用于实时功能光声微血管成像的超宽带高密度聚合物球形阵列

IF 20.6 Q1 OPTICS
Pavel V. Subochev, Xosé Luís Deán-Ben, Zhenyue Chen, Maxim B. Prudnikov, Vladimir A. Vorobev, Alexey A. Kurnikov, Anna G. Orlova, Anna S. Postnikova, Alexey V. Kharitonov, Mikhail D. Proyavin, Roman I. Ovsyannikov, Anatoly G. Sanin, Mikhail Y. Kirillin, Francisco Montero de Espinosa, Ilya V. Turchin, Daniel Razansky
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引用次数: 0

摘要

由于光声(OA)层析成像具有独特的能力,只需一次闪光即可捕获体积层析成像信息,因此最近证明了超快的成像速度,最终受到超声飞行时间的限制。该方法的可扩展性和可实现的空间分辨率受到目前用于OA信号检测的压电复合阵列的窄带宽的限制。在这里,我们报告了基于柔性聚偏二氟乙烯薄膜的高密度球面阵列技术的首次实现,该技术具有超宽带(0.3-40 MHz)亚mm2面积单元,从而实现了22-35 μ m空间分辨率的实时多尺度体成像,具有优越的图像保真度,并且与等效的压电复合材料相比,信噪比提高了一个数量级。我们进一步展示了五维(光谱,时间分辨率,体积)成像能力,通过可视化快速刺激引起的小鼠脑氧合变化和对人体深层微血管进行实时功能血管造影。因此,这项新技术利用了OA的真正潜力,实现了跨尺度快速生物动力学的定量高分辨率可视化。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Ultrawideband high density polymer-based spherical array for real-time functional optoacoustic micro-angiography

Ultrawideband high density polymer-based spherical array for real-time functional optoacoustic micro-angiography

Owing to its unique ability to capture volumetric tomographic information with a single light flash, optoacoustic (OA) tomography has recently demonstrated ultrafast imaging speeds ultimately limited by the ultrasound time-of-flight. The method’s scalability and the achievable spatial resolution are yet limited by the narrow bandwidth of piezo-composite arrays currently employed for OA signal detection. Here we report on the first implementation of high-density spherical array technology based on flexible polyvinylidene difluoride films featuring ultrawideband (0.3–40 MHz) sub mm2 area elements, thus enabling real-time multi-scale volumetric imaging with 22–35 µm spatial resolution, superior image fidelity and over an order of magnitude signal-to-noise enhancement compared to piezo-composite equivalents. We further demonstrate five-dimensional (spectroscopic, time-resolved, volumetric) imaging capabilities by visualizing fast stimulus-evoked cerebral oxygenation changes in mice and performing real-time functional angiography of deep human micro-vasculature. The new technology thus leverages the true potential of OA for quantitative high-resolution visualization of rapid bio-dynamics across scales.

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来源期刊
Light-Science & Applications
Light-Science & Applications 数理科学, 物理学I, 光学, 凝聚态物性 II :电子结构、电学、磁学和光学性质, 无机非金属材料, 无机非金属类光电信息与功能材料, 工程与材料, 信息科学, 光学和光电子学, 光学和光电子材料, 非线性光学与量子光学
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803
审稿时长
2.1 months
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