Abstract: An automated tissue section slicing, staining, and imaging system sequentially adheres tissue sections to a continuous substrate such that the staining, imaging, and interpretation of the tissue sections are readily carried out at high speed under machine control.

Abstract: The present disclosure relates to methods and apparatuses for sectioning and imaging tissue or other samples, which are then automatically captured to enable subsequent analysis. The apparatus acts as a slice capture mechanism for serial sectioning microscopy in a fashion which enables subsequent interfacing with secondary microscopic interrogations or for processing with molecular diagnostic tools. The slices are spatially indexed to allow specific slices to be recalled from a library via automated handling techniques described herein.

Abstract: The following concerns a method for co-localization of microscopy or histology stains by the assembly of a virtual image from one or more imaging operations. In particular, the method decreases the time required to obtain multiple labeled antigen or protein histology images of a biological sample. The method includes imaging the tissue as it is sliced by a microtome with a knife edge scanning microscope and spatially aligning the samples by the generated images. The spatial alignment of samples enabled by the method allows a panel of different antigen or protein secondary or functional stains to be compared across different sample slices, thereby allowing concurrent secondary stains of tissues and cells.

Abstract: The following concerns a method for co-localization of microscopy or histology stains by the assembly of a virtual image from one or more imaging operations. In particular, the method decreases the time required to obtain multiple labeled antigen or protein histology images of a biological sample. The method includes imaging the tissue as it is sliced by a microtome with a knife edge scanning microscope and spatially aligning the samples by the generated images. The spatial alignment of samples enabled by the method allows a panel of different antigen or protein secondary or functional stains to be compared across different sample slices, thereby allowing concurrent secondary stains of tissues and cells.

Abstract: An automated tissue section slicing, staining, and imaging system sequentially adheres tissue sections to a continuous substrate such that the staining, imaging, and interpretation of the tissue sections are readily carried out at high speed under machine control.

Abstract: The following concerns a method for co-localization of microscopy or histology stains by the assembly of a virtual image from one or more imaging operations. In particular, the method decreases the time required to obtain multiple labeled antigen or protein histology images of a biological sample. The method includes imaging the tissue as it is sliced by a microtome with a knife edge scanning microscope and spatially aligning the samples by the generated images. The spatial alignment of samples enabled by the method allows a panel of different antigen or protein secondary or functional stains to be compared across different sample slices, thereby allowing concurrent secondary stains of tissues and cells.

Abstract: The present disclosure relates to methods and apparatuses for sectioning and imaging tissue or other samples, which are then automatically captured to enable subsequent analysis. The apparatus acts as a slice capture mechanism for serial sectioning microscopy in a fashion which enables subsequent interfacing with secondary microscopic interrogations or for processing with molecular diagnostic tools. The slices are spatially indexed to allow specific slices to be recalled from a library via automated handling techniques described herein.

Abstract: Motion strategies in two and three dimensions for scanning microscope imaging are described. An object, sample, or specimen is mounted on a precision three-dimensional stage. The object is moved concurrently with respect to a first axis and a second axis orthogonal to the first against a cutting tool to cut the object. An image of the cut portion is generated as the object is moved. The cutting tool may act as an optical waveguide for illuminating the portion of the object cut. An optical element captures images of the cut and illuminated object. The object may further be concurrently moved with respect to a third axis orthogonal to both the first and second.