对比脉冲序列超声成像集成处理增强空心充气二氧化硅纳米壳和微壳的主动对比。

IF 1.5 4区 工程技术 Q3 ENGINEERING, ELECTRICAL & ELECTRONIC
Casey N Ta, Alexander Liberman, H Paul Martinez, Christopher V Barback, Robert F Mattrey, Sarah L Blair, William C Trogler, Andrew C Kummel, Zhe Wu
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引用次数: 12

摘要

近年来,超声造影领域在新造影剂的研制和成像模式方面都有越来越多的发展。这些造影剂已被用于研究肿瘤血管系统,以提高癌症的检测和诊断。本文介绍了一项体内研究,对已腹膜内递送给IGROV-1荷瘤小鼠的充气中空二氧化硅微外壳和纳米外壳进行超声成像。与微气泡相比,这种微外壳配方通过外壳破裂和气体释放提供了强大的超声成像信号。新的图像处理促进了动物模型中微外壳的成像。尽管在实时成像下可以通过眼睛识别颗粒信号,但高背景使静止图像中的颗粒信号以及在肿瘤边界附近的实时图像中的粒子信号变得模糊。开发了利用粒子信号的瞬态特性来选择性地滤除背景信号的图像处理技术。通过应用图像配准、高通、中值、阈值和运动滤波,将粒子信号的短视频剪辑压缩为单个图像,从而解析肿瘤内的二氧化硅外壳。©2012美国真空学会。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Integrated processing of contrast pulse sequencing ultrasound imaging for enhanced active contrast of hollow gas filled silica nanoshells and microshells.

In recent years, there have been increasing developments in the field of contrast-enhanced ultrasound both in the creation of new contrast agents and in imaging modalities. These contrast agents have been employed to study tumor vasculature in order to improve cancer detection and diagnosis. An in vivo study is presented of ultrasound imaging of gas filled hollow silica microshells and nanoshells which have been delivered intraperitoneally to an IGROV-1 tumor bearing mouse. In contrast to microbubbles, this formulation of microshells provided strong ultrasound imaging signals by shell disruption and release of gas. Imaging of the microshells in an animal model was facilitated by novel image processing. Although the particle signal could be identified by eye under live imaging, high background obfuscated the particle signal in still images and near the borders of the tumor with live images. Image processing techniques were developed that employed the transient nature of the particle signal to selectively filter out the background signal. By applying image registration, high-pass, median, threshold, and motion filtering, a short video clip of the particle signal was compressed into a single image, thereby resolving the silica shells within the tumor. © 2012 American Vacuum Society.

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CiteScore
2.70
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