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Method for quantification and modeling of specimens using microscopic image slices.

机译:使用显微图像切片对标本进行量化和建模的方法。

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摘要

Challenges facing biomedical images analysts in the growing field of microscopic imaging encompass the task of gathering evidentiary data when presented with volume of digital microscopic images, which may possibly contain critical hidden information. This thesis discusses the process and necessary considerations inherent in the development of methods applied for the detection of the hidden information which otherwise may not be available. Well known is the growing trend and the use of high resolution microscope. Whether expensive equipment or user specific microscopes, digital images obtained aid in better understanding of the specimen involved in number of diverse fields such as medicine, biological research, cancer research, drug testing etc. As a result of such, a new image quality enhancement and 3D visualization techniques presented; not only receive derivation from a foundation of general enhancement theory, but also incorporate a thorough understanding of the shortcomings of the microscopes and process of natural digitization of images obtained.;Fundamental to this investigation is an understanding of the use of microscopes in biomedical imaging and the challenges facing analysts in recovering complete information through various image enhancement process. Analyses began with a concentration on accurately and efficiently creating methods in the detection and enhancement of hidden information and also painlessly interfacing with existing 3D visualization software. Notably, due to large volume of these data sets obtained from microscopes, fast, automated and reliable processing of these images is required by the analysts. The research in this thesis attempts to understand the two primary investigation techniques in microscopic imaging. The first goal is to gain understanding of the nature of the microscopes and its defects in providing complete and true information. The second objective is to investigate and develop image quality enhancement techniques that are used to bring out the hidden information within by understanding the nature of images.;In the design portion of the thesis presented is a new and modified image quality enhancement method which aids in bringing out hidden information from within microscopic images. The investigation begins with the basic understanding of microscopes in relation to biomedical imaging. Data sets from two broadly used microscopes; electron microscope (µ-CT scans) and light microscope (two-photon excited fluorescence microscopic images), were obtained. Then further the study of literature regarding several existing image enhancement techniques and approaches that have been developed over the last few years. A common method was created to better suit any microscopic images and enhances these huge data sets that will eventually help in better visualization in 3D. Current limitations of these implementations include the inability of software to process these enhanced image data sets in 3D to obtain required statistical evidence in better understanding of the specimen. And also this new method developed requires high performance processors for faster enhancement and evaluation. Finally, the findings and analysis of the system are evaluated in comparison.
机译:在日益增长的显微成像领域,生物医学图像分析人员面临的挑战包括当与大量数字显微图像一起呈现时可能收集证据数据的任务,其中数字显微图像可能包含关键的隐藏信息。本文讨论了开发用于检测隐藏信息的方法所固有的过程和必要的考虑因素,这些方法否则可能无法使用。众所周知的趋势是高分辨率显微镜的使用和发展。无论是昂贵的设备还是特定于用户的显微镜,获得的数字图像都有助于更好地了解涉及医学,生物学,癌症研究,药物测试等多个领域的标本。展示了3D可视化技术;不仅从通用增强理论的基础上得到了推论,而且还对显微镜的缺点和获得的图像的自然数字化过程进行了透彻的理解。;这项研究的基础是对在生物医学成像和生物医学中使用显微镜的理解。分析人员在通过各种图像增强过程恢复完整信息方面面临的挑战。分析开始于准确,有效地创建检测和增强隐藏信息的方法,并轻松地与现有3D可视化软件进行接口。值得注意的是,由于从显微镜获得的大量数据集,分析人员需要对这些图像进行快速,自动和可靠的处理。本文的研究试图理解显微成像中的两种主要研究技术。第一个目标是要了解显微镜的性质及其在提供完整和真实信息方面的缺陷。第二个目的是研究和开发图像质量增强技术,该技术可通过了解图像的本质来揭示其中的隐藏信息。在本论文的设计部分中,提出了一种新的改进的图像质量增强方法,该方法有助于带出微观图像中的隐藏信息。该研究从对显微镜与生物医学成像的基本了解开始。来自两个广泛使用的显微镜​​的数据集;获得电子显微镜(μ-CT扫描)和光学显微镜(双光子激发荧光显微图像)。然后进一步研究有关过去几年中开发的几种现有图像增强技术和方法的文献。创建了一种通用方法以更好地适合任何显微图像并增强这些庞大的数据集,这些数据集最终将有助于更好地实现3D可视化。这些实现方式的当前局限性包括软件无法以3D方式处理这些增强的图像数据集,以获取所需的统计证据以更好地理解标本。而且,开发的这种新方法还需要高性能处理器才能更快地进行增强和评估。最后,比较评估系统的发现和分析。

著录项

  • 作者

    Krishnan, Sunderam.;

  • 作者单位

    The University of Texas at San Antonio.;

  • 授予单位 The University of Texas at San Antonio.;
  • 学科 Engineering Computer.;Engineering Electronics and Electrical.;Engineering Biomedical.
  • 学位 M.S.
  • 年度 2012
  • 页码 99 p.
  • 总页数 99
  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类
  • 关键词

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