Abstract:
A microscope system comprising an eyepiece, an objective that guides light from a sample to the eyepiece, a tube lens that is disposed on a light path between the eyepiece and the objective and forms an optical image of the sample on the basis of light therefrom, a projection apparatus that projects a projection image including a first assistance image onto an image plane on which the optical image is formed, and a processor that performs processes. The processes include generating projection image data representing the projection image. The first assistance image is an image of the sample in which a region wider than an actual field of view corresponding to the optical image is seen, The first assistance image is projected onto a portion of the image plane that is close to an outer edge of the optical image.
Abstract:
Provided is a cell-culturing apparatus including: an incubator that can maintain an interior thereof in an environment that is appropriate for growth of cells; a cell-culturing vessel that is accommodated inside the incubator; an optical-data acquisition unit that acquires optical data of a medium in the cell-culturing vessel; a medium changing unit that changes the medium in the cell-culturing vessel; and a controller, wherein a timing at which the medium is changed is determined on the basis of a change over time in the optical data acquired by the optical-data acquisition unit.
Abstract:
An image processing device includes an image acquisition section that acquires a captured image that includes an image of an object, the captured image being an image captured by an imaging section, a distance information acquisition section that acquires distance information based on the distance from the imaging section to the object when the imaging section captured the captured image, a known characteristic information acquisition section that acquires known characteristic information, the known characteristic information being information that represents known characteristics relating to the structure of the object, and a concavity-convexity determination section that performs a concavity-convexity determination process that specifies a concavity-convexity part of the object that agrees with the characteristics specified by the known characteristic information, from the object captured within the captured image, based on the distance information and the known characteristic information.
Abstract:
An endoscope image processing device includes an image acquisition section and a boundary region correction section. The image acquisition section acquires image signals that form a front image corresponding to a front field of view and a side image corresponding to a side field of view as a single acquired image. A region within the acquired image that corresponds to the front field of view is referred to as a front region, and a region within the acquired image that corresponds to the side field of view is referred to as a side region. The boundary area correction section performs a process that causes at least one of an image of the front region and an image of the side region to overlap a boundary region that is a region that defines a boundary between the front region and the side region.
Abstract:
Provided are an apparatus and a method that can acquire a shaded three-dimensional image having a high contrast for a thick cell culture specimen. Provided are an apparatus and a method that observe a biological sample accommodated in a container by a modulation contrast method using a near-infrared wavelength, at least the bottom surface of the container being formed of a plastic raw material.
Abstract:
An endoscope apparatus includes a processor including hardware. The processor implements a focus control process that is implemented by controlling the position of a focus lens included in an optical system that is included in an imaging device, and a mist detection process that detects whether or not mist has occurred. The processor implements the focus control process that stops a focus operation that is performed during the focus control process when the mist detection process has detected that mist has occurred.
Abstract:
An image processing device includes an isolated point noise detection section, and an isolated point noise correction section. The isolated point noise detection section determines whether or not isolated point noise is included within a given area based on a first index value that represents the range of first to nth pixel values being obtained by arranging the pixel values of pixels within the given area including an attention pixel in ascending or descending order, and a second index value that represents the range of a pixel value group being obtained by excluding at least one of the first pixel value and the nth pixel value from the first to nth pixel values. The isolated point noise detection section determines whether or not the attention pixel is a pixel that corresponds to isolated point noise when it has been determined that isolated point noise is included within the given area.
Abstract:
An illumination device includes a phase-modulation type spatial light modulator that is arranged at a position optically conjugate to a pupil position of an illumination lens between a light source and the illumination lens for irradiating light emitted from the light source on a sample, and a pupil projecting optics system for projecting at least one area within the pupil of the illumination lens onto a plurality of different areas of the spatial light modulator.
Abstract:
A focus control device includes an image acquisition section that acquires a captured image that has been captured by an imaging optical system, an evaluation value calculation section that calculates a focus evaluation value based on the captured image, the focus evaluation value being used to evaluate an in-focus state of an object in the captured image, a determination information calculation section that calculates determination information based on the focus evaluation value, a determination section that determines whether to start or stop an autofocus control process based on the determination information, and a focus control section that starts or stops the autofocus control process based on a determination result of the determination section.
Abstract:
A microscope system includes an eyepiece, an objective, a tube lens, an imaging apparatus, a projection apparatus that projects a projection image onto an image plane between the tube lens and the eyepiece on which an optical image is formed, and a control apparatus. The control apparatus manages microscope information including at least a first magnification at which an image of the sample is projected onto the image plane, a second magnification at which an image of the sample is projected onto the imaging apparatus, a third magnification at which an image of the projection apparatus is projected onto the image plane, and sizes of the imaging apparatus and the projection apparatus. The control apparatus includes a processor. The processor generates projection image data representing the projection image based on at least the microscope information.