Abstract: Provided is a microscope system including: a plurality of objective lenses that are selectively used to collect fluorescence from a specimen; a detecting unit that obtains image information of the specimen on the basis of the fluorescence collected by the objective lens; and an adjustment unit that adjusts the observation range of the specimen S and that divides the observation range into one or more observation regions corresponding to a capture range captured by the detecting unit, wherein the adjustment unit calculates an observation magnification at which the entire well is included in the observation range, the number of observation regions is minimized, and the resolution becomes the highest, on the basis of information about the size of the well in a multi-plate for accommodating the specimen and information about an objective magnification of the objective lens, and adjusts the observation range on the basis of the calculated observation magnification.

Abstract: It is possible to easily acquire an original image of a specimen that satisfies necessary conditions for generating a super-resolution image. The present invention provides a scanning microscope apparatus that includes an objective lens that irradiates a specimen with laser light emitted from a laser light source; a scanning portion that scans the laser light irradiated onto the specimen via the objective lens; and a PC that acquires an original image of the specimen, calculates, from the magnification of the objective lens, information about the number of pixels of the original image or information about the zoom magnification of the original image that achieves the per-pixel pixel resolution needed to generate a super-resolution image, and controls the scanning portion or image acquisition according to the calculated information about the number of pixels or information about the zoom magnification.

Abstract: Provided is a microscope system including: a plurality of objective lenses that are selectively used to collect fluorescence from a specimen; a detecting unit that obtains image information of the specimen on the basis of the fluorescence collected by the objective lens; and an adjustment unit that adjusts the observation range of the specimen S and that divides the observation range into one or more observation regions corresponding to a capture range captured by the detecting unit, wherein the adjustment unit calculates an observation magnification at which the entire well is included in the observation range, the number of observation regions is minimized, and the resolution becomes the highest, on the basis of information about the size of the well in a multi-plate for accommodating the specimen and information about an objective magnification of the objective lens, and adjusts the observation range on the basis of the calculated observation magnification.

Abstract: Unnecessary degradation of a light detector is prevented.

Abstract: A microscope system including: an observation optical system acquiring an image of an observation position of a sample; a stimulation optical system irradiating the sample with stimulation light; an observation position setting section setting the observation positions; a stimulation position setting section setting a common stimulation position; a stage switching the observation positions; a synchronization condition setting section setting a common synchronization condition in which the timing of the image acquisition is associated with the timing of the irradiation with stimulation light; an observation condition registration section registering the common stimulation position and the common synchronization condition as observation conditions associated with each of the observation positions; and a control section, according to the registered conditions, switching the observation positions, making the observation optical system acquire an image of each of the observation positions, and making the stimulati

Abstract: A microscope apparatus includes: an objective lens; a CCD that constructs an image of a sample S; an illumination intensity change unit for adjusting an intensity of excitation light; a sensitivity adjustment unit for adjusting a detection sensitivity by the CCD; a galvanometer mirror for changing a light focusing position of excitation light at a pupil position of the objective lens; a storage unit that stores, for each observation method, a predetermined intensity, a predetermined detection sensitivity, and the light focusing position; and a control unit that switches the observation method, reads out the intensity, the detection sensitivity, and the light focusing position according to the observation method based on a synchronization signal synchronized with a frame signal for constructing an image, and controls the illumination intensity change unit, the sensitivity adjustment unit, and the galvanometer mirror.

Abstract: It is possible to easily acquire an original image of a specimen that satisfies necessary conditions for generating a super-resolution image. The present invention provides a scanning microscope apparatus that includes an objective lens that irradiates a specimen with laser light emitted from a laser light source; a scanning portion that scans the laser light irradiated onto the specimen via the objective lens; and a PC that acquires an original image of the specimen, calculates, from the magnification of the objective lens, information about the number of pixels of the original image or information about the zoom magnification of the original image that achieves the per-pixel pixel resolution needed to generate a super-resolution image, and controls the scanning portion or image acquisition according to the calculated information about the number of pixels or information about the zoom magnification.

Abstract: A microscope system including: an observation optical system acquiring an image of an observation position of a sample; a stimulation optical system irradiating the sample with stimulation light; an observation position setting section setting the observation positions; a stimulation position setting section setting a common stimulation position; a stage switching the observation positions; a synchronization condition setting section setting a common synchronization condition in which the timing of the image acquisition is associated with the timing of the irradiation with stimulation light; an observation condition registration section registering the common stimulation position and the common synchronization condition as observation conditions associated with each of the observation positions; and a control section, according to the registered conditions, switching the observation positions, making the observation optical system acquire an image of each of the observation positions, and making the stimulati

Abstract: Unnecessary degradation of a light detector is prevented.

Abstract: This microscope apparatus is provided with the following elements: an objective lens; a CCD that constructs an image of a sample S; an illumination intensity change unit for adjusting an intensity of excitation light; an sensitivity adjustment unit for adjusting a detection sensitivity by the CCD; a galvanometer mirror for changing a light focusing position of excitation light at a pupil position of the objective lens; a storage unit that stores, for each observation method, a predetermined intensity, a predetermined detection sensitivity, and the light focusing position; and a control unit that switches the observation method, reads out the intensity, the detection sensitivity, and the light focusing position according to the observation method based on a synchronization signal synchronized with a frame signal for constructing an image, and controls the illumination intensity change unit, the sensitivity adjustment unit, and the galvanometer mirror.

Abstract: A scanning microscope includes a light source unit that projects laser light, an optical system that converges and applies the laser light onto data obtaining points on a specimen, and a data obtaining order deciding unit that decides a data obtaining order such that adjacent data obtaining points are not consecutive in the data obtaining order. A scanning unit scans the laser light in accordance with the data obtaining order, a detector detects detection light from the data obtaining points, respectively, and a storage unit stores luminance information on the detection light detected by the detector in association with positional information on the data obtaining points, respectively. An image formation unit forms a two-dimensional image based on the stored associated luminance and positional information.

Abstract: An observation laser beam for observing a specimen and a manipulation laser beam for manipulating the specimen are multiplexed; the multiplexed beams irradiate the specimen, which is mounted on a stage, via an objective lens; and fluorescence emitted from inside the specimen in the observation optical axis direction is detected. In a preparation mode, a focal-position adjusting unit is controlled so that the focal position of the observation laser beam and the focal position of the manipulation laser beam are coincident, independent of the movement of the objective lens or the stage by a focusing mechanism; and in an observation mode, the focal-position adjusting unit is controlled so as to cancel out the shift of the focal position of the manipulation laser beam according to the movement of the objective lens or the stage.

Abstract: A laser scanning microscope enables an observation of a specimen through emitting a laser beam onto the specimen marked by a plurality of fluorescent probes and receiving a fluorescent light back from the specimen corresponding to the emission, and comprises a laser source for generating a laser beam in an excitation wavelength corresponding to the plurality of fluorescent probes, a deflector unit for scanning the generated laser beam over an observation plane of the specimen, a dispersion unit for dispersing a fluorescent light from the specimen to extract it by an arbitrary wavelength interval, a spectral data acquisition condition setting unit for setting a condition for the dispersion unit acquiring a spectral data based on spectrum characteristics of the plurality of fluorescent probes, a dispersion control unit for controlling the dispersion unit based on the set spectral data acquisition condition.

Abstract: An observation laser beam for observing a specimen and a manipulation laser beam for manipulating the specimen are multiplexed; the multiplexed beams irradiate the specimen, which is mounted on a stage, via an objective lens; and fluorescence emitted from inside the specimen in the observation optical axis direction is detected. In a preparation mode, a focal-position adjusting unit is controlled so that the focal position of the observation laser beam and the focal position of the manipulation laser beam are coincident, independent of the movement of the objective lens or the stage by a focusing mechanism; and in an observation mode, the focal-position adjusting unit is controlled so as to cancel out the shift of the focal position of the manipulation laser beam according to the movement of the objective lens or the stage.

Abstract: A condition-setting apparatus improves the flexibility of examination. The condition-setting apparatus includes a display unit configured to display a prescan image and a region-specifying section configured to specify at least one region to be irradiated with a laser beam on a prescan screen displaying the prescan image. When a region is specified by the region-specifying section, the display unit displays the specified region and the order of the laser beam irradiation on the prescan image.

Abstract: A scanning microscope includes a light source unit that projects laser light, an optical system that converges and applies the laser light onto a data obtaining point on a specimen, a data obtaining order deciding unit that decides a data obtaining order in which adjacent data obtaining points are not consecutive, a scanning unit that scans the laser light in accordance with the data obtaining order, a detector that detects detection light from the data obtaining point, a storage unit that stores luminance information on the detection light detected by the detector in association with positional information on the data obtaining point, and an image formation unit that forms a two-dimensional image on the basis of the association of the luminance information with the positional information.

Abstract: A scanning laser microscope is configured to include: a scanner unit for performing two-dimensional scanning on a specimen using a light beam; a photodetector unit for detecting a light from the specimen; an A/D converter for converting an output signal from the photodetector unit into a digital signal; a CPU for controlling the scanner unit and generating image data of the specimen from the digital signal output from the A/D converter; a display unit for displaying the image data; an external device for outputting an external signal; and a data storage unit, connected to the external device, for recording the time when the external signal is output. With the configuration, the data stored in the data storage unit can be read by the CPU.

Abstract: A laser scanning microscope enables an observation of a specimen through emitting a laser beam onto the specimen marked by a plurality of fluorescent probes and receiving a fluorescent light back from the specimen corresponding to the emission, and comprises a laser source for generating a laser beam in an excitation wavelength corresponding to the plurality of fluorescent probes, a deflector unit for scanning the generated laser beam over an observation plane of the specimen, a dispersion unit for dispersing a fluorescent light from the specimen to extract it by an arbitrary wavelength interval, a spectral data acquisition condition setting unit for setting a condition for the dispersion unit acquiring a spectral data based on spectrum characteristics of the plurality of fluorescent probes, a dispersion control unit for controlling the dispersion unit based on the set spectral data acquisition condition.

Abstract: A scanning laser microscope is configured to include: a scanner unit for performing two-dimensional scanning on a specimen using a light beam; a photodetector unit for detecting a light from the specimen; an A/D converter for converting an output signal from the photodetector unit into a digital signal; a CPU for controlling the scanner unit and generating image data of the specimen from the digital signal output from the A/D converter; a display unit for displaying the image data; an external device for outputting an external signal; and a data storage unit, connected to the external device, for recording the time when the external signal is output. With the configuration, the data stored in the data storage unit can be read by the CPU.