材料科学
钴
人工肌肉
电极
纳米技术
冶金
执行机构
人工智能
计算机科学
化学
物理化学
作者
Syed Sheraz Ali,Manmatha Mahato,Do Van Lam,Pradeep Sambyal,Geetha Valurouthu,Mousumi Garai,Anweshi Dewan,Van Hiep Nguyen,Mannan Khan,Ashhad Kamal Taseer,Chi Won Ahn,Il‐Kwon Oh
标识
DOI:10.1002/adem.202400515
摘要
The synthesis of MXene‐cobalt hybrid (MX‐Co) is presented utilizing a molten salt approach, targeting the application in artificial muscle technology. Mxenes possess exceptional electronic conductivity and surface chemistry, making them ideal candidates for electrochemical applications. Cobalt, known for its ferromagnetic qualities, is a good match for MXenes and enhances artificial muscles’ mechanical performance. By circumventing hazardous hydrofluoric (HF) acid, a facile and scalable synthesis process for MX‐Co hybrids is demonstrated. Their structural and electrochemical characteristics are revealed through characterization using cutting‐edge spectroscopic and microscopic techniques. When compared to typical PEDOT: PSS electrodes, electrochemical experiments show that MX‐Co electrodes have higher electroactive performance, with enhanced bending deformation under various input conditions. MX‐Co hybrids exhibit a specific capacitance of 77.34 F g −1 , 1.6 times higher than PEDOT: PSS, and achieve a substantial enhancement of electrochemical bending displacement, up to 11.72 mm under a low input voltage of 1 V, showcasing their potential for soft actuator applications.
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