A multifunctional load-bearing solid-state supercapacitor

Andrew S. Westover; John W. Tian; Shivaprem Bernath; Landon Oakes; Rob Edwards; Farhan N. Shabab; Shahana Chatterjee; Amrutur V. Anilkumar; Cary L. Pint

doi:10.1021/nl500531r

A multifunctional load-bearing solid-state supercapacitor

Andrew S. Westover, John W. Tian, Shivaprem Bernath, Landon Oakes, Rob Edwards, Farhan N. Shabab, Shahana Chatterjee, Amrutur V. Anilkumar, Cary L. Pint

Research output: Contribution to journal › Article › peer-review

83 Scopus citations

Abstract

A load-bearing, multifunctional material with the simultaneous capability to store energy and withstand static and dynamic mechanical stresses is demonstrated. This is produced using ion-conducting polymers infiltrated into nanoporous silicon that is etched directly into bulk conductive silicon. This device platform maintains energy densities near 10 W h/kg with Coulombic efficiency of 98% under exposure to over 300 kPa tensile stresses and 80 g vibratory accelerations, along with excellent performance in other shear, compression, and impact tests. This demonstrates performance feasibility as a structurally integrated energy storage material broadly applicable across renewable energy systems, transportation systems, and mobile electronics, among others.

Original language	English
Pages (from-to)	3197-3202
Number of pages	6
Journal	Nano Letters
Volume	14
Issue number	6
DOIs	https://doi.org/10.1021/nl500531r
State	Published - Jun 11 2014
Externally published	Yes

Funding

Funders	Funder number
National Science Foundation	1334269

Keywords

Supercapacitor
ionic liquids
load-bearing
multifunctional energy storage
poly(ethylene oxide)
porous silicon
solid state

UN SDGs

This output contributes to the following UN Sustainable Development Goals (SDGs)

Access to Document

10.1021/nl500531r

Cite this

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abstract = "A load-bearing, multifunctional material with the simultaneous capability to store energy and withstand static and dynamic mechanical stresses is demonstrated. This is produced using ion-conducting polymers infiltrated into nanoporous silicon that is etched directly into bulk conductive silicon. This device platform maintains energy densities near 10 W h/kg with Coulombic efficiency of 98% under exposure to over 300 kPa tensile stresses and 80 g vibratory accelerations, along with excellent performance in other shear, compression, and impact tests. This demonstrates performance feasibility as a structurally integrated energy storage material broadly applicable across renewable energy systems, transportation systems, and mobile electronics, among others.",

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doi = "10.1021/nl500531r",

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AU - Westover, Andrew S.

AU - Tian, John W.

AU - Bernath, Shivaprem

AU - Oakes, Landon

AU - Edwards, Rob

AU - Shabab, Farhan N.

AU - Chatterjee, Shahana

AU - Anilkumar, Amrutur V.

AU - Pint, Cary L.

PY - 2014/6/11

Y1 - 2014/6/11

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AB - A load-bearing, multifunctional material with the simultaneous capability to store energy and withstand static and dynamic mechanical stresses is demonstrated. This is produced using ion-conducting polymers infiltrated into nanoporous silicon that is etched directly into bulk conductive silicon. This device platform maintains energy densities near 10 W h/kg with Coulombic efficiency of 98% under exposure to over 300 kPa tensile stresses and 80 g vibratory accelerations, along with excellent performance in other shear, compression, and impact tests. This demonstrates performance feasibility as a structurally integrated energy storage material broadly applicable across renewable energy systems, transportation systems, and mobile electronics, among others.

KW - Supercapacitor

KW - ionic liquids

KW - load-bearing

KW - multifunctional energy storage

KW - poly(ethylene oxide)

KW - porous silicon

KW - solid state

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A multifunctional load-bearing solid-state supercapacitor

Abstract

Funding

Keywords

UN SDGs

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