4.6 Article

3D structure-property correlations of electronic and energy materials by tomographic atomic force microscopy

期刊

APPLIED PHYSICS LETTERS
卷 118, 期 8, 页码 -

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AMER INST PHYSICS
DOI: 10.1063/5.0040984

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  1. Institute of Materials Science, University of Connecticut
  2. NSF (MRI development award) [DMR-1726862]
  3. Department of Physics, Faculty of Science, and Research Committee of the Hong Kong Baptist University

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The tomographic atomic force microscopy technique has shown great potential in the 3D nanocharacterization of energy and electronic materials, offering new avenues for investigating fundamental and applied phenomena in a broader range of functional materials.
The ever-increasing complexity in the structure and design of functional materials systems and devices necessitates new imaging approaches with 3D characterization capabilities and nanoscale resolution. This Perspective provides a brief review of the tomographic atomic force microscopy technique and its recent applications in the 3D nanocharacterization of energy and electronic materials including hybrid perovskites, CdTe, and ferroelectric BiFeO3, and filamentary resistive memories as model systems. We also propose several challenges and opportunities for further developing and applying this emerging approach for investigating fundamental and applied phenomena in a broader scope of functional materials.

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