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Sodium-ion batteries: present and future

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TLDR
Current research on materials is summarized and discussed and future directions for SIBs are proposed to provide important insights into scientific and practical issues in the development of S IBs.
Abstract
Energy production and storage technologies have attracted a great deal of attention for day-to-day applications. In recent decades, advances in lithium-ion battery (LIB) technology have improved living conditions around the globe. LIBs are used in most mobile electronic devices as well as in zero-emission electronic vehicles. However, there are increasing concerns regarding load leveling of renewable energy sources and the smart grid as well as the sustainability of lithium sources due to their limited availability and consequent expected price increase. Therefore, whether LIBs alone can satisfy the rising demand for small- and/or mid-to-large-format energy storage applications remains unclear. To mitigate these issues, recent research has focused on alternative energy storage systems. Sodium-ion batteries (SIBs) are considered as the best candidate power sources because sodium is widely available and exhibits similar chemistry to that of LIBs; therefore, SIBs are promising next-generation alternatives. Recently, sodiated layer transition metal oxides, phosphates and organic compounds have been introduced as cathode materials for SIBs. Simultaneously, recent developments have been facilitated by the use of select carbonaceous materials, transition metal oxides (or sulfides), and intermetallic and organic compounds as anodes for SIBs. Apart from electrode materials, suitable electrolytes, additives, and binders are equally important for the development of practical SIBs. Despite developments in electrode materials and other components, there remain several challenges, including cell design and electrode balancing, in the application of sodium ion cells. In this article, we summarize and discuss current research on materials and propose future directions for SIBs. This will provide important insights into scientific and practical issues in the development of SIBs.

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Research Development on K-Ion Batteries.

TL;DR: This review comprehensively covering the studies on electrochemical materials for KIBs, including electrode and electrolyte materials and a discussion on recent achievements and remaining/emerging issues includes insights into electrode reactions and solid-state ionics and nonaqueous solution chemistry.
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Present and Future Perspective on Electrode Materials for Rechargeable Zinc-Ion Batteries

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References
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Journal ArticleDOI

Layered oxides as positive electrode materials for Na-ion batteries

TL;DR: In this article, the authors reviewed recent advancements and trends in layered sodium transition metal oxides as positive electrode materials for Na-ion batteries and found that they are the most advantageous next to lithium considering its atomic weight, standard potential, and natural abundance.
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Co3S4@polyaniline nanotubes as high-performance anode materials for sodium ion batteries

TL;DR: In this article, Co3S4@polyaniline nanotubes were fabricated through in situ oxidative polymerization, which achieved a high discharge capacity of 170.5 mA h g−1 after 100 cycles at the current density of 200 mA g− 1.
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Improved electrochemical performance of CoS2–MWCNT nanocomposites for sodium-ion batteries

TL;DR: A CoS2/multi-walled carbon nanotube (MWCNT) nanocomposite was synthesized and its sodium storage performances in ether- based electrolyte and commonly used carbonate-based electrolyte were investigated for the first time.
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High-Performance Sodium-Ion Batteries and Sodium-Ion Pseudocapacitors Based on MoS2/Graphene Composites

TL;DR: The enlarged d-spacing, a contribution of the graphene matrix, and the unique properties of the MoS2 /G substantially optimize Na storage behavior, by accommodating large volume changes and facilitating fast ion diffusion.
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FeS@C on Carbon Cloth as Flexible Electrode for Both Lithium and Sodium Storage

TL;DR: Flexible and self-supported carbon-coated FeS on carbon cloth films (denoted as FeS@C/carbon cloth) is prepared by a facial hydrothermal method combined with a carbonization treatment to improve cyclability and rate capability.
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