Abstract: The invention relates to a microscope having an excitation beam path for guiding excitation light, having a laser light source for providing a laser light beam as excitation light and having a scanning apparatus for aligning and moving a focused laser light beam in the entrance pupil of an illumination objective; wherein the laser focus is directed into an entrance point that is offset with respect to the optical axis of the illumination objective; and also having a detection beam path for guiding detection light, comprising a microlens array having a focal plane for generating partial imaged presentations and a detector arranged in the focal plane of the microlens array for capturing the partial imaged presentations. In addition, an evaluation unit for evaluating the captured image signals of the detector in accordance with light-field technology is present. The invention additionally relates to a method for microscopic image generation.

Abstract: A binocular eyepiece assembly for telescope, the assembly includes a casing, an optical lenses assembly, a beam splitter, a first reflecting mirror unit and a second reflecting mirror unit. The casing has a left ocular portion, a right ocular portion and a light receiving portion. The optical lenses assembly, the beam splitter, the first reflecting mirror unit and the second reflecting mirror unit are disposed inside the casing, and furthermore, the beam splitter is disposed on the light axis of the light axis. The beam splitter has a first reflecting surface, a second reflecting surface and an included angle. The included angle is disposed between the first reflecting surface and the second reflecting surface. The included angle is a right angle. A light beam is received via the light receiving portion, and the light beam will be transmitted to the optical lenses assembly and a beam splitter.

Abstract: A system and method for using a variable direction of view endoscope in conjunction with an electromechanical endoscope holder.

Abstract: An optical system for endoscopes for which the corrections of the geometrical optical aberrations for multiple wavelengths meet the diffraction limit of the optical system. The optical system is categorized by lens groups. The glass selection for each of these lens groups uses the Hartmann Dispersion Formula. For the glasses in each lens group, limited ranges for the ?o value of the Hartmann Dispersion Formula are set. These ranges are set based on the contribution of the individual lens groups to the overall chromatic aberrations.

Abstract: To provide a shutter mechanism that has high durability and is capable of operating at high speed and a microscope that includes the shutter mechanism. A microscope according to the present technology includes an optical system, a first light-receiving element, and a shutter mechanism. The shutter mechanism includes a rotation power source that generates rotation power, a crank that converts the rotation power generated by the rotation power source into a back-and-forth movement, and a shutter connected to the crank, the shutter moving back and forth according to the crank between a first position at which a first optical path from the optical system to the first light-receiving element is blocked and a second position at which the first optical path is not blocked.

Abstract: A stereo microscope capable of not only adjusting the three dimensional effect of stereoscopic image but also focusing exactly even when the three dimensional effect of stereoscopic image is adjusted, is provided. A spacing distance of a pair of zoom unit can be adjusted so that a user can adjust three dimensional effect of image seen through an ocular lens according to personal tendency to improve convenience. Additionally, an object with a depth such as a hole can be exactly observed without interference of a boundary. Further, even though the three dimensional effect of an image is adjusted by adjusting the spacing distance of the pair of zoom units, the focus of optical system can be exactly adjusted.

Abstract: The present invention relates to a surgical microscope comprising a first tube (8) and a second tube (9), wherein at least one sensor (21, 22, 23, 24, 25a, 25b) for sensing the position and/or orientation of the surgical microscope in three dimensions is provided, the first tube (8) and/or the second tube (9) being provided with a positioning and/or orientation device (110, 13, 18, 19, 13a, 18a, 19a) for positioning and/or orienting the first and/or the second tube (8, 9) as a function of a position and/or orientation, sensed by means of the at least one sensor (21, 22, 23, 24, 25a, 25b), of the surgical microscope in space.

Abstract: A variable power optical system used in a parallel stereoscopic microscope apparatus includes a plurality of optical paths in which optical axes are arranged substantially parallel, a plurality of lens groups that change the magnification of a diameter of a luminous flux entering substantially parallel to each of the optical paths to eject the luminous flux as substantially parallel luminous fluxes, and at least two lens groups move along the optical axis in each optical path according to the change in the magnification. At least two lens groups of at least one optical path among the plurality of optical paths move in a direction including a component perpendicular to the optical axis according to the change in the magnification at at least part of a section where the magnification is changed from a high-power end state to a low-power end.

Abstract: A microscope (1) having a principal observer's beam path (2a) and an assistant's beam path (3a, 3b), and having an optical beam splitter device (5, 15) for generating a documentation beam path (4), where the beam splitter device (5, 15) in a first position outcouples the documentation beam path from the principal observer's beam path (2a), and in a second position outcouples it from the assistant's beam path (3b).

Abstract: A multi-mode optical fiber delivers light from a radiation source to a multi-focal confocal microscope with reasonable efficiency. A core diameter of the multi-mode fiber is selected such that an etendue of light emitted from the fiber is not substantially greater than a total etendue of light passing through a plurality of pinholes in a pinhole array of the multi-focal confocal microscope. The core diameter may be selected taking into account a specific optical geometry of the multi-focal confocal microscope, including pinhole diameter and focal lengths of relevant optical elements. For coherent radiation sources, phase randomization may be included. A multi-mode fiber enables the use of a variety of radiation sources and wavelengths in a multi-focal confocal microscope, since the coupling of the radiation source to the multi-mode fiber is less sensitive to mechanical and temperature influences than coupling the radiation source to a single mode fiber.

Abstract: A microscope image pickup system includes: alight source; an object lens; a display device; a record device; a capture device for performing a preview mode in which an image of the test object obtained by the object lens is repeatedly captured and a plurality of captured images are continuously displayed on the display device, or an image record mode in which the image of the test object is captured and the captured image is recorded on the record device; an illumination light amount control device for controlling the amount of light of the illumination light; and a system control device for controlling an operation of the illumination light amount control device depending on the preview mode or the image record mode performed by the capture device.

Abstract: An objective lens assembly 316 to be attached to a surgical microscope includes an objective lens 328, a roll section 318, a pitch section 320, and an attachment mechanism 330. The roll section 318 allows the objective lens 328 to be rotated sideways without causing a pair of eyepieces 324 to move. The pitch section 320 allows the objective lens 328 to be rotated towards and away from the pair of eyepieces 324 without causing the pair of eyepieces to move. A surgical microscope 300 including the objective lens assembly 316 also includes a microscope body 308 and support structure 302, 304, 306, and 310.

Abstract: A movable objective lens assembly that includes an infinity-corrected objective lens providing the microscope with an optical field of view. The assembly permits the imaging of a specimen under investigation over an area of the specimen much larger than the field of view of the objective lens without moving the microscope and/or a specimen stage relative to one another. The assembly includes a mirror system and the linearly movable infinity-corrected objective lens. The mirror system includes a plurality of mirrors that provide a folded optical path that allows the objective lens to be moved relative to the specimen without moving the entire microscope. The mirror system and the objective lens are pivotably mounted relative to the rest of the microscope so as to allow the objective lens to be located substantially anywhere within a circular, or circular-sectoral, viewing area.

Abstract: A changing device (60) for an optical examination device, for example a microscope, comprising two beam paths (61.1, 61.2) for a first optical image, and a changing optics (21) which is rotatably arranged in the changing device and is, for example, a Galilei magnification changer having at least two, here three pairs of beam paths (35.1, 35.2 and 45.1, 45.2 and 55.1, 55.2, respectively) which can optionally be switched into the beam paths (61.1, 61.2) of the changing device by rotating the changing optics. In accordance with the invention, the changing optics (21) comprises for each pair of beam paths at least one, here two additional beam paths (36.1, 36.2 and 46.2, 46.2 and 56.1, 56.2, respectively), assigned to the respective pair of beam paths, and the changing device (60) likewise comprises at least one, here likewise two additional beam paths (61.3, 61.4).

Abstract: An imaging apparatus consists of multiple miniaturized microscopes arranged into an array capable of simultaneously imaging respective portions of an object. A continuous linear translation approach is followed to scan the object and generate multiple image swaths of the object. In order to improve the quality of the composite image produced by concatenation of the image swaths, the performance of each microscope is normalized to the same base reference for each relevant optical-system property. Correction factors are developed through calibration to equalize the spectral response measured at each detector, to similarly balance the gains and offsets of the detector/light-source combinations associated with the various objectives, to correct for geometric misalignments between microscopes, and to correct optical and chromatic aberrations in each objective.

Abstract: In a scanning microscope, slides are fed automatically from a magazine to the imaging system. Each slide is labeled in some fashion with information for selecting the appropriate modality of operation of the scanner for that slide and the modality is implemented automatically. The information is preferably tied to and defined by a laboratory information system (LIS). For example, the instructions may regard the type of microscopy (i.e., trans- or epi-illumination), multi-spectral imaging with particular spectral bands combined with a particular set of z-positions, alternative filters, settings for the numerical aperture of the condenser, alternative detector operation for different resolutions, and alternative post-scan analyses of the data, as deemed optimal for the scan. The label may also contain the slide's identity, a pathologist's name, desired post-scan handling protocol, etc. The preferred array microscope to carry out the invention is also described.

Abstract: A microscopy system allows to superimpose a light optically generated microscopic image of an object with an electronically generated image. The electronically generated image is composed of two input images, one of which is independent of optical settings of an ocular tube, such as a rotational position and a magnification thereof, and the other input image is dependent of the optical setting.

Abstract: The invention relates to an arrangement for a stereomicroscope, having an illumination apparatus (20) whose light lies in a regulatable spectral region. This illumination apparatus can be freely supplemented by at least one further illumination apparatus (30) whose light lies in likewise regulatable spectral regions identical to or different therefrom.

Abstract: The invention concerns a tube (3) for a microscope (1), in which at least two beam paths are provided, wherein a change-over device is provided in the tube (3), by means of which device a first (5) or a second flat-field optical element can be rotated and/or moved selectively into the beam paths (2) of the beam paths (8) aligned by an objective (7), for aligning the beam paths for an observer, wherein the second flat-field optical element has a function of exchanging the beam paths and inverting the image. Further, the invention concerns a microscope (1) with such a tube (3).

Abstract: A microscope lens barrel includes an input port where observation light enters the microscope lens barrel; a plurality of output ports which the observation light goes out of the microscope lens barrel; an optical-path switching mechanism which selectively switches an optical path of the observation light to guide the observation light from the input port to at least one of the output ports; and a supporting part which supports the optical-path switching mechanism. The input port, the output ports, and the supporting part are integrally formed as a tubular body frame so that the input port, the output ports, and the supporting part are arranged at respective center positions of sidewalls of the tubular body frame.

Abstract: Stereoscopic microscope comprising an optical inverter system (21a, 21b) for erecting a pseudo-stereoscopic image and reversing the viewing beams thereof, wherein the inverter system comprises at least one deflector element (21a, 21b) having a focal power.

Abstract: The invention relates to an image reversion system (500) which enables an image reversion and beam transposition of a plurality of observation beam paths (503a, 503b, 504a and 504b) to be carried out simultaneously. The system includes at least one Porro prism system and is designed in such a way that it can be arranged in a convergent beam path. The inventive system is suitable as an image reversion system in an ancillary module for operational microscopes used in ophthalmoscopy due to the low overall height thereof.

Abstract: An array of microscopes and a method of imaging an object with the array of microscopes. The array includes a plurality of optical elements being individually disposed with respect to a corresponding image plane and configured to image respective sections of an object, and includes a plurality of image sensors corresponding to respective optical elements and configured to capture corresponding representations of the respective sections of the object. The method includes imaging respective sections of an object with a plurality of optical elements and capturing corresponding representations of sections of the object from a plurality of image sensors.

Abstract: A microscope optical system in which both a sample and the viewing optics can be maintained stationary, while at the same time different points or fields of view of the sample can be examined. In the microscope optical system a sample is provided, e.g. on a stage, to be maintained in a stationary position when the sample is viewed. Further, viewing optics of the microscope optical system can be maintained in a stationary position when the sample is viewed. Intermediate optics between the stage and the viewing optics are moveable so that different portions of the sample can be examined without having to move the sample and without having to move the viewing optics.

Abstract: Microscope, particularly a stereomicroscope, for simultaneous observation by a first and a second observer, comprising a main objective (2) defining an optical axis (2a) and an optical beam path (17) following a direction of the optical axis (2a); a magnification system (12, 13) mounted after the main objective (2); a beam splitter device (5) mounted after the main objective (2) for deflecting a first partial optical beam path (17a) into a first plane (I) of the microscope, and for transmitting a second partial optical beam path (17b) in the direction of the optical axis (2a); a plurality of deflector elements (6a, 6b) for deflecting the first partial optical beam path (17a) out of the first plane (I) and into a second plane (II) of the microscope extending substantially parallel to the first plane (I); and a further deflector element (6c) for deflecting the second partial optical beam path (17b) into a third plane (III) of the microscope extending substantially parallel to the first and second planes (I, II)

Abstract: A microscopy system allows to superimpose a light optically generated microscopic image of an object with an electronically generated image. The electronically generated image is composed of two input images, one of which is independent of optical settings of an ocular tube, such as a rotational position and a magnification thereof, and the other input image is dependent of the optical setting.

Abstract: An array of microscopes and a method of imaging an object with the array of microscopes. The array includes a plurality of optical elements being individually disposed with respect to a corresponding image plane and configured to image respective sections of an object, and includes a plurality of image sensors corresponding to respective optical elements and configured to capture corresponding representations of the respective sections of the object. The method includes imaging respective sections of an object with a plurality of optical elements and capturing corresponding representations of sections of the object from a plurality of image sensors.

Abstract: A variable frequency foil (VFF) box assembly and mechanisms for moving individual foils/foil beams and individual foil beam sets relative to each other to adjust the frequency of a paper making machine, and method of use are provided. The VFF box assembly allows for continuously and uniformly adjusting the pitch distances of individual foils within foil sets over a finite range, and also adjusting the distance between foil sets during the continuous operation of a paper making machine.

Abstract: This invention provides a vision system that increases the field of view of an electronic binocular system without degrading image quality or requiring extremely large format sensors or displays. The vision system comprises an imaging device coupled with a viewing device. The imaging device comprises a compression lens and an image sensor. The viewing device comprises an image display and a decompression lens. The compression lens matches the optical distortion to the human visual acuity curve for field positions greater than an angle .theta.. Below angle .theta. there is substantially no distortion. The optimum angle .theta. depends on the application. For an average individual viewing a landscape the angle .theta. is about 10.degree.. For different viewing objects, the optimum angle .theta. varies from about 5.degree. to about 15.degree.. The image sensor can be infrared sensitive for infrared viewing.

Abstract: An apparatus and method for aligning the optical elements of a microscope are disclosed wherein a fixture is provided for locating and mounting a plurality of mirrors for reflecting an object image along an optical path to an adjacent eyepiece connected to the fixture by an eyepiece holder. The eyepiece holder includes an outer sleeve attachable to the fixture, an inner sleeve transversely movable within the outer sleeve for slidably receiving the eyepiece, and positioning means comprising a plurality of angularly spaced screws extending through the outer sleeve for engaging the inner sleeve, whereby the eyepiece may be aligned on the optical path by selectively adjusting the screws.

Abstract: A microscope includes a mount 18 secured to an eyepiece tube 10 to superimpose image data upon the microscope image. The image data is projected and reflected into the intermediate image plane using a receiving unit 27 to hold the image data on a slide 29 and an optical part 12. The receiving unit 27 includes a magnetic wall surface 31 and is freely movable and arbitrarily positionable together with slide 29 on a slide surface 32. Permanent magnets 33 are provided behind the slide surface 32 within the mount 18 to keep receiving unit 27 in place.

Abstract: An operation microscope including a plurality of objective lenses arranged at different angles with respect to an object to be viewed and a selecting optical system having a function of selecting one of light beams from the objective lenses and enabling the object to be observed at the different angles. Accordingly, a visual field for observation of an object to be operated may be expanded.