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The global demand for electrical energy storage (EES) devices for efficient energy storage, grid scale applications and delivery purposes is increasing at an alarming rate. Chemical storage technologies based on rechargeable batteries are considered as one of the leading and promising technologies for EES. Since its introduction and commercialization by Sony in 1991, Li ion batteries are preferred rechargeable battery systems for portable electronic devices. However, in the past few years, Na ion based secondary battery technologies are also witnessing significant interest and attention [1]. Sodium is relatively cheaper and more abundant in the earth’s crust compared to lithium. Na ion battery is also potentially easy to engineer and poses less safety issues, as it is chemically more stable and environmentally benign compared to the Li based battery system. Even though the research in Na ion secondary batteries is still in its developing stages, it is expected to emerge as a possible alternative to Li ion batteries.

Computational Study on the Mechanical Stability of Novel Sn/C Composite Particulate Structure as Potential Anodes for Rechargeable Na Ion Battery