A photoacoustic microscope includes: a light source which generates pulse light; a focusing optical system which focuses the pulse light emitted from the light source and irradiate a sample with the focused pulse light; a photoacoustic signal detection unit which detects an acoustic signal generated from the sample through irradiation of the pulse light; an image signal formation unit which forms an image signal of the sample based on the acoustic signal; an information unit having information representing a relation between intensity of the pulse light entering the sample and intensity of the acoustic signal generated from the sample; and a pulse light intensity changing unit which changes intensity of the pulse light from the light source based on the information.

An augmented reality microscope (ARM) includes an objective lens, an eyepiece, an N-ocular observation tube, where N is a positive integer greater than 2, an image obtaining assembly physically connected to the N-ocular observation tube by a physical interface on the N-ocular observation tube, and an image projection assembly including, an image projection apparatus, a lens apparatus, and a light splitting apparatus. Light generated by an observed object during observation that enters an optical path through the objective lens and light generated by the image projection apparatus that enters the optical path through the lens apparatus converges at the light splitting apparatus in the image projection assembly, the converged light passes through the N-ocular observation tube.

A microscope system for imaging at least one region of a sample includes: an image generating unit for microscopic imaging of a section of a sample region to be imaged acquired in an observation beam path; a movement unit for moving the section to be imaged into the observation beam path of the image generating unit; a graphic user interface displayed on a display for establishing a movement range corresponding to the sample region to be imaged by way of at least one user input, the graphic user interface displaying a coordinate system and, after input of at least one point in the displayed coordinate system, the movement range is established as a defined movement volume; and a control unit for activating the movement unit as a function of the defined movement volume so as to approach a set of sections corresponding to the defined movement volume in succession.

An image reproducing device includes one or more processors. The processor acquires image group data including a plurality of images and tag information on at least one tag. The images relate to a biological sample along time series. The tag information relates to an operation on the biological sample and is associated with at least part of the images. The processor selects from the plurality of images using the tag information, images to be reproduced along the time series as reproduction selected images. The processor outputs to a display, data relating to the images for the reproduction selected images to be reproduced along time series.

An imaging system is configured with an autofocus operation that refocuses multiple cameras of the imaging system on detected features of interest, instead of on the whole image of the sample. Focus measures are calculated on the detected features, and then aggregated to focus distances of actuator moving the camera array, the sample stage, or individual cameras based on a maximization of detected features to be in focus. After the refocus, the imaging system recaptures new images and analyzes features on the new images to generate statistical characterization of the sample based on the classification of the features.

A system for a microscope includes a display and an input interface. The system is configured to reproduce, in response to a user input to the input interface, a virtual tour of use of the microscope via the display. The system can be applied, for example, for teaching of microscopy at schools and universities.

A real-time monitoring microscopic imaging system for nitride MOCVD (metal organic chemical vapor deposition) epitaxial growth mode includes an observation window, an imaging lens set, a CCD (charge coupled device) camera, an image capture card and an image storage and display device, wherein: the observation window is provided at a top portion of a graphite carrier in an MOCVD reaction chamber and is formed by a thicker quartz glass to prevent temperature in the reaction chamber from damaging the lenses. The microscopic imaging system provided by the present invention has the resolution better than 1 μm, is able to distinguish the 2D growth mode and the 3D growth mode, observe whether the surface of the epitaxial wafer has screw dislocations in the MOCVD process, so as to observe the growth mode of the MOCVD epitaxial wafer in real time during the growth process.

A diagnosis support program causes a computer to execute a derivation procedure of deriving, on the basis of a first pathological image corresponding to a first affected tissue, history information regarding a history of viewing the first pathological image, and diagnostic information for the first affected tissue corresponding to the first pathological image, diagnosis support information for supporting diagnosis of a second pathological image corresponding to a second affected tissue to be diagnosed.

A microscope parameter controller for controlling microscope parameters for handling, maintaining and/or imaging a sample. The microscope parameter controller for controlling microscope parameters is configured to determine at least one predefined setting of microscope parameters from one or more user-defined user settings of microscope parameters.

An apparatus in related art has a problem in a presentation method of data to a user or a usability. A subject information obtaining apparatus includes a plurality of transducer elements that receive acoustic waves generated in a subject irradiated with light from a light source and transduce the acoustic waves into a plurality of reception signals, a processing unit configured to obtain a characteristic distribution indicating a distribution of characteristic information respectively corresponding to a plurality of positions in the subject by using the plurality of reception signals, in which the processing unit outputs image information for displaying a distribution image created by using the characteristic distribution and data indicating a time fluctuation of the characteristic information in a predetermined region of the distribution image within a same screen of a display unit.