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A Universal Positioning System for Coupling Characterization of SEM and AFM
Author(s) -
Jinchao Liu,
Andi Wang,
Ji Chul Yang,
Shiheng Yin,
Xianfeng Yang
Publication year - 2021
Publication title -
scanning
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.359
H-Index - 47
eISSN - 1932-8745
pISSN - 0161-0457
DOI - 10.1155/2021/5550311
Subject(s) - characterization (materials science) , microscale chemistry , coordinate system , position (finance) , scanning electron microscope , coupling (piping) , field emission microscopy , software , microscope , materials science , matching (statistics) , atomic force microscopy , computer science , nanotechnology , mechanical engineering , analytical chemistry (journal) , physics , chemistry , mathematics , optics , engineering , artificial intelligence , composite material , chromatography , statistics , mathematics education , finance , diffraction , economics , programming language
Hyphenated techniques, providing comprehensive information in various aspects such as constituent, structure, functional group, and morphology, play an important role in scientific research. Nowadays, coupling characterization of the same position in microscale is in great need in the field of nanomaterial research and exploration. In this article, a new hyphenated technique was developed to facilitate the coupling characterization of atomic force microscope (AFM) and scanning electron microscope (SEM) by designing a universal positioning system. The system consisted of a specimen holder with coordinate grids and a software for converting the coordinate values of the same point to fit SEM, specimen holder, and AFM system. In working condition, the coordinates of the labeled points and target position were firstly extracted from the SEM operation software, then converted into the numerical values adapted to the specimen holder itself, and finally transformed into the coordinates matching the AFM system. The experimental result showed that a retrieving rate of 96% was achieved for a spherical target with a diameter of 1  μ m in a 30  μ m × 30  μ m square. The hyphenated technique is a universal, accurate, efficient, and financially feasible method in microanalysis field and has great application potential.

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