About this Research Topic
Given the intensifying energy crisis & global warming, developing eco-friendly, energy-efficient electrochemical pathways for synthesizing high-value products is crucial. These include, but are not limited to, CO2 electroreduction, ammonia electrosynthesis, electrocatalytic C-N Coupling, electrochemical oxygen reduction, the electrooxidation of alcohol molecules, and the decomposition of H2O. However, the development of electrocatalysts with high activity and excellent stability plays a pivotal role in advancing the development of electrochemical energy conversion technologies. In the past few decades, metal-based nanomaterials, encompassing metal single atoms, nanoclusters, nanoparticles, alloys, heterojunctions, and other metal-based composite catalysts, have garnered significant attention for electrochemical energy conversion reactions due to their unique electronic structures. The Research Topic centers around the development of rational design and synthesis strategies for metal-based nanomaterials aimed at achieving highly efficient electrochemical energy conversion reactions, alongside an in-depth investigation into the underlying reaction mechanisms.
The primary focus of this Research Topic lies in the development of metal-based nanomaterials that exhibit both high performance and exceptional stability, aimed at enhancing the efficacy of electrochemical energy conversion reactions. These reactions constitute a broad spectrum of critical processes, which encompass, yet are not exhaustive to, the electroreduction of CO2 for the production of sustainable fuels and chemicals, the electrosynthesis of ammonia, electrocatalytic C-N coupling reactions for the synthesis of valuable organic compounds, electrochemical oxygen reduction reactions in fuel cells for clean energy generation, the electrooxidation of alcohol molecules for energy storage applications, the decomposition of H2O for hydrogen production, and numerous other groundbreaking transformations that hold immense potential for advancing renewable energy technologies and mitigating environmental challenges. We aspire for this Research Topic to foster deeper insights and inspire innovative approaches in the design and synthesis of metal-based nanomaterials, ultimately advancing the field of electrochemical energy conversion reactions.
This Research Topic welcomes the submission of original Research Articles, Perspectives, and Reviews, all centered around the design and synthesis of metal-based nanomaterials for electrochemical conversion reactions. While the emphasis lies within these specified areas, the scope remains expansive and unconstrained, embracing but not limited to:
• The exploration of novel approaches for the design and synthesis of metal nanomaterials specifically tailored for electrochemical energy conversion reactions encompasses a diverse array of groundbreaking processes.
• Metal-based nanomaterials utilize various electrochemical energy conversion reactions, which encompass, but are not confined to, pivotal processes such as CO2 electroreduction, ammonia electrosynthesis, electrocatalytic C-N coupling reactions, electrochemical oxygen reduction, the electrooxidation of alcohol molecules, and the decomposition of H2O for hydrogen generation.
• Methods incorporating theoretical calculations and in-situ spectroscopy characterization are employed to investigate the reaction mechanisms underlying electrocatalytic energy conversion reactions.
• Academic papers pertaining to educational reforms in the field of electrochemistry.
The primary focus of this Research Topic lies in the development of metal-based nanomaterials that exhibit both high performance and exceptional stability, aimed at enhancing the efficacy of electrochemical energy conversion reactions. These reactions constitute a broad spectrum of critical processes, which encompass, yet are not exhaustive to, the electroreduction of CO2 for the production of sustainable fuels and chemicals, the electrosynthesis of ammonia, electrocatalytic C-N coupling reactions for the synthesis of valuable organic compounds, electrochemical oxygen reduction reactions in fuel cells for clean energy generation, the electrooxidation of alcohol molecules for energy storage applications, the decomposition of H2O for hydrogen production, and numerous other groundbreaking transformations that hold immense potential for advancing renewable energy technologies and mitigating environmental challenges. We aspire for this Research Topic to foster deeper insights and inspire innovative approaches in the design and synthesis of metal-based nanomaterials, ultimately advancing the field of electrochemical energy conversion reactions.
This Research Topic welcomes the submission of original Research Articles, Perspectives, and Reviews, all centered around the design and synthesis of metal-based nanomaterials for electrochemical conversion reactions. While the emphasis lies within these specified areas, the scope remains expansive and unconstrained, embracing but not limited to:
• The exploration of novel approaches for the design and synthesis of metal nanomaterials specifically tailored for electrochemical energy conversion reactions encompasses a diverse array of groundbreaking processes.
• Metal-based nanomaterials utilize various electrochemical energy conversion reactions, which encompass, but are not confined to, pivotal processes such as CO2 electroreduction, ammonia electrosynthesis, electrocatalytic C-N coupling reactions, electrochemical oxygen reduction, the electrooxidation of alcohol molecules, and the decomposition of H2O for hydrogen generation.
• Methods incorporating theoretical calculations and in-situ spectroscopy characterization are employed to investigate the reaction mechanisms underlying electrocatalytic energy conversion reactions.
• Academic papers pertaining to educational reforms in the field of electrochemistry.
Keywords: Metal-based Nanomaterials, New Approaches, Electrochemical Energy Conversion, Reaction Mechanism
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.
