How to Choose the Right AFM Probe for Your Experiment

F Ted Limpoco, David E Beck
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Abstract

Abstract Atomic force microscopes (AFMs) have emerged as the principal enabling tool for nanotechnology research. They are used ubiquitously in a wide range of fields: from 2D materials, semiconductors, ferroelectrics, and batteries to biomolecules, polymers, and cell biology. As the name implies, AFMs are microscopes. However, rather than using focused light or electrons to magnify sample features, AFMs scan a mechanical probe with a very sharp tip over the surface to create a high-resolution 3D topographical image. Further, by modifying the probe composition or structure, other material properties (electrical, mechanical, magnetic, etc.) can be simultaneously measured and mapped onto the topographic image for precise structure/property correlation. Clearly, the probe is key to unlocking the power of the AFM, thus, choosing the right probe is critical. In this article, we will provide novice and experienced users with basic information and guidelines to simplify the AFM probe selection process.
如何为你的实验选择合适的AFM探针
原子力显微镜(AFMs)已经成为纳米技术研究的主要工具。它们被广泛应用于各种领域:从二维材料、半导体、铁电体、电池到生物分子、聚合物和细胞生物学。顾名思义,原子力显微镜就是显微镜。然而,AFMs不是使用聚焦的光或电子来放大样品的特征,而是在表面上扫描带有非常锋利尖端的机械探针,以创建高分辨率的3D地形图像。此外,通过修改探针组成或结构,可以同时测量其他材料特性(电气、机械、磁性等)并将其映射到地形图像上,以实现精确的结构/性能相关性。显然,探针是释放AFM力量的关键,因此,选择合适的探针至关重要。在本文中,我们将为新手和有经验的用户提供基本信息和指南,以简化AFM探针的选择过程。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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