed and guided from the percolation theory. High dielectric constant of all organic percolative nanocomposites is shown over a broad frequency range under intensive bending cycles, while their thermal stability is attributed to thermally conductive 2D montmorillonite nanosheets. The printable polymer composites with high dielectric performance and thermal stability will find broader interest in flexible hybrid electronics and radio frequency devices.Lightweight and printable polymer dielectrics are ubiquitous in flexible hybrid electronics, exhibiting high breakdown strength and mechanical reliability. However, their advanced electronic applications are limited due to their relatively low permittivity, compared to their ceramic counterparts. Here, we report flexible all organic percolative nanocomposites that contain in situ grown conductive polymer networks and dielectric polymer matrix, in which their dielectric properties can be designed and guided from the percolation theory. High dielectric constant of all organic percolative nanocomposites is shown over a broad frequency range under intensive bending cycles, while their thermal stability is attributed to thermally conductive 2D montmorillonite nanosheets. The printable polymer composites with high dielectric performance and thermal stability will find broader interest in flexible hybrid electronics and radio frequency devices. Lightweight and printable polymer dielectrics are ubiquitous in flexible hybrid electronics, exhibiting high breakdown strength and mechanical reliability. However, their advanced electronic applications are limited due to their relatively low permittivity, compared to their ceramic counterparts. Here, we report flexible all organic percolative nanocomposites that contain in situ grown conductive polymer networks and dielectric polymer matrix, in which their dielectric properties can be designed and guided from the percolation theory. High dielectric constant of all organic percolative nanocomposites is shown over a broad frequency range under intensive bending cycles, while their thermal stability is attributed to thermally conductive 2D montmorillonite nanosheets. The printable polymer composites with high dielectric performance and thermal stability will find broader interest in flexible hybrid electronics and radio frequency devices. Lightweight and printable polymer dielectrics are ubiquitous in flexible hybrid electronics, exhibiting high breakdown strength and mechanical reliability. However, their advanced electronic applications are limited due to their relatively low permittivity, compared to their ceramic counterparts. Here, we report flexible all organic percolative nanocomposites that contain in situ grown conductive polymer networks and dielectric polymer matrix, in which their dielectric properties can be designed and guided from the percolation theory. High dielectric constant of all organic percolative nanocomposites is shown over a broad frequency range under intensive bending cycles, while their thermal stability is attributed to thermally conductive 2D montmorillonite nanosheets. The printable polymer composites with high dielectric performance and thermal stability will find broader interest in flexible hybrid electronics and radio frequency devices. |
| Author | Hu, Yong Armstrong, Jason Zhou, Chi An, Lu Guo, Zipeng Ren, Shenqiang Chivate, Aditya Tushar Khuje, Saurabh Vishwas Hu, Feng Huang, Yulong |
| AuthorAffiliation | Department of Chemistry Environment & Water Institute Research and Education in Energy Department of Industrial and Systems Engineering The State University of New York Department of Mechanical and Aerospace Engineering University at Buffalo |
| AuthorAffiliation_xml | – sequence: 0 name: Department of Mechanical and Aerospace Engineering – sequence: 0 name: Department of Chemistry – sequence: 0 name: The State University of New York – sequence: 0 name: Environment & Water Institute – sequence: 0 name: University at Buffalo – sequence: 0 name: Department of Industrial and Systems Engineering – sequence: 0 name: Research and Education in Energy |
| Author_xml | – sequence: 1 givenname: Feng surname: Hu fullname: Hu, Feng – sequence: 2 givenname: Lu surname: An fullname: An, Lu – sequence: 3 givenname: Aditya Tushar surname: Chivate fullname: Chivate, Aditya Tushar – sequence: 4 givenname: Zipeng surname: Guo fullname: Guo, Zipeng – sequence: 5 givenname: Saurabh Vishwas surname: Khuje fullname: Khuje, Saurabh Vishwas – sequence: 6 givenname: Yulong surname: Huang fullname: Huang, Yulong – sequence: 7 givenname: Yong surname: Hu fullname: Hu, Yong – sequence: 8 givenname: Jason surname: Armstrong fullname: Armstrong, Jason – sequence: 9 givenname: Chi surname: Zhou fullname: Zhou, Chi – sequence: 10 givenname: Shenqiang surname: Ren fullname: Ren, Shenqiang |
| BackLink | https://www.ncbi.nlm.nih.gov/pubmed/31990279$$D View this record in MEDLINE/PubMed |
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| SubjectTerms | ceramics chemical reactions Conducting polymers Dielectric properties Dielectric strength dielectrics Electronics Frequency ranges mathematical theory Montmorillonite Nanocomposites nanosheets Percolation theory Permittivity Polymer matrix composites Polymers radio waves Thermal stability |
| Title | Flexible and printable dielectric polymer composite with tunable permittivity and thermal stability |
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