Optical and Optoacoustic Imaging.

Daniel Razansky, Vasilis Ntziachristos
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引用次数: 2

Abstract

The present chapter summarizes progress with optical methods that go beyond human vision. The focus is on two particular technologies: fluorescence molecular imaging and optoacoustic (photoacoustic) imaging. The rationale for the selection of these two methods is that in contrast to optical microscopy techniques, both fluorescence and optoacoustic imaging can achieve large fields of view, i.e., spanning several centimeters in two or three dimensions. Such fields of views relate better to human vision and can visualize large parts of tissue, a necessary premise for clinical detection. Conversely, optical microscopy methods only scan millimeter-sized dimensions or smaller. With such operational capacity, optical microscopy methods need to be guided by another visualization technique in order to scan a very specific area in tissue and typically only provide superficial measurements, i.e., information from depths that are of the order of 0.05-1 mm. This practice has generally limited their clinical applicability to some niche applications, such as optical coherence tomography of the retina. On the other hand, fluorescence molecular imaging and optoacoustic imaging emerge as more global optical imaging methods with wide applications in surgery, endoscopy, and non-invasive clinical imaging, as summarized in the following. The current progress in this field is based on a volume of recent review and other literature that highlights key advances achieved in technology and biomedical applications. Context and figures from references from the authors of this chapter have been used here, as it reflects our general view of the current status of the field.

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光学和光声成像。
本章总结了超越人类视觉的光学方法的进展。重点是两个特定的技术:荧光分子成像和光声(光声)成像。选择这两种方法的基本原理是,与光学显微镜技术相比,荧光和光声成像都可以实现大视场,即在二维或三维上跨越几厘米。这样的视野与人类的视觉关系更好,可以看到大部分组织,这是临床检测的必要前提。相反,光学显微镜方法只能扫描毫米或更小的尺寸。有了这样的操作能力,光学显微镜方法需要由另一种可视化技术来指导,以便扫描组织中非常特定的区域,并且通常只提供表面测量,即来自0.05-1毫米量级的深度的信息。这种做法通常限制了它们的临床应用,例如视网膜的光学相干断层扫描。另一方面,荧光分子成像和光声成像作为更加全球化的光学成像方法出现,在外科、内窥镜、无创临床成像等领域有着广泛的应用,现总结如下。目前在这一领域取得的进展是基于最近的大量评论和其他文献,这些文献突出了在技术和生物医学应用方面取得的关键进展。本文使用了本章作者引用的背景和数据,因为它反映了我们对该领域现状的总体看法。
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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