Advanced Nanomaterials for Next Generation Energy Storage Systems: A Short Review

Mohsen Rezaeian¹

1) graduated in nanomaterial Msc, Guilan university,

IOI Code : ABGZ-ACZDBB
Publication : The third international conference on new approaches in engineering and basic sciences(icnabs.ir)
Abstract :
    This short narrative review examines the role of advanced nanomaterials in improving electrochemical energy storage systems, with emphasis on lithium ion batteries, sodium ion batteries, and supercapacitors. It surveys major material classes, including carbon based nanomaterials, metal oxide nanostructures, two dimensional materials such as MXenes and MoS2, and multifunctional nanocomposites. These materials can provide high accessible surface area, shortened ion diffusion pathways, improved electronic transport, tunable surface chemistry, and mechanically adaptable electrode frameworks. The review further discusses key engineering approaches including surface functionalization, doping and defect engineering, morphology control, interface design, and strain management architectures that can enhance charge storage kinetics and cycling stability. However, the analysis also identifies significant barriers to practical implementation, notably volume expansion, structural degradation, parasitic interfacial reactions, low electrode density, limited reproducibility, complex synthesis, cost, and environmental burdens. The review emphasizes that exceptional nanoscale properties must be translated into realistic device level performance through high mass loading electrodes, balanced full cell testing, scalable fabrication, and life cycle aware material selection. Future advancement will depend on sustainable synthesis, multifunctional hybrid architectures, AI assisted materials discovery, and integration with flexible and wearable electronics. Overall, nanomaterials offer a powerful platform for next generation energy storage, provided that electrochemical performance is developed alongside durability, manufacturability, safety, and sustainability.

Keywords : nanomaterials energy storage electrochemical performance carbon nanostructures metal oxide nanoparticles supercapacitors