2005
DOI: 10.1016/j.copbio.2005.01.003
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From micro to nano: recent advances in high-resolution microscopy

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Cited by 140 publications
(84 citation statements)
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“…Fluorescence microscopy has proven to be an invaluable method for imaging in cell biology, primarily due to its high sensitivity and the wide range of probes available for the selective labelling of cellular structures [2]. While conventional fluorescence microscopy is ultimately limited in the spatial resolution achievable (diffraction limited to ~200nm), spatial resolution can be improved by using point scanning methods such as confocal microscopy [3], and other sophisticated microscopy developments such as multiphoton, stimulated emission depletion, 4-Pi, image interference and near-field scanning microscopy [4].…”
Section: Introductionmentioning
confidence: 99%
“…Fluorescence microscopy has proven to be an invaluable method for imaging in cell biology, primarily due to its high sensitivity and the wide range of probes available for the selective labelling of cellular structures [2]. While conventional fluorescence microscopy is ultimately limited in the spatial resolution achievable (diffraction limited to ~200nm), spatial resolution can be improved by using point scanning methods such as confocal microscopy [3], and other sophisticated microscopy developments such as multiphoton, stimulated emission depletion, 4-Pi, image interference and near-field scanning microscopy [4].…”
Section: Introductionmentioning
confidence: 99%
“…Advances in molecular biology, organic chemistry, and materials science have resulted in an impressive toolbox of fluorescent proteins (GFP and variants) and nanocrystals (quantum dots) and have enabled the study of protein expression, localisation, conformation, diffusion, turnover, trafficking, and interaction (Giepmans et al 2006;Lippincott-Schwartz and Patterson 2003). Hardware advances in optical systems design have taken light microscopy from wide field to (multiphoton) confocal and spinning disk microscopy (Stephens and Allan 2003), and more recent efforts to break the diffraction barrier have further extended the palette (Garini et al 2005;Hell 2009). Together, these developments have redefined biological research by enabling the switch from fixed to living cells and from qualitative to quantitative imaging (Tsien 2003).…”
Section: Live-cell Imagingmentioning
confidence: 99%
“…The transition from two-dimensional (2D) to threedimensional (3D) imaging has allowed us to better understand how the nucleus is spatially organized. In addition to 3D approaches, live cell imaging has added a new dimension to our ability of developing clear concepts about the dynamics of nuclear organization (Liu and Chang, 2003;Garini et al, 2005). Live cell imaging with 3D resolution is often called fourdimensional (4D) imaging, where the fourth dimension of time is added to the imaging in the x,y, and z planes, that constitute a 3D image.…”
Section: Imaging Of Nuclear Structuresmentioning
confidence: 99%