A long-life fast charging lithium-ion energy storage device

A long cycle-life high-power energy storage device is prototyped where the fast charge capability is focused on rather than the fast discharge capability. Instead of using a supercapacitor device, the reworking and engineering of a Li-ion device is prototyped. The aim of the work was to be able to charge in a matter of minutes without excessive degradation in capacity and without a significant increase in device resistance with continued cycling. To achieve these goals, a Lithium Iron Phosphate – Lithium titanate (LFP-LTO) chemistry was selected, with a number of modifications, such as reduced electrode loadings, lowering the active material content to 70%, while increasing the conducting carbon content including carbon fibre additives. These measures overall reduce the energy density to about 42 Wh kg −1 . Other measures are incorporated to improve the cycle life and power. More than 85% capacity retention is achieved at 20C or 3-min charging. Also, a long cycle life of over 27,000 full State-of-Charge cycles at high rate 15C/5C charge/discharge with little increase in resistance (<10%) concurrent with the capacity fade to 80% is achieved with a prototype device. Consequently, at CSIRO-Australia, we have designed a long-life high-power energy storage device ideal for a range of applications.

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Publication Details

Journal
Journal of Energy Storage
Published
2026-09-19
DOI
https://doi.org/10.1016/j.est.2026.124732
Primary Topic
Supercapacitor Materials and Fabrication
Type
article
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article

A long-life fast charging lithium-ion energy storage device

Marzi Barghamadi, Pon Kao, Kishore Venkatesan, Anthony F. Hollenkamp et al.
Journal of Energy Storage
Supercapacitor Materials and Fabrication
article

A long-life fast charging lithium-ion energy storage device

Marzi Barghamadi, Pon Kao, Kishore Venkatesan, Anthony F. Hollenkamp, Adam S. Best, Graeme A. Snook
article en

Abstract

A long cycle-life high-power energy storage device is prototyped where the fast charge capability is focused on rather than the fast discharge capability. Instead of using a supercapacitor device, the reworking and engineering of a Li-ion device is prototyped. The aim of the work was to be able to charge in a matter of minutes without excessive degradation in capacity and without a significant increase in device resistance with continued cycling. To achieve these goals, a Lithium Iron Phosphate – Lithium titanate (LFP-LTO) chemistry was selected, with a number of modifications, such as reduced electrode loadings, lowering the active material content to 70%, while increasing the conducting carbon content including carbon fibre additives. These measures overall reduce the energy density to about 42 Wh kg −1 . Other measures are incorporated to improve the cycle life and power. More than 85% capacity retention is achieved at 20C or 3-min charging. Also, a long cycle life of over 27,000 full State-of-Charge cycles at high rate 15C/5C charge/discharge with little increase in resistance (<10%) concurrent with the capacity fade to 80% is achieved with a prototype device. Consequently, at CSIRO-Australia, we have designed a long-life high-power energy storage device ideal for a range of applications.

Journal of Energy StorageVol. 182
Commonwealth Scientific and Industrial Research Organisation (AU), CSIRO Manufacturing (AU)
Affordable and clean energy
Openalex Percentile: Top 28%
Supercapacitor Materials and Fabrication
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A long-life fast charging lithium-ion energy storage device — Marzi Barghamadi, Pon Kao, et al. · Journal of Energy Storage (2026) | TGRS Research Map | TGRS