4.6 Review

Nanoparticle-enhanced multifunctional nanocarbons-recent advances on electrochemical energy storage applications

Journal

JOURNAL OF PHYSICS D-APPLIED PHYSICS
Volume 55, Issue 41, Pages -

Publisher

IOP Publishing Ltd
DOI: 10.1088/1361-6463/ac7bb5

Keywords

nanoparticles; nanocarbons; battery anode; supercapacitor electrode; metal-ion capacitor anode

Funding

  1. European commission
  2. Ministry of Education, University and Research (MIUR), Italy, within the 'Department of Excellence 2018-2022' award program
  3. European Research Council (ERC) under the European Union's Horizon 2020 research and innovation program ERC-Consolidator Grant (ERC CoG 2016 EspLORE Grant) [724610]
  4. Australian Research Council
  5. QUT Centre for Materials Science

Ask authors/readers for more resources

As renewable energy becomes crucial, electrochemical energy storage devices are necessary for efficient energy storage and reliable supply. The electrode material plays a key role in determining the storage capacity and power delivery. Decorating carbon-based materials with nanoparticles is a promising strategy to enhance their properties and improve their performance in next-generation energy storage devices.
As renewable energy is becoming a crucial energy source to meet the global demand, electrochemical energy storage devices become indispensable for efficient energy storage and reliable supply. The electrode material is the key factor determining the energy storage capacity and the power delivery of the devices. Carbon-based materials, specifically graphite, activated carbons etc, are extensively used as electrodes, yet their low energy densities impede the development of advanced energy storage materials. Decoration by nanoparticles of metals, metal oxides, nitrides, carbides, phosphides, chalcogenides and bimetallic components is one of the most promising and easy-to-implement strategies to significantly enhance the structural and electronic properties, pore refinement, charge storage and charge-transfer kinetics of both pristine and doped carbon structures, thereby making their performance promising for next-generation energy storage devices. Structuring the materials at nanoscale is another probable route for better rate performance and charge-transfer kinetics. This review covers the state-of-art nanoparticle decorated nanocarbons (NCs) as materials for battery anode, metal-ion capacitor anode and supercapacitor electrode. A critical analysis of the elemental composition, structure, associated physico-chemical properties and performance relationships of nanoparticle-decorated NC electrodes is provided as well to inform the future development of the next-generation advanced energy storage materials and devices.

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