Khan Md Rakib, Jebin Paricha, Shah Syed Shaheen, Nayem S M Abu, Debnath Nipa, Aziz Md Abdul, Ahammad A J Saleh
Department of Chemistry, Jagannath University, Dhaka, 1100, Bangladesh.
Department of Physics, Jagannath University, Dhaka, 1100, Bangladesh.
Chem Asian J. 2025 Jul 11:e00701. doi: 10.1002/asia.202500701.
In the 21st century, the depletion of non-renewable energy sources has driven the pursuit of sustainable, efficient, and environmentally friendly energy conversion and storage devices to meet the growing global demands. Electrochemical supercapacitors have emerged as the leading choice owing to their high energy density, long durability, and eco-friendly nature. This review highlights the potential of nanomaterial-decorated biomass-derived carbon (BDC) as an advanced electrode material in high-performance supercapacitors (SCs). BDC is generally recognized as a good SC material. When nanomaterials, including heteroatoms, metal compounds, and conducting polymers, are introduced into BDC, they enhance their properties, making it a compelling choice due to its renewable nature, abundant availability, remarkable surface area, and excellent electrochemical performance. Based on these advantages, this study explores various synthesis methods and strategies to optimize the specific power, durability, and electrochemical efficiency of nanomaterial-decorated BDC, as BDC is a cost-effective precursor. These attributes make BDC a promising candidate for sustainable energy storage. Additionally, this review addresses current challenges and proposes innovative approaches to overcome them, offering new directions for future research and industrial development. This work underscores the role of nanomaterial-decorated BDC in advancing eco-friendly, high-performance energy storage technologies for a sustainable future.
在21世纪，不可再生能源的枯竭促使人们追求可持续、高效且环保的能量转换和存储设备，以满足全球日益增长的需求。电化学超级电容器因其高能量密度、长耐久性和环保特性而成为首选。本综述重点介绍了纳米材料修饰的生物质衍生碳（BDC）作为高性能超级电容器（SC）中先进电极材料的潜力。BDC通常被认为是一种良好的超级电容器材料。当将包括杂原子、金属化合物和导电聚合物在内的纳米材料引入BDC时，它们会增强其性能，由于其可再生性、丰富的可用性、显著的表面积和优异的电化学性能，使其成为一个有吸引力的选择。基于这些优势，本研究探索了各种合成方法和策略，以优化纳米材料修饰的BDC的比功率、耐久性和电化学效率，因为BDC是一种具有成本效益的前驱体。这些特性使BDC成为可持续储能的有前途的候选材料。此外，本综述阐述了当前的挑战并提出了创新的解决方法，为未来的研究和产业发展提供了新方向。这项工作强调了纳米材料修饰的BDC在推动环保、高性能储能技术以实现可持续未来方面的作用。
