Karl Storz Imaging, Inc.

Karl Storz Development Corp.

Endactive, Inc.

Karl Storz Se Co. & Kg

Eric Lawrence Hale

Nathan Jon Schara

Hans David Hoeg

George E Duckett, Iii

John C Tesar

Hans D H&oslash;eg

John Clemet Tesar

Marc R Amling

Helga Schemm

Daniel Lietz

George Duckett

Martin Reese

William S Schnorr

Douglas S Kirk

Georg EIII Duckett

John Clement Tesar

George E Duckett Iii

A hyperspectral imaging system includes an optical channel arranged to focus light at a first image plane. A spectrometer includes a slit formed at the first image plane to allow a portion of the light to pass. A dispersive element receives light from the slit and spectrally disperses it along a direction perpendicular to a width of the slit. A focusing lens focuses the spectrally dispersed light at a second image plane such that the spectral dispersion is imaged along a first axis of the second image plane, and a spatial image of the slit width is imaged along a second axis. A sensor at the second image plane detects the spectrally dispersed light. A rotating prism is located distally to the slit and rotates, thereby rotating the image at the first imaging plane so that the portion of the image transmitted into the spectrometer varies.

Imaging spectrometer and camera with rotating prism

A dynamic imaging system for use with endoscope, or as an element of a video endoscope, utilizes path length differences and/or a variable aperture size to expand a usable depth of field and/or improve image resolution in an area of interest in the image field. In some implementations, the imaging system utilizes a variable aperture in conjunction with unequally spaced image sensors placed downstream from a beam splitter. An imaging system captures multiple focal planes of an image scene on separate sensors. A variable aperture permits the capture of enhanced resolution images or images with longer depths of field. These differently focused images and/or images with different resolutions and depths of field are then combined using image fusion techniques.

Imaging apparatus and video endoscope providing improved depth of field and resolution

An electrical device and a video camera system for transmitting and receiving data to at least one auxiliary device is provided. The electrical device includes electrical components for receiving, transmitting and processing the data. The electrical components are further configured to transmit power. The electrical device includes a housing for accommodating the electrical components. An interface is disposed on the housing. The interface includes a plurality of data ports, a first power port and a second power port. The plurality of data ports is disposed between the first power port and the second power port. The interface is configured to mate with a plurality of connectors, each of which are coupled to the auxiliary device so as to power the respective auxiliary device and transmit and receive data to and from the auxiliary device.

Electrical device with a single interface for accommodating multiple connector types, and a connector kit

A video imaging system is provided. The video imaging system is configured to maintain a video image displayed on a display unit in a predetermined orientation based upon a use. The video imaging system includes an endoscope, a camera head unit, a camera control unit configured to determine a focal distance, and a display control unit. The display control unit is configured to process the focal distance to determine a use. The use is processed by the display control unit so as to maintain the video image in the predetermined orientation. The contextual information may be focal distance, image data or endoscopic orientation.

Endoscopic video imaging system with automatic reorientation

A system for controlling a medical imaging scope is disclosed. The system includes a camera head, a display, a processing unit, a memory unit and an input disposed on the medical imaging scope. The processing unit is configured to display a menu that correlates to a plurality of commands. The input is configured to be moveable in three dimensions of space along a set axis, in a plurality of discrete patterns. The processing unit is further configured to associate each of the plurality of discrete patterns with a desired command of the plurality of commands and store each of the plurality of discrete patterns with the desired command of the plurality of commands in the memory unit so as to customize a control of the medical imaging scope.

Medical imaging scope with customizable programmable commands

A camera configured to maintain an image in a preferred orientation when the camera is passed from one user to another is provided. The camera detects a spatial orientation of the camera in at least a first position. The camera detects a vector information generated when the camera is passed from one user to another. The camera processes the spatial orientation and vector information so as to retain the image in a preferred orientation.

Video camera having video image orientation based on vector information

Automatic image orientation based on use

A system for displaying medical data is provided having a source providing image data, a monitor presenting the image data, a plurality of medical devices generating signals each indicative of a medical parameter, and a display for presenting at least one signal correlated with a view vector of the display.

Augmented reality system for medical procedures

A system for operating surgical imaging devices using configurable processing resources of a virtual camera control unit connected to a network includes an allocation manager for allocating processing resources, a primary imaging device, a secondary imaging device, a feature module, and a load balance module. The load balance module adjusts one or more settings of one or more features of the primary and secondary imaging devices based on the available processing resources and the desired settings of the one or more features.

Systems and methods for operating video medical scopes using a virtual camera control unit

A dynamic imaging system of an endoscope that adjusts path length differences or focal points to expand a usable depth of field. The imaging system utilizes a variable lens to adjust the focal plane of the beam or an actuated sensor to adjust the detected focal plane. The imaging system is thus capable of capturing and adjusting the focal plane of separate images captured on separate sensors. The separate light beams may be differently polarized by a variable wave plate or a polarized beam splitter to allow separate manipulation of the beams for addition of more frames. These differently focused frames are then combined using image fusion techniques.

Endoscope and imaging arrangement providing improved depth of field and resolution

A medical camera system includes a video medical scope defining an enclosed space within a distal portion and a proximal portion that a user can attach and detach to each other. The two portions both have an interface for coupling to each other allowing radio frequency communications across a patient isolation barrier having improvements to avoid interfering with surrounding equipment. Power transfer elements provide for power transfer across the patient isolation barrier.

Medical scope device with improved radio frequency data interface

Systems and methods are provided for improved control feedback of medical scopes. Buttons on a scope include both touch sensors and button press sensors. The touch sensors activate independently of a button press when a mere touch is applied to the button, causing a function indication to be displayed, preferably on the scope video display, showing which function will activate if the button is pressed. Touch indications may also be displayed identifying the button that is pressed. The buttons may be reconfigured along with the function and touch indications. Such a feedback scheme allows improved operation and safety as the operator does not need to look away from the display to identify a button to be pressed.

Medical scope button system providing user feedback without the need for direct sight or activation test

A control interface and adjustment mechanism for an endoscope including multiple buttons, each button including a touch surface and a magnet disposed below the touch surface. The control system of the control interface includes a magnetometer detecting ambient magnetic fields and a control processor receiving signals from the magnetometer, wherein the control processor is connected to at least one endoscope component and controls the at least endoscope component. The control processor filters received first field information from the magnetometer to determine if the received first field information matches a specific stored button vector of at least one button vector stored in memory, and if the received first field information matches the specific stored button vector, then the at least one endoscope component is controlled based on the first information detected by the control unit.

Growing community of inventors

Altadena, CA, United States of America

Eric Lawrence Hale