Abstract: A fluorescence microscope for obtaining super-resolution images of a sample labeled with at least one fluorescent label by combining localization microscopy and structured illumination microscopy is provided. The fluorescence microscope includes one or more light sources, an illumination system having a structured illumination path for illuminating the sample with structured illumination light and a localization illumination path for illuminating the sample with localization illumination light.

Abstract: A method for non-invasive observations of a fundus using an ophthalmoscope is provided. The method includes illuminating a retinal region of an eye by projecting an illumination pattern of illumination light onto the retinal region, at least one of detecting a portion of fluorescent light emitted from the retinal region and detecting a portion of illumination light reflected from the retinal region, thereby capturing a series of images of the retinal region at a plurality of different relative positions of the retinal region with respect to the illumination pattern projected onto the retinal region, wherein between the capturing of at least two images of the series the relative position of the retinal region with respect to the illumination pattern projected onto the retinal region is shifted in a non-controlled manner, and processing the captured images to extract a sub-resolution image of the retinal region.

Abstract: A fluorescence microscope for obtaining super-resolution images of a sample labeled with at least one fluorescent label by combining localization microscopy and structured illumination microscopy is provided. The fluorescence microscope includes one or more light sources, an illumination system having a structured illumination path for illuminating the sample with structured illumination light and a localization illumination path for illuminating the sample with localization illumination light.

Abstract: A method for non-invasive observations of a fundus using an ophthalmoscope is provided. The method includes illuminating a retinal region of an eye by projecting an illumination pattern of illumination light onto the retinal region, at least one of detecting a portion of fluorescent light emitted from the retinal region and detecting a portion of illumination light reflected from the retinal region, thereby capturing a series of images of the retinal region at a plurality of different relative positions of the retinal region with respect to the illumination pattern projected onto the retinal region, wherein between the capturing of at least two images of the series the relative position of the retinal region with respect to the illumination pattern projected onto the retinal region is shifted in a non-controlled manner, and processing the captured images to extract a sub-resolution image of the retinal region.

Abstract: A method for obtaining a sub-resolution image of a specimen using a microscope is provided. The method includes projecting an illumination pattern of illumination light onto the specimen, thereby illuminating the specimen, at least one of detecting at least a portion of fluorescent light emitted from the specimen and detecting at least a portion of illumination light reflected from the specimen, thereby capturing a series of images of the specimen at a plurality of different relative positions of the specimen with respect to the illumination pattern projected onto the specimen, wherein between the capturing of at least two images of the series the relative position of the specimen with respect to the illumination pattern projected onto the specimen is shifted in a non-controlled manner, and processing the captured images to extract a sub-resolution image of the specimen.