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Main Authors: Singh, Maninderjeet, Das, Priyanka, Samanta, Pabitra Narayan, Bera, Sumit, Tanthirige, Ruskshan, Shook, Brian, Nejat, Roshanak, Behera, Banarji, Zhang, Qiqi, Dai, Qilin, Pramanik, Avijit, Ray, Paresh, Raghavan, Dharmaraj, Leszczysnki, Jerzy, Karim, Alamgir, Pradhan, Nihar R.
Format: Preprint
Published: 2023
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Online Access:https://arxiv.org/abs/2303.06072
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author Singh, Maninderjeet
Das, Priyanka
Samanta, Pabitra Narayan
Bera, Sumit
Tanthirige, Ruskshan
Shook, Brian
Nejat, Roshanak
Behera, Banarji
Zhang, Qiqi
Dai, Qilin
Pramanik, Avijit
Ray, Paresh
Raghavan, Dharmaraj
Leszczysnki, Jerzy
Karim, Alamgir
Pradhan, Nihar R.
author_facet Singh, Maninderjeet
Das, Priyanka
Samanta, Pabitra Narayan
Bera, Sumit
Tanthirige, Ruskshan
Shook, Brian
Nejat, Roshanak
Behera, Banarji
Zhang, Qiqi
Dai, Qilin
Pramanik, Avijit
Ray, Paresh
Raghavan, Dharmaraj
Leszczysnki, Jerzy
Karim, Alamgir
Pradhan, Nihar R.
contents Dielectric capacitors are critical components in electronics and energy storage devices. The polymer based dielectric capacitors have advantages of flexibility, fast charge and discharge, low loss, and graceful failure. Elevating the use of polymeric dielectric capacitors for advanced energy applications such as electric vehicles (EVs) however requires significant enhancement of their energy densities. Here, we report a polymer thin film heterostructure based capacitor of poly(vinylidene fluoride)/poly(methyl methacrylate) with stratified 2D nanofillers (Mica or h-BN nanosheets) (PVDF/PMMA-2D fillers/PVDF), that shows enhanced permittivity, high dielectric strength and an ultra-high energy density of 75 J/cm3 with efficiency over 79%. Density functional theory calculations verify the observed permittivity enhancement. This approach of using oriented 2D nanofillers based polymer heterostructure composites is expected to be universal for designing high energy density thin film polymeric dielectric capacitors for myriads of applications.
format Preprint
id arxiv_https___arxiv_org_abs_2303_06072
institution arXiv
publishDate 2023
record_format arxiv
spellingShingle High Energy Density in layered 2D Nanomaterial based Polymer Dielectric Films
Singh, Maninderjeet
Das, Priyanka
Samanta, Pabitra Narayan
Bera, Sumit
Tanthirige, Ruskshan
Shook, Brian
Nejat, Roshanak
Behera, Banarji
Zhang, Qiqi
Dai, Qilin
Pramanik, Avijit
Ray, Paresh
Raghavan, Dharmaraj
Leszczysnki, Jerzy
Karim, Alamgir
Pradhan, Nihar R.
Applied Physics
Materials Science
Dielectric capacitors are critical components in electronics and energy storage devices. The polymer based dielectric capacitors have advantages of flexibility, fast charge and discharge, low loss, and graceful failure. Elevating the use of polymeric dielectric capacitors for advanced energy applications such as electric vehicles (EVs) however requires significant enhancement of their energy densities. Here, we report a polymer thin film heterostructure based capacitor of poly(vinylidene fluoride)/poly(methyl methacrylate) with stratified 2D nanofillers (Mica or h-BN nanosheets) (PVDF/PMMA-2D fillers/PVDF), that shows enhanced permittivity, high dielectric strength and an ultra-high energy density of 75 J/cm3 with efficiency over 79%. Density functional theory calculations verify the observed permittivity enhancement. This approach of using oriented 2D nanofillers based polymer heterostructure composites is expected to be universal for designing high energy density thin film polymeric dielectric capacitors for myriads of applications.
title High Energy Density in layered 2D Nanomaterial based Polymer Dielectric Films
topic Applied Physics
Materials Science
url https://arxiv.org/abs/2303.06072