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Hacking the optical diffraction limit: Review on recent developments of fluorescence nanoscopy 被引量:7

Hacking the optical diffraction limit: Review on recent developments of fluorescence nanoscopy
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摘要 Subject to the diffraction limit, the resolution of conventional optical microscopy is constrained to about 200 and 500 nm in the lateral and axial planes, respectively. The advantage of optical microscopy in the life sciences over electronic microscopy, especially fluorescence microscopy, drives scientists to develop novel "hacks" to reach nanoscale resolutions by optical means. In this review, three aspects of the techniques are discussed: (1) lateral super-resolution; (2) axial super-resolution; (3) super-resolution in three dimensions. The principles of how the methods achieve the cross-barrier resolution are discussed, and recent advances in current techniques are described. With these methods, the use of fluorescence microscopy is growing quickly toward a new era: fluorescence nanoscopy that will reveal 2 orders of magnitude more information on cellular structure and dynamics. Subject to the diffraction limit, the resolution of conventional optical microscopy is constrained to about 200 and 500 nm in the lateral and axial planes, respectively. The advantage of optical microscopy in the life sciences over electronic microscopy, espe- cially fluorescence microscopy, drives scientists to develop novel "hacks" to reach nanoscale resolutions by optical means. In this review, three aspects of the techniques are discussed: (1) lateral super-resolution; (2) axial super-resolution; (3) super-resolution in three dimensions. The principles of how the methods achieve the cross-barrier resolution are discussed, and recent advances in current techniques are described. With these methods, the use of fluorescence microscopy is growing quickly toward a new era: fluorescence nanoscopy that will reveal 2 orders of magnitude more information on cellular structure and dynamics.
出处 《Chinese Science Bulletin》 SCIE EI CAS 2011年第18期1857-1876,共20页
基金 supported by the National Basic Research Program of China (2005CB724302, 2010CB933901) the National Natural Science Foundation of China (60588101, 60808029) the National High-Tech Research and Development Program of China (2008AA030118) Shanghai Commission of Science and Technology (064119540, 08PJ14062) Shanghai Jiao Tong University Med-Engineering Fund (YG2009ZD201)
关键词 光学显微镜 荧光显微镜 衍射极限 黑客入侵 超分辨率 电子显微镜 超高分辨率 “黑客” optical nanoscopy, fluorescence microscopy, diffraction limit
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