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Polymer nanocomposite materials in energy storage: Properties and applications  269

           9.4   Conclusions and future perspectives


           In this review, an attempt has been made to summarize the latest advances in the poly-
           mer nanocomposite-based material development for the EESSs, such as secondary
           lithium-ion batteries and supercapacitors. The polymer nanocomposite electrodes
           and electrolyte in Li-ion batteries and electrode in supercapacitors are key to realize
           the dream of all plastic, flexible, wearable electric energy storage devices. Tremen-
           dous amount of research efforts has been invested to develop all-solid, flexible energy
           storage device for portable devices. Application of latest nanomaterials such as CNT,
           graphene, metal organic frameworks, and mesoporous carbon has immensely contrib-
           uted to the development of the materials. However, these materials also bring issues
           related to production at commercial level, environmental issues, and cost. Polymer
           nanocomposite consists of a polymer backbone matrix and an inorganic filler such
           as nanomaterials. They show excellent properties that are not present in either moiety
           due to synergic interaction between the components. These polymer nanocomposites
           show high electric conductivity and flexibility of the polymers and good stability and
           dielectric properties of the fillers. But to optimize the desired properties in a polymer
           nanocomposite still needs lots of theoretical and experimental research work to estab-
           lish structure properties relation and to design materials with unique set of properties.
           Moreover, more work is still required in the synthetic chemistry to synthesis polymers
           and polymer nanocomposite with controlled structure. Therefore, fabrication of
           binary and ternary polymer nanocomposite with desired properties is the key in the
           development of high energy density and high power output materials for super-
           capacitors and lithium-ion batteries with long-term cyclic stability in realizing the
           dream of replacing the fossil fuels for the betterment of the environment and to secure
           the energy for future.




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