About this Research Topic
Lithium-ion batteries (LIBs) face commercial challenges due to limited energy storage capacities of current anode materials like graphite. Carbon-based materials, such as graphene and carbon nanotubes, offer a solution by providing higher surface areas, improved conductivity, and enhanced mechanical strength. This integration addresses volume changes during lithium-ion cycling, ensuring longer cycle life and improved performance.
The tuneable properties of carbon materials enable customization for specific applications.
In summary, utilizing carbon-based materials in LIBs' negative electrode mitigates current pain points, offer higher capacity, prolonged cycle life, and adaptability for the next era of advanced energy storage.
It is the goal of this Research Topic collection to explore carbon-based materials in LIBs/SIBs’ negative electrode that will offer higher capacity, prolonged cycle life, and adaptability for the next era of advanced energy storage.
By introducing carbon-based materials, it is expected to alleviate the decline in electrochemical performance caused by the impact of multiple charges and discharges of lithium/sodium ions on electrode materials. It is also hoped that the introduction of carbon-based materials can improve the conductivity of electrode materials to a certain extent, thereby improving electrochemical performance.
The tuneable properties of carbon materials enable customization for specific applications.
In summary, utilizing carbon-based materials in LIBs' negative electrode mitigates current pain points, offer higher capacity, prolonged cycle life, and adaptability for the next era of advanced energy storage.
It is the goal of this Research Topic collection to explore carbon-based materials in LIBs/SIBs’ negative electrode that will offer higher capacity, prolonged cycle life, and adaptability for the next era of advanced energy storage.
By introducing carbon-based materials, it is expected to alleviate the decline in electrochemical performance caused by the impact of multiple charges and discharges of lithium/sodium ions on electrode materials. It is also hoped that the introduction of carbon-based materials can improve the conductivity of electrode materials to a certain extent, thereby improving electrochemical performance.
Keywords: electrochemical, Carbon-based Materials, Lithium-ion, electrode materials
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