Bridging Mechanical and Electrical Analyses in AFM: Advances, Techniques, and Applications

IF 14 Q1 CHEMISTRY, MULTIDISCIPLINARY
Soyun Joo, Uichang Jeong, Chaewon Gong, Seungbum Hong
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引用次数: 0

Abstract

Microscopy has long expanded humanity’s understanding of the microscopic world, transcending limitations of the naked eye. The atomic force microscope (AFM), in particular, marks a major advancement in this field, enabling nanoscale investigations of materials through direct physical probing of their surface. Unlike traditional microscopes that use light or electrons, AFM’s unique methodology allows for both imaging on the atomic scale and precise manipulation of a material’s mechanical, electrical, and chemical properties. A key advantage also lies in its capacity for multimodal analysis, where multiple properties can be simultaneously measured to provide comprehensive insights into material behavior.

Abstract Image

架起原子力显微镜机械分析与电学分析的桥梁:进展、技术与应用
长期以来,显微镜超越了肉眼的局限,拓展了人类对微观世界的认识。原子力显微镜(AFM)尤其标志着这一领域的重大进步,它通过对材料表面的直接物理探测,实现了对材料的纳米级研究。与使用光或电子的传统显微镜不同,原子力显微镜的独特方法既能在原子尺度上成像,又能精确操纵材料的机械、电气和化学特性。其关键优势还在于它的多模态分析能力,可以同时测量多种特性,从而全面了解材料的行为。
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CiteScore
17.70
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