对物镜光子增强(POPE)显微镜:增强荧光成像的光子收集。

Mark Tingey, Andrew Ruba, Samuel L Junod, Coby Rush, Jason Saredy, William E Brew, Weidong Yang
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引用次数: 0

摘要

荧光显微镜对于可视化生物结构和动力学是必不可少的,然而它的效率是有限的——超过一半的发射光子落在物镜的数值孔径之外而未被检测到。在这里,我们介绍了双物镜光子增强(POPE)显微镜,它增加了光子收集效率高达两倍使用单一激发源,单一探测器,双物镜。通过在倒置显微镜中将4f光学系统与放置在物镜对面的反射镜相结合,POPE将大量丢失的光子重新定向到探测路径中。POPE与超分辨率、共聚焦、会聚荧光和自体荧光模式兼容,提高了空间分辨率、采集速度和信噪比,特别是在光子有限的条件下。它已在荧光团溶液、亚细胞结构、活细胞和厚组织中得到验证,始终如一地增强成像性能。作为标准倒置显微镜的模块化和成本效益升级,POPE扩展了高灵敏度荧光成像的访问,并在细胞生物学,生物物理学和生物医学研究中实现了新的应用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Paired-objectives photon enhancement (POPE) microscopy: enhanced photon collection for fluorescence imaging.

Paired-objectives photon enhancement (POPE) microscopy: enhanced photon collection for fluorescence imaging.

Paired-objectives photon enhancement (POPE) microscopy: enhanced photon collection for fluorescence imaging.

Paired-objectives photon enhancement (POPE) microscopy: enhanced photon collection for fluorescence imaging.

Fluorescence microscopy is indispensable for visualizing biological structures and dynamics, yet its efficiency is limited-over half of emitted photons fall outside the objective's numerical aperture and go undetected. Here, we introduce Paired-Objectives Photon Enhancement (POPE) microscopy, which increases photon collection efficiency by up to two-fold using a single excitation source, single detector, and dual objectives. By integrating a 4f optical system with a reflective mirror positioned opposite the objective in an inverted microscope, POPE redirects a substantial portion of otherwise lost photons into the detection pathway. Compatible with super-resolution, confocal, epifluorescence, and autofluorescence modalities, POPE improves spatial resolution, acquisition speed, and signal-to-noise ratio, particularly under photon-limited conditions. It has been validated across fluorophore solutions, subcellular structures, live cells, and thick tissues, consistently enhancing imaging performance. As a modular and cost-effective upgrade for standard inverted microscopes, POPE extends access to high-sensitivity fluorescence imaging and enables new applications in cell biology, biophysics, and biomedical research.

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