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Open AccessJournal ArticleDOI

Surpassing the lateral resolution limit by a factor of two using structured illumination microscopy.

TLDR
Lateral resolution that exceeds the classical diffraction limit by a factor of two is achieved by using spatially structured illumination in a wide‐field fluorescence microscope with strikingly increased clarity compared to both conventional and confocal microscopes.
Abstract
Lateral resolution that exceeds the classical diffraction limit by a factor of two is achieved by using spatially structured illumination in a wide-field fluorescence microscope. The sample is illuminated with a series of excitation light patterns, which cause normally inaccessible high-resolution information to be encoded into the observed image. The recorded images are linearly processed to extract the new information and produce a reconstruction with twice the normal resolution. Unlike confocal microscopy, the resolution improvement is achieved with no need to discard any of the emission light. The method produces images of strikingly increased clarity compared to both conventional and confocal microscopes.

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Citations
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Journal ArticleDOI

Fast Axial-Scanning Widefield Microscopy With Constant Magnification and Resolution

TL;DR: In this paper, the use of electrically-addressable lens devices for performing fast non-mechanical axial scanning when imaging three-dimensional samples was proposed, which is based on the insertion of the tunable lens at the aperture stop of the microscope objective.
Journal ArticleDOI

Signal, noise and resolution in linear and nonlinear structured-illumination microscopy

TL;DR: 1D patterns are advantageous in the linear case, and that in the nonlinear case 2D patterns provide a slight signal‐to‐noise advantage under idealised conditions, but perform worse than 1D patterns in the presence of nonswitchable fluorescent background.
Journal ArticleDOI

Quantitative optical microscope with enhanced resolution using a pixelated liquid crystal spatial light modulator

TL;DR: This paper presents a brief account of a novel optical microscope, which combines the advantages of two well‐known techniques, namely phase contrast and phase stepping, to provide high contrast imaging and precision measurements.
Journal ArticleDOI

Seeing beyond the limit: A guide to choosing the right super-resolution microscopy technique.

TL;DR: In this article, the authors provide an overview and clarify the concepts underlying the most commonly available super-resolution techniques as well as guide researchers through all aspects that should be considered before opting for a given technique.
Journal ArticleDOI

Superresolution Localization Methods

TL;DR: This review examines several different families of fluorophore localization algorithms, comparing their complexity, performance, and range of applicability (e.g., whether they require particular types of experimental information, are optimized for specific situations, or are more general).
References
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BookDOI

Handbook of biological confocal microscopy

TL;DR: Methods for Three-Dimensional Imaging and Tutorial on Practical Confocal Microscopy and Use of the Confocal Test Specimen.
Journal ArticleDOI

Method of obtaining optical sectioning by using structured light in a conventional microscope

TL;DR: A simple method of obtaining optical sectioning in a conventional wide-field microscope by projecting a single-spatial-frequency grid pattern onto the object and processing images that are substantially similar to those obtained with confocal microscopes is described.
Journal ArticleDOI

Subdiffraction resolution in far-field fluorescence microscopy.

TL;DR: The resolution limit of scanning far-field fluorescence microscopy is overcame by disabling the fluorescence from the outer part of the focal spot by a spatially offset pulse.
Book ChapterDOI

Fluorescence microscopy in three dimensions.

TL;DR: This chapter has discussed the nature of image formation in three dimensions and dealt with several means to remove contaminating out-of-focus information and developed a method for extremely rapidly and accurately producing an in-focus, high-resolution "synthetic projection" image from a thick specimen.
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