A microscopy system includes a microscope, a stand configured to mount the microscope and including a drive device configured to move the microscope, a detection device configured to detect a spatial position of a target fastened to a body part or to an instrument, wherein the position detection device includes the target with at least one marker element and an image capture device configured to optically capture the target. The microscopy system further includes at least one control device configured to operate the microscopy system according to the detected position of the target, wherein the position detection device is configured to determine the position of the target by evaluating a two-dimensional image of the image capture device. In addition, a method for operating the microscopy system is provided.

An imaging lighting instrument for an operation is disposed in a space between an operator's head and a patient, thereby configuring a multi-viewpoint video capturing device for a surgical operation in which blocking of a light by the operator's head or body and appearance of the head in a video are avoided. The imaging lighting instrument includes a plurality of cameras and a plurality of lights attached to a hollow ring-shaped or arc-shaped housing made of a wire member of a finite length, which is devised so as not to interfere with the visual field or work of the operator. Furthermore, the multi-viewpoint video capturing device is configured to have a function of estimating the context of the plurality of cameras and make it possible to perform operation support/recording of a direct-view surgical operation by using a multi-viewpoint video by adding a video information processing function for selecting a camera video in which an operators' hand or surgical instruments less appear in an image.

A surgical microscope having assistant's device, comprises a support (1), a microscope body (2), a first naked eye 3D display (3) and a second naked eye 3D display (4). The microscope body (2) is mounted on the support (1), a photosensitive element (24) is arranged in the microscope body (2), the first naked eye 3D display (3) and the second naked eye 3D display (4) are respectively connected to the photosensitive element (24), display directions of the first naked eye 3D display (3) and the second naked eye 3D display (4) are opposite, and directions of an image displayed by the first naked eye 3D display (3) and an image displayed by the second naked eye 3D display (4) are different by 180 degrees. The surgical microscope having assistant's device of the present invention enables an operator (9) and an assistant (10) of different body sizes to maintain reasonable ergonomic postures, see true images of their respective perspectives, observe the state of each other at any time and communicate in facial language, Meanwhile, only one set of stereo optical imaging system is needed, and two persons can observe at the same time by simply assigning and flipping video signals.

A surgical microscope having assistant's device, comprises a support (1), a microscope body (2), a first naked eye 3D display (3) and a second naked eye 3D display (4). The microscope body (2) is mounted on the support (1), a photosensitive element (24) is arranged in the microscope body (2), the first naked eye 3D display (3) and the second naked eye 3D display (4) are respectively connected to the photosensitive element (24), display directions of the first naked eye 3D display (3) and the second naked eye 3D display (4) are opposite, and directions of an image displayed by the first naked eye 3D display (3) and an image displayed by the second naked eye 3D display (4) are different by 180 degrees. The surgical microscope having assistant's device of the present invention enables an operator (9) and an assistant (10) of different body sizes to maintain reasonable ergonomic postures, see true images of their respective perspectives, observe the state of each other at any time and communicate in facial language, Meanwhile, only one set of stereo optical imaging system is needed, and two persons can observe at the same time by simply assigning and flipping video signals.

New and innovative systems and methods for auto-navigation in an integrated surgical navigation and visualization system are disclosed. An example system comprises: a single cart providing motility; a stereoscopic digital surgical microscope comprising a surgical visualization camera and a localizer; one or more computing devices (e.g., a single computing device powered by a single power connection) housing and jointly executing a surgical navigation module and a surgical visualization module, wherein the localizer is associated with the surgical navigation module, and wherein the surgical visualization camera is associated with the surgical visualization module; a single unified display; a processor; and memory. The system may generate a transformation of patient data associated with a patient to the surgical visualization camera; calibrate the surgical visualization camera and the localizer; provide visualization of the surgical site via the single unified display; and provide navigation of the surgical site responsive to user input.

New and innovative systems and methods for auto-navigation in an integrated surgical navigation and visualization system are disclosed. An example system comprises: a single cart providing motility; a stereoscopic digital surgical microscope comprising a surgical visualization camera and a localizer; one or more computing devices (e.g., a single computing device powered by a single power connection) housing and jointly executing a surgical navigation module and a surgical visualization module, wherein the localizer is associated with the surgical navigation module, and wherein the surgical visualization camera is associated with the surgical visualization module; a single unified display; a processor; and memory. The system may generate a transformation of patient data associated with a patient to the surgical visualization camera; calibrate the surgical visualization camera and the localizer; provide visualization of the surgical site via the single unified display; and provide navigation of the surgical site responsive to user input.

Aspects of the disclosure are presented for a multifunctional platform that is configured for surgical navigation and is portable for use in different locations. The system includes a hardware component and a software component. The hardware component may include a portable or wearable device that can obtain multiple types of input data that can be used in remote visualization of a surgical setting. The hardware may include a headset with various types of cameras, such as a position camera and a visual camera for capturing 2D and 3D data, and circuitry for fusing or overlaying the 2D and 3D images together. In other cases, the hardware may include a bar attachment to a mobile device, such as a smart pad, with multiple camera sensors built in. In some embodiments, the hardware also includes a portable navigation system that can fulfill the functions of both surgical navigation and a surgical microscope.

A microsurgery auxiliary device provided in the present invention, comprises a lens body (1) and a naked eye 3D display (2), the lens body (1) being internally provided with an imaging unit (10); the imaging unit (10) comprises a large objective lens group (11), a zoom lens group (12), a first tube objective lens (13) and a photosensitive element (14); the large objective lens group (11), the zoom lens group (12), the first tube objective lens (13) and the photosensitive element (14) are sequentially located in the same observation optical path; the large objective lens group (11) comprises at least one positive lens group (111) and at least one negative lens group (112), the positive lens group (111) and the negative lens group (112) are arranged in the same optical axis, and the spacing between the positive lens group (111) and the negative lens group (112) is adjustable; and the naked eye 3D display (2) is connected to the photosensitive element (14), the distance between the naked eye 3D display (2) and an observer (5) is 400-1200 mm, and the viewing angle range of the naked eye 3D display (2) is not less than 120 degrees. The observer can directly perform surgical operations by observing the naked eye 3D display (2), the overall structure of the device is simple, and the system delay is small.

A microsurgery auxiliary device provided in the present invention, comprises a lens body (1) and a naked eye 3D display (2), the lens body (1) being internally provided with an imaging unit (10); the imaging unit (10) comprises a large objective lens group (11), a zoom lens group (12), a first tube objective lens (13) and a photosensitive element (14); the large objective lens group (11), the zoom lens group (12), the first tube objective lens (13) and the photosensitive element (14) are sequentially located in the same observation optical path; the large objective lens group (11) comprises at least one positive lens group (111) and at least one negative lens group (112), the positive lens group (111) and the negative lens group (112) are arranged in the same optical axis, and the spacing between the positive lens group (111) and the negative lens group (112) is adjustable; and the naked eye 3D display (2) is connected to the photosensitive element (14), the distance between the naked eye 3D display (2) and an observer (5) is 400-1200 mm, and the viewing angle range of the naked eye 3D display (2) is not less than 120 degrees. The observer can directly perform surgical operations by observing the naked eye 3D display (2), the overall structure of the device is simple, and the system delay is small.

A fiducial is generated on an internal anatomical structure of the eye of a patient with a surgical laser. A toric artificial intraocular lens (IOL) is positioned so that a marker of the toric IOL is in a predetermined positional relationship relative to the fiducial. This positioning aligns the toric IOL with the astigmatic or other axis of the eye. The toric IOL is then implanted in the eye of the patient with high accuracy.