Leica Instruments (Singapore)

A mounting device (100) is provided which is suitable for arranging a display (110) above an operating table (120), the mounting device further comprising a movable cart (130) suitable for extending transversely under the operating table and an arm (140) suitable for extending next to the operating table, at least one input interface (410) configured to receive data indicating a target position or movement direction of the display relative to a microscope or relative to a user of the microscope, an actuator (420) and control circuitry (430) configured to control the actuator to move at least a display mounting structure of the mounting device for adjusting a position of the display based on the data.

A first aspect of the present disclosure is related to a device for displaying surgical images,configured to:- determine, via a content function, a first camera image and a second camera image based on a camera image of a surgical device ;- determine, via a control function, one or more graphical user interfaces, GUIs, to control the surgical device and/or the content function;- assign to a first display , in particular a touch screen display, the first camera image and a GUI concurrently;- assign to a second display the second camera image and/or a GUI.

A first aspect of the present disclosure is related to a device for providing an image with information in a pre-defined spectrum, in particular with fluorescence information, and in particular of a biperspective medical and/or diagnostic imaging device, configured to: - obtain a first stereo image, S1-image, from a first perspective on a sample, wherein the S1-image captures light of a first spectrum and comprises a left and a right image as stereo information; - obtain a second stereo image, S2-image, from the first perspective on the sample, wherein the S2-image captures light in a second spectrum which is different from the first spectrum, in particular fluorescence light, of the sample and comprises a left and a right image as stereo information; - obtain a third stereo image, A1-image from a second perspective on the sample, wherein the A1-image captures light in a third spectrum that is the same or overlapping with the first spectrum, of the sample and comprises a left and a right image as stereo information; - determine a fourth image, A2-image, based on one or both of the S1-image and the S2-image and based on the A1-image, wherein the A2-image represents light emitted from the sample and is based on the stereo information of the used images; - provide an image based on the A2-image, in particular the A2-image, for display.

A first aspect of the present disclosure is related to a device for providing an enhanced view of an image, configured to: - obtain a first stereo image, S-image, from a first perspective on a sample, wherein the S-image comprises a left and a right image as stereo information; - obtain a second image, A-image, from a second perspective on the sample; - determine an auxiliary image, AUX1-image , based on the S-image, wherein the AUX1-image is determined for the second perspective; - determine an integrated image, INT1-image, based on the A-image and on the AUX1-image; - provide an image based on the INT1-image, in particular the INT1-image, for display.

A first aspect of the present disclosure is related to a device for an automatic control of a field-of-view, FOV, during a surgical procedure, configured to: - obtain an image of a sample by a movable imaging device , wherein the image is captured from a first perspective ; - identify the sample within the image; - identify an obstacle within the image; - provide a control information for the imaging device to move the imaging device to capture the sample from a second perspective , which is different from the first perspective.

Examples relate to an apparatus for an optical imaging system comprising one or more processors and one or more storage devices. The apparatus may be configured to receive image data of a human tissue. The apparatus is configured to obtain thermal sensor data of a thermal sensor indicating a temperature of the human tissue. Further, the apparatus is configured to determine, based on the thermal sensor data, whether the temperature of the human tissue has exceeded a threshold value and/or to predict, based on the thermal sensor data, whether the temperature of the human tissue will exceed the threshold value. The apparatus is further configured to trigger an action if the temperature of the human tissue has exceeded or is predicted to exceed the threshold value.

Examples relate to an apparatus for an optical imaging system comprising one or more processors and one or more storage devices. The apparatus is configured to obtain sensor data indicative of a surrounding of the optical imaging system. Further, the apparatus may be configured to determine movement data indicative of a movement of a foot of a user of the optical imaging system. The movement data is determined based on the sensor data. Further, the apparatus is configured to generate adjustment data for adjusting a setting of the optical imaging system and to transmit the adjustment data for adjusting the setting of the optical imaging system.

Zusammenfassung wird geladen …

Zusammenfassung wird geladen …

The invention relates to a medical device (1) for the observation of a partly fluorescent object (2) such as tissue (3) comprising at least one fluorophore (4). The fluorophore (4) absorbs light in at least one spectral excitation waveband (46) and emits fluorescent light in at least one spectral emission waveband (54). In order to be able to observe also non-fluorescent regions in the tissue (3) without complicated filter arrangement, the medical device (1) according to the invention comprises at least one filter system (16, 38) which comprises, in a filter plane (18), comprises a filter area (20) and a transmission window (22). The filter area (20) comprises a band pass filter (24) having at least one passband (44) comprising the at least one excitation waveband. The transmission window has a passband (48) which is wider than the passband (44) of the filter area (20). In particular, a filter layer (64) of the filter area (20) may be missing in the transmission window (20).