Systematic mapping: Use of neural networks for analysis in transmission electron microscopy micrographs

Diego Alejandro Morales Bravo, Miguel De-la-Torre, B. Acevedo-Juárez, Gabriella Mireles
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Abstract

Microscopy techniques have been prominently part of advances in fields such as biology, medicine, and the study and development of materials over the last decade. The characteriza- tion of nanoparticles from distinct materials is challenging due to differences in morphology, size and shape. In order to evaluate these properties, tools such as the optical microscope, the atomic force microscope and the transmission electron microscope are essential. However, even an apparently simple measurement such as the size of a particle can be a challenge, this task becomes more difficult if you are working with materials for which particles are far from the ideal shape. In recent years, artificial neural networks (RNA) and especially convolutional neural networks (RNC) have been showing an enormous capacity for complex vision tasks such as detection, segmentation and classification.In this paper, we show the results of a mapping study on the work related to implementations of RNA for the analysis of electron transmission microscope micrographs. In addition to reviewing the techniques and tools most commonly used in RNA implementations. Results indicate a growing interest of the scientific community to propose related solutions, with RNC as the leader technique in micrograph analysis.
系统制图:利用神经网络分析透射电子显微镜显微照片
在过去的十年里,显微镜技术在生物学、医学、材料研究和开发等领域的进步中占有重要地位。由于不同材料的纳米颗粒在形态、大小和形状上的差异,表征是具有挑战性的。为了评估这些性质,光学显微镜、原子力显微镜和透射电子显微镜等工具是必不可少的。然而,即使是一个看起来很简单的测量,比如粒子的大小,也可能是一个挑战,如果你的材料中粒子的形状远非理想的,那么这项任务就会变得更加困难。近年来,人工神经网络(RNA),特别是卷积神经网络(RNC)在检测、分割和分类等复杂的视觉任务中显示出巨大的能力。在本文中,我们展示了与电子透射显微镜显微图分析相关的RNA实现工作的映射研究结果。除了回顾RNA实现中最常用的技术和工具之外。结果表明科学界越来越有兴趣提出相关的解决方案,RNC是显微照片分析的领先技术。
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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