Abstract:
The invention relates to the domain of microscope based imaging. The invention provides methods and apparatuses for providing improved microscope based digital imaging solutions that are capable of providing high quality images with a high level of image detail. The invention additionally provides solutions for artificial intelligence based controlling of a digital microscope's imaging functions to enable bright field/dark field imaging functionality to be combined with spectroscopic functions to obtain higher detail and more meaningful information about a specimen sample.
Abstract:
The present invention provides a technology whereby relative positioning in the horizontal direction between a specimen observation area in a specimen container and an imaging field of view can be reliably performed, even prior to adjusting the focal position in the vertical direction using an auto-focus system. This specimen observation apparatus: obtains a luminance value for an image at a plurality of locations in the specimen container, prior to performing auto-focus; and uses the number of high-luminance regions and the width of those regions and identifies a central position, in the horizontal direction, in the specimen container or uses the number of low-luminance regions and the width of those regions and identifies the central position, in the horizontal direction, in the specimen container.
Abstract:
A dynamic focus and zoom system with three MEMS mirrors, three prisms, three beam splitters, three fixed lenses and an optical relay, all within a housing. The second prism, first and second fixed lenses, and first beam splitter are aligned linearly along a longitudinal axis of the optical relay. The first and second MEMS mirrors are linearly aligned with one another at a ninety-degree angle to such longitudinal axis. The third MEMS mirror, third fixed lens, third wave plate, third beam splitter and third prism are linearly aligned with one another at a ninety-degree angle to the same longitudinal axis. The third prism abuts up against the center of the optical relay between the first and second fixed lenses and is linearly aligned with the first prism such that the linear alignment of the first and third prisms is parallel to the longitudinal axis of the optical relay.
Abstract:
To provide a microscope including: an objective optical system that condenses light from a sample; a relay optical system that relays the light condensed by the objective optical system; a photodetector detects the light coming from the objective optical system and relayed by the relay optical system; and a variable-focus optical system disposed at a position between the photodetector and the objective optical system, the position being optically conjugate to a pupil of the objective optical system, the variable-focus optical system being capable of changing a focal position of the objective optical system in a direction along an objective optical axis.
Abstract:
The subject matter of the present disclosure generally relates to objective lens changers for optical instruments. In one embodiment, an objective lens changer includes an objective lens carrier moveably attached to a changer frame by a mechanical link arrangement. The objective lens carrier includes two or more objective lens positions. The mechanical link arrangement includes a first link section to provide translation of the objective lens carrier between the objective lens positions and a second link section arranged to control an alignment of the objective lens position with respect to the optical axis of the optical instrument.
Abstract:
A method for forming an immersion agent film between the sample holder and the objective of a microscope, comprising an automatic immersion module for supplying immersion agent from an immersion agent reservoir to a target position on the sample holder or on the positioning stage, the automatic immersion module having a spraying device with a nozzle connected to a pump for the purpose of generating an immersion agent jet. A dosed immersion agent jet is sprayed via the automatic immersion module onto a target position on the sample holder or a position on the positioning stage, at a defined speed.
Abstract:
A high content imaging system and a method of operating the high content imaging system are disclosed. A microscope has a first objective lens and a second objective lens, and an objective lens database has first and second transformation values associated with the first and the second objective lenses, respectively. A microscope controller operates the microscope with the first objective lens to develop first values of acquisition parameters. A configuration module automatically determines second values of the acquisition parameters using the first values of the acquisition parameters, first transformation values associated with the first objective lens, and second transformation values associated with the second objective lens. The microscope controller operates the microscope using the second objective lens and the second values of the acquisition parameters.
Abstract:
An optical device magnification level reader includes a base configured for attachment to an optical device, such as a microscope, where the base supports other components of the reader including a support arm and an electronic scanner. At least two indicia elements are positioned at different locations along the microscope. The different locations correspond to different respective magnification levels of the microscope. The electronic scanner is coupled to the base via the support arm, and is repositionable relative to the base and indicia elements to achieve proper alignment. The electronic scanner is in electronic communication with a computer associated with the microscope and is operable to detect the indicia element that corresponds to a current selected magnification level of the microscope, so that the electronic scanner is operable to send to the computer a signal indicative of the selected magnification level.
Abstract:
A microscope includes a driving controller, a position detector, an image capturing device, an image generator, a first correction amount detector, a second correction amount detector, and a decision device for correction amount. The driving controller changes an image pickup area of a sample. The position detector detects position information of the driving controller. The image capturing device captures frame images in the image pickup area. The first and second correction amount detectors respectively detect first and second correction amounts from the frame images. The decision device for correction amount compares a prescribed value and the first correction amount, and thereby selects one of the first correction amount and the second correction amount. The image generator pastes the frame images together on the basis of the first or second correction amount selected by the decision device for correction amount, and thereby assembles a pasted-together image.
Abstract:
An image processing device includes: an image acquiring unit that acquires first and second image groups, each image sharing a common part of a subject with the other image in different first and second directions; a calculating unit that calculates, as a shading component, a ratio of luminance of an area in one or more images, the area sharing a common subject with another area including a flat area whose shading component is constant in a single image other than the one or more images, to luminance of the another area, for each of the first and second image groups; and a correcting unit that performs a shading correction on shading areas in the images using the shading component. The shading component includes a normalized shading component based on luminance of the flat area, and a non-normalized shading component based on luminance of an area other than the flat area.