About this Research Topic
Lithium-ion batteries signify a pivotal advancement in energy storage, particularly for modern electronics and electric transportation, due to their high energy density amongst all energy storage devices. Since the first commercialization of lithium-ion batteries by Sony in 1991, lithium-ion batteries have gradually become the most popular energy storage devices, and their practical utilities are currently ranging from grid-scale applications (GWh) to electric vehicles and household applications (kWh).
This special issue aims to address the pressing materials-related challenges in lithium-ion battery technology while highlighting recent advances and potential solutions. Key objectives include:
Advanced Electrode Materials: Exploring the synthesis and characterization of novel electrode materials with enhanced energy density, improved stability, and superior electrochemical performance.
Next-Generation Electrolytes: Investigating the development of electrolyte formulations with increased conductivity, wider electrochemical stability windows, and improved safety profiles to enable high-performance lithium-ion batteries.
Interfaces and Interfaces Engineering: Understanding and controlling electrode/electrolyte interfaces to minimize interfacial resistance, prevent side reactions, and thereby enhance the overall battery performance and lifespan.
Degradation Mechanisms and Mitigation: Investigating the mechanisms of electrode degradation, electrolyte decomposition, and capacity fading and developing strategies such as surface coatings, interface engineering, and electrolyte additives to mitigate electrode and/or electrolyte degradation, leading to prolonged battery lifespan.
By presenting these materials-focused challenges and discussing recent advancements in lithium-ion battery research, this special issue aims to stimulate interdisciplinary collaboration and innovation toward the development of advanced materials for next-generation energy storage devices.
The scope of this Research Topic encompasses a wide range of themes within the realm of materials science and lithium-ion battery technology. We welcome contributions that delve into advanced electrode materials, electrolyte formulations, interface engineering, and degradation mechanisms. Specific themes of interest include but are not limited to the synthesis and characterization of novel materials, elucidation of electrode/electrolyte interfaces, investigation of degradation mechanisms, and development of strategies for performance enhancement and lifespan extension. Manuscripts may include original research articles, reviews, perspectives, and technical notes. We encourage submissions that offer novel insights, present innovative methodologies, and contribute to the advancement of materials science in the context of lithium-ion batteries.
This special issue aims to address the pressing materials-related challenges in lithium-ion battery technology while highlighting recent advances and potential solutions. Key objectives include:
Advanced Electrode Materials: Exploring the synthesis and characterization of novel electrode materials with enhanced energy density, improved stability, and superior electrochemical performance.
Next-Generation Electrolytes: Investigating the development of electrolyte formulations with increased conductivity, wider electrochemical stability windows, and improved safety profiles to enable high-performance lithium-ion batteries.
Interfaces and Interfaces Engineering: Understanding and controlling electrode/electrolyte interfaces to minimize interfacial resistance, prevent side reactions, and thereby enhance the overall battery performance and lifespan.
Degradation Mechanisms and Mitigation: Investigating the mechanisms of electrode degradation, electrolyte decomposition, and capacity fading and developing strategies such as surface coatings, interface engineering, and electrolyte additives to mitigate electrode and/or electrolyte degradation, leading to prolonged battery lifespan.
By presenting these materials-focused challenges and discussing recent advancements in lithium-ion battery research, this special issue aims to stimulate interdisciplinary collaboration and innovation toward the development of advanced materials for next-generation energy storage devices.
The scope of this Research Topic encompasses a wide range of themes within the realm of materials science and lithium-ion battery technology. We welcome contributions that delve into advanced electrode materials, electrolyte formulations, interface engineering, and degradation mechanisms. Specific themes of interest include but are not limited to the synthesis and characterization of novel materials, elucidation of electrode/electrolyte interfaces, investigation of degradation mechanisms, and development of strategies for performance enhancement and lifespan extension. Manuscripts may include original research articles, reviews, perspectives, and technical notes. We encourage submissions that offer novel insights, present innovative methodologies, and contribute to the advancement of materials science in the context of lithium-ion batteries.
Keywords: Sustainability, Electrochemical stability, Battery technology, Lithium-ion batteries, Characterization of Battery materials, Energy storage Materials, Degradation mechanisms, Interface engineering, Advanced Electrode materials, Electrolyte formulations
Important Note: All contributions to this Research Topic must be within the scope of the section and journal to which they are submitted, as defined in their mission statements. Frontiers reserves the right to guide an out-of-scope manuscript to a more suitable section or journal at any stage of peer review.
