Litcius/Paper detail

MXene-based materials for supercapacitors: trends and opportunities

Tianyi Gao, Chin Wei Lai, Sanjay Mavinkere Rangappa, Suchart Siengchin, Femiana Gapsari, Yu Li, Irfan Anjum Badruddin

2025Journal of Materials Science Materials in Electronics9 citationsDOIOpen Access PDF

Abstract

The dominance of non-renewable energy sources in global consumption exacerbates environmental challenges, driving the development of renewable energy and energy storage systems. The emergence of supercapacitors as pivotal energy storage devices is attributed to their prolonged cycle life and high-power density. Among the various materials under investigation, MXenes have garnered considerable attention due to their expeditious electron transfer, exceptional redox activity, and unique layered structure. MXenes are synthesized by etching MAX phase precursors, and their morphology and electrochemical performance are strongly influenced by the etching method. This review endeavors to summarize the structure, synthesis, and properties of MXenes. It also examines how factors such as morphology, size, electrode design, and electrolyte composition affect their supercapacitor performance. Additionally, it highlights recent advances in MXene-based composites for energy storage. Finally, it outlines current research challenges and future directions, proposing potential solutions for next-generation energy storage applications.

Topics & Concepts

MXenesSupercapacitorMaterials scienceEnergy storageNanotechnologyElectrochemical energy storageRenewable energySustainabilityElectrolyteSustainable energyLife-cycle assessmentDominance (genetics)Engineering physicsEnergy demandEnergy consumptionElectrochemistryEtching (microfabrication)Phase changeEmbodied energyElectrodeRedoxNatural resource economicsHigh energyEnergy (signal processing)Low energySustainable developmentElectrochemical energy conversionMXene and MAX Phase MaterialsSupercapacitor Materials and FabricationAdvanced Memory and Neural Computing