Supercharging the future: MOF-2D MXenes supercapacitors for sustainable energy storage

MXenes公司 超级电容器 储能 纳米技术 可再生能源 材料科学 工艺工程 电容 工程类 电气工程 功率(物理) 化学 电极 物理 物理化学 量子力学
作者
Yedluri Anil Kumar,Gutturu Rajasekhara Reddy,Tholkappiyan Ramachandran,Dasha Kumar Kulurumotlakatla,Hisham S. M. Abd‐Rabboh,Amal A. Abdel Hafez,S. Srinivasa Rao,Sang Woo Joo
出处
期刊:Journal of energy storage [Elsevier]
卷期号:80: 110303-110303 被引量:37
标识
DOI:10.1016/j.est.2023.110303
摘要

Energy storage technologies are essential for meeting the rising need for effective and environmentally friendly energy storage solutions. Due to their high-power density and quick charge/discharge characteristics, supercapacitors have drawn a lot of interest as potential candidates for a range of energy storage applications. The growing field of research that blends 2D MXenes with metal-organic frameworks (2D MOFs) to create superior supercapacitor materials for energy storage applications is described in this abstract. The family of porous materials known as MOFs is distinguished by its large surface area, adjustable architectures, and variety of chemical compositions. However, 2D MXenes, produced from layered transition metal carbides and nitrides, exhibit outstanding mechanical and electrical conductivity. The combination of these two different materials has a lot of potential to improve supercapacitor performance. The synthesis processes, structural traits, and effects on the supercapacitor performance of MOF-MXene composite materials will all be covered in this abstract. Improved charge storage capacity, quicker ion diffusion kinetics, and increased long-term stability are made possible by the synergy of MOFs and 2D MXenes, which solves some of the major problems with conventional supercapacitor materials. We will also talk about the possible uses of MOF-MXene supercapacitors in a variety of industries, including electric cars, portable electronics, and renewable energy systems. They provide a potential alternative for addressing the constantly growing energy storage needs of contemporary civilization because of their capacity to supply high energy and power densities while preserving lengthy cycle lives.
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