1709 results about "Camera control" patented technology

A multiple camera tracking system for interfacing with an application program running on a computer is provided. The tracking system includes two or more video cameras arranged to provide different viewpoints of a region of interest, and are operable to produce a series of video images. A processor is operable to receive the series of video images and detect objects appearing in the region of interest. The processor executes a process to generate a background data set from the video images, generate an image data set for each received video image, compare each image data set to the background data set to produce a difference map for each image data set, detect a relative position of an object of interest within each difference map, and produce an absolute position of the object of interest from the relative positions of the object of interest and map the absolute position to a position indicator associated with the application program.

The present invention is directed to a non-intrusive data transmission network for use in a healthcare facility and method for implementing such network. Each individual patient's room is equipped with a set-top control device, a separate camera, microphone, control module camera control device. The SCD allows for a non-intrusive installation within a minimum amount of time. By utilizing the existing cable television infrastructure, the device creates a high-speed data network throughout the facility. The interface between the SCD and the CCD is accomplished through a standard interface for universally connecting auxiliary devices, such as USB, for enabling expandable, hot-pluggable Plug and Play serial device interfaces. These ports allow external devices such as the camera, microphone, infrared keyboard and privacy control unit to communicate with the SCD. Additional USB ports on the SCD allow for other devices to be connected to the network at a future time. Such devices include those for instrument monitoring, doctor information access or pharmaceutical prescription ordering. Visual information such as e-mail, web browsing, video and audio communications via web camera applications from family members, friends or other parties may be viewed by the patient from the in-room TV set by way of the internal RF modulator (and connecting to the Internet via the patient Internet server). The SCD switches from the standard cable TV channels to the SCD by way of an internal switch controlled by the patient from an infrared control. This control also enables or disables the camera to allow for privacy at times when such privacy is required from external Internet access. The system is configurable to offer this privacy to be layered from specific Internet or external users to the nurses, doctors or security department as the hospital desires.

A medical robotic system includes an entry guide with articulatable instruments such as surgical tools and a camera extending out of its distal end. The camera instrument is manipulatable by a camera manipulator, which has a first mechanism for pivoting a focal point of the camera instrument about a pivot of the camera instrument and a second mechanism for positioning the pivot within a three-dimensional space in response to translational commands received from one or a coupled pair of input devices. The system also includes a controller which is configured to receive sensed movement of the input devices, and cause actuation of the first mechanism in response to the sensed movement if the system is in an orientational mode and cause actuation of the second mechanism in response to the sensed movement if the system is in a translational mode.

A medical video-teleconferencing and treatment system, having a central video-conferencing station and one or more remote video-conferencing stations and a communications link establishing video-conferencing communication therebetween. A central video monitor and audio system is located at the central video-conferencing station, and a controller unit is coupled with the communications link. The remote video-conferencing stations each have a mobile emergency center cart including a remote video monitor and audio system and a video-conferencing camera controlled by the controller unit via the communications link and capable of responding to control signals of the controller unit for panning and zoom movement of said video-conferencing camera by a medical practitioner located at the central video-conferencing station. The arrangement enables the medical practitioner to observe and to diagnose the condition of the patient and direct the medical personnel of the selected video-conferencing station to provide treatment of the patient.

A medical robotic system includes an entry guide with articulatable instruments such as surgical tools and a camera extending out of its distal end. The camera instrument is manipulatable by a camera manipulator, which has a first mechanism for pivoting a focal point of the camera instrument about a pivot of the camera instrument and a second mechanism for positioning the pivot within a three-dimensional space in response to translational commands received from one or a coupled pair of input devices. The system also includes a controller which is configured to receive sensed movement of the input devices, and cause actuation of the first mechanism in response to the sensed movement if the system is in an orientational mode and cause actuation of the second mechanism in response to the sensed movement if the system is in a translational mode.

A system and methods for autonomously tracking and simultaneously providing surveillance of a target from air vehicles. In one embodiment the system receives inputs from outside sources, creates tracks, identifies the targets and generates flight plans for unmanned air vehicles (UAVs) and camera controls for surveillance of the targets. The system uses predictive algorithms and aircraft control laws. The system comprises a plurality of modules configured to accomplish these tasks. One embodiment comprises an automatic target recognition (ATR) module configured to receive video information, process the video information, and produce ATR information including target information. The embodiment further comprises a multi-sensor integrator (MSI) module configured to receive the ATR information, an air vehicle state input and a target state input, process the inputs and produce track information for the target. The embodiment further comprises a target module configured to receive the track information, process the track information, and produce predicted future state target information. The embodiment further comprises an ownship module configured to receive the track information, process the track information, and produce predicted future state air vehicle information. The embodiment further comprises a planner module configured to receive the predicted future state target information and the predicted future state air vehicle information and generate travel path information including flight and camera steering commands for the air vehicle.

Disclosed herein is a system and method for iris recognition including stereoscopic face recognition, which can recognize irises including stereoscopic face recognition system in order to recognize an authenticatee. The system includes two or more face recognition cameras for photographing two or more face images of an authenticatee; a recognition system for receiving the face images photographed by the face recognition cameras from the face recognition cameras and creating stereoscopic face information on the basis of the face images; and one or more iris recognition cameras controlled by the recognition system to photograph focused irises of the authenticatee using the created stereoscopic face information.

A medical device that is wirelessly powered by a resonant magnetic field, the device automatically coupling to a power transmitter in a control unit when brought within a threshold radius. In one embodiment, the control unit automatically identifies the medical device and automatically adjusts its settings to control the medical device, where the device and power transceivers may be provided detachable from either or both the endoscope / camera and camera control unit or may be provide integral to either one or both.

A remote-controlled camera-picture broadcast system is provided, which decreases the cost of hardware and network for the use of a lot of unspecified users. This system is comprised of a camera apparatus, a camera controller, a camera server connected to the camera controller through a first network, and clients connected to the camera server through a second network. Each of the clients transmits an operation demand for the camera apparatus to the camera server through the second network according to an input of a user. The camera server receives the operation demand from the client into which the input of the user is applied, and transmits an operation command corresponding to the operation demand to the camera controller through the first network. The camera controller controls the camera apparatus according to the operation command from the camera server so that the camera apparatus acquires a picture and produces a video signal of the picture. The camera controller receives the video signal of the picture produced by the camera apparatus, converts the video signal to a picture data, and transmits the picture data to the camera server through the first network. The camera server transmits the picture data through the second network to the client from which the operation demand has been transmitted, thereby displaying the picture of the picture data on a screen.

The invention is suitable for camera control technology and provides a double camera control device of a mobile terminal. The mobile terminal comprises a first camera, a second camera, a power supply unit and a control chip, the power supply unit respectively supplies power for the first camera and the second camera in single mode, and the control chip is respectively communicated with the first camera and the second camera in single mode. The double camera control device of the mobile terminal enables two cameras to be power-supplied and communicated individually and avoids mutual interference of control of the two cameras. In use, users can select opening of singular camera and can also open two cameras simultaneously to preview and shoot at the same time, after shooting, pictures of the double camera can be combined, and accordingly shooting experience of the users is well improved.

A medical video-teleconferencing and treatment system, having a central video-conferencing station and one or more remote video-conferencing stations and a communications link establishing video-conferencing communication therebetween. A central video monitor and audio system is located at the central video-conferencing station, and a controller unit is coupled with the communications link. The remote video-conferencing stations each have a mobile emergency center cart including a remote video monitor and audio system and a video-conferencing camera controlled by the controller unit via the communications link and capable of responding to control signals of the controller unit for panning and zoom movement of said video-conferencing camera by a medical practitioner located at the central video-conferencing station. The arrangement enables the medical practitioner to observe and to diagnose the condition of the patient and direct the medical personnel of the selected video-conferencing station to provide treatment of the patient.

A system of linked digital cameras for an image capture system is disclosed. A first and second digital camera can be linked to capture a first images and a second image that are used to form a stereo image. A first data port on the first digital camera and a second data port on the second digital camera intercommunicate data between each other when the cameras are linked. The data can include the first and second image data, camera control data, and camera synchronization data. After capturing the first and second images, the image from one of the cameras can be transferred to the other camera so that both the first and second images reside in the other camera. The system allows a user who wishes to capture stereo images the ability to do so with out having to purchase two digital cameras. A compatible digital camera can be borrowed from another user for the purpose of stereo image capture. After the stereo image is captured, the user transfers both images to his camera and returns the borrowed camera. The cameras can be equipped with viewfinders that allow a user of the cameras to view the image being captured in stereo. The viewfinders can be adjustable to accommodate variations in user interpupillary distance. A digital camera operating system (OS) can be customized to enable stereo image capture, image data handling, image processing, and camera control for the linked digital cameras.

Provided is a camera control system which will not invade one's privacy even if a camera is located where there is a problem in terms of privacy. To accomplish this, the system is provided with an input unit for inputting a control command for controlling shooting direction or zoom magnification of the camera, a calculation unit for calculating, on the basis of the control command input by the input unit, an area to be imaged by the camera, a limiting unit for limiting a control range of the zoom magnification of the camera in a case where the imaging area of the camera calculated by the calculation unit overlaps a prescribed area; and a control unit for controlling the zoom magnification of the camera so as to fall within the control range, which has been limited by the limiting unit, in a case where the zoom magnification of the camera exceeds the control range limited by the limiting unit.

A system, method, and device for remotely controlling the camera functions of a mobile camera phone are disclosed. The mobile camera phone and another device are communicable with one another using the Bluetooth™ protocol. Each includes a Bluetooth module that establishes a wireless connection with one another such that data and instructions can be exchanged. The other device receives and displays data representative of the mobile camera phone's viewfinder. A camera application is coupled with the Bluetooth module for establishing a master / slave relationship with a corresponding camera application in the mobile camera phone. The other device sends camera control commands to the mobile camera phone wherein the camera control commands can manipulate camera settings, take a picture, and dispose of the resultant picture. The other device further includes a user interface coupled with the display that provides a means of inputting data to manipulate the camera application.

The invention provides a camera control method and a mobile terminal. The method is applied to the mobile terminal, the mobile terminal is provided with an accommodating space for accommodating a retractable camera component, the retractable camera component includes a camera and a motor, and the motor is connected to the camera through an elastic transmission structure for driving the camera to move. The method includes the following steps: if a trigger operation for the camera is detected, identifying the current state of the camera, wherein the trigger operation includes a pressing operation or a stretching operation, and the state of the camera includes a contraction state, an extension state, a contraction process or an extension process; and controlling the movement of the camera according to the trigger operation and the current state of the camera. According to the camera control method provided by the invention, the control modes of the camera of the retractable camera component can be increased.

In a camera control system capable of, in a video conference, remote surveillance or the like, issuing an instruction for a camera posture or the like, the user desires, on the moment in a simple way, an image with a small angle of view and a panoramic image are transmitted to a personal computer to be individually displayed. This arrangement constructs a system whereby the user can see not only a detailed image the user desires now but also an image surrounding the detailed image in substantially real time. Further, another arrangement for sensing an image reflected by a convex mirror which is constructed such that a central portion thereof is formed as a low-curvature surface and a peripheral portion thereof is formed as a high-curvature surface enables a panoramic image having a high resolution in a desired portion thereof to be obtained by using only one image sensor.

A mobile device case is formed with a hollow case housing for receiving a mobile device and controlling a mobile device camera therein. The mobile device includes a case connector for electronically connecting the case to the mobile device at insertion of the mobile device into the hollow case housing and at least one camera control actuator for controlling operation of the mobile device camera, when the mobile device is present in the hollow case housing. The hollow case housing comprises a first housing section and a second housing section that comes together by respective tongue and groove elements to thereby encapsulate the mobile device.

A system and methods for autonomously tracking and simultaneously providing surveillance of a target from air vehicles. In one embodiment the system receives inputs from outside sources, creates tracks, identifies the targets and generates flight plans for unmanned air vehicles (UAVs) and camera controls for surveillance of the targets. The system uses predictive algorithms and aircraft control laws. The system comprises a plurality of modules configured to accomplish these tasks. One embodiment comprises an automatic target recognition (ATR) module configured to receive video information, process the video information, and produce ATR information including target information. The embodiment further comprises a multi-sensor integrator (MSI) module configured to receive the ATR information, an air vehicle state input and a target state input, process the inputs and produce track information for the target. The embodiment further comprises a target module configured to receive the track information, process the track information, and produce predicted future state target information. The embodiment further comprises an ownship module configured to receive the track information, process the track information, and produce predicted future state air vehicle information. The embodiment further comprises a planner module configured to receive the predicted future state target information and the predicted future state air vehicle information and generate travel path information including flight and camera steering commands for the air vehicle.

An electronic equipment includes a camera for taking digital photographs. The electronic equipment further includes a display; a keypad adjacent the display, wherein the keypad includes an arrangement of keys; and a control circuit. The control circuit is configured to execute logic to display a menu on the display, wherein the menu has a plurality of menu choices and each menu choice corresponds to one of the keys of the keypad and the menu choices are displayed in an arrangement to graphically present the correspondence between the menu choices and the keys to a user of the electronic equipment; and change camera control settings in accordance with a user selected one of the menu choices, the selected menu choice indicated by user operation of the corresponding key.

An endoscope device providing electrical isolation between the endoscope and a camera control unit coupled to the endoscope. The endoscope uses an optical channel to transmit illuminating light to the endoscope and to transmit image data generated by an imaging device to the camera control unit. In this manner, only an optical connection between the endoscope and the camera control unit exits. Alternatively, a wireless channel for transmission of the image data and any commands signals may be utilized.

A camera control apparats (10) comprises a control device for controlling the zoom, pan and tilt conditions of a camera. Data relating to the positioning of the camera in pan, tilt and zoom is transmitted to the control means and the control means converts the data into a value in a co-ordinate system, for example (3D) polar co-ordinates. The camera may be controlled and directed by pointing a pointer to an area in the image displayed whereby in response to selection of a point on a display the control means pans and / or tilts the camera so that the image viewed by the camera is centred substantially on the point selected. Still further, an area of the screen can be selected, for example by tracking and dropping a box using a mouse pointer on a computer screen and the control means is arranged to pan and tilt the camera so the image is centred on the centre of the selected area and zoomed so that the selected area becomes substantially the entire image viewed by the camera. In a further aspect a multiple camera control apparatus is provided in which a plurality of cameras may be controlled using the aforesaid control apparatus and the multiple camera control apparatus includes data relating to the location of the cameras with reference to the site plan so that multiple cameras can be co-ordinated to provide better image data, blind spot illumination and 'hand over' functionality. Still further a security apparatus is provided in which a camera views an image and the security apparatus includes image processing means and data relating to the site viewed by the camera so as to determine the location and size of an object viewed.

A mobile terminal including a wearable device including a first wireless communication device, a sound output unit, and at least one camera; a second wireless communication device configured to perform wireless communication with the wearable device via the first wireless communication device; a touch screen configured to display information; and a control unit configured to display an icon on the touch screen for controlling the wearable device, and display a control screen including both a first control area including at least one sound control object for controlling sound output by the mobile terminal and a second control area including at least one camera control object for controlling the at least one camera of the wearable device, in response to a selection of the displayed icon.

A hand-held imaging device includes a plurality of linear imaging arrays, image formation optics, at least one illumination module and image processing circuitry that are embodied within a hand-holdable housing that is moved by hand movement past a target object to capture images of the target object. The plurality of linear imaging arrays and image formation optics provide field of views corresponding to the plurality of linear image arrays. The at least one illumination module produces planar light illumination that substantially overlaps the field of views corresponding to the plurality of linear imaging arrays. The image processing circuitry performs image-based velocity estimation operations, which analyzes pixel data values of a plurality of composite 2D images each derived from sequential image capture operations of a corresponding one linear imaging array to derive velocity data that represents an estimated velocity of the imaging device with respect to target object. The image processing circuitry produces a first image of portions of the target object, the first image having substantially constant aspect ratio, utilizing image transformation operations (or camera control operations) that are based upon the velocity data, to thereby compensate for aspect ratio distortions that would otherwise result from variations in velocity of the imaging device with respect to the target object(s). In addition, the image processing circuitry preferably carries out image-based horizontal jitter estimation and compensation operations, which estimate the horizontal jitter of the imaging device relative to the target object over the image capture operations from which the first image is derived, and transform the first image utilizing shift operations that are based upon such estimated horizontal jitter to produce a second image of portions of the target object which compensates for horizontal jitter distortion that would otherwise result therefrom. The first image, second image (or image derived from sharpening the first or second images) is preferably subject to image-based bar code detection operations and / or OCR operations carried out by the image processing circuitry, or output for display to a display device.

A system and method for enabling real-time off-site video image storage is disclosed. An off-site storage site is coupled to camera servers at client sites via a private network. Each camera server is further coupled to one or more surveillance cameras. Video images captured by cameras located at the client sites are forwarded to an off-site server via a camera server. Video images received by the off-site server are produced for live viewing and / or archived in an image database. Users can retrieve live or archived video images through a client workstation that communicates with the off-site server over the public Internet. Retrieval of video images is based on a web-browser interface. Live viewing of video images is supplemented by real-time camera control functions that alter the pan-tilt-zoom (PTZ) position of the camera producing the live images. Commands for controlling the PTZ camera are encoded by the client workstation and transmitted to the off-site server. The off-site server converts the camera control codes into control strings that are recognizable by the particular camera.

A method for automatically determining an orientation and zoom of an image pickup device associated with a video conferencing system, wherein the method includes the steps of: generating, at the image pickup device, an image signal representative of an image framed by the image pickup device; processing the image signal to identify objects plural users of the video conferencing system in the image; steering the image pickup device to an initial orientation; determining a location of all the identified objects relative to a reference point and determining respective sizes of the identified objects; defining an area of interest in the image, wherein the area of interest includes all the identified objects; and steering the image pickup device to frame the defined area of interest including all the identified objects where a center of the frame substantially coincides with a center of all the identified objects.

In order to allow the user to access an arbitrary camera from an arbitrary camera client via a network, and to cause a plurality of cameras to perform a linked movement, a camera linkage server includes a communication path to each camera client, a client control module for controlling a camera used by the camera client, a communication path to each camera server, a camera server control module for controlling the camera used by the camera server, a camera server for controlling each of a plurality of cameras, a camera control module for controlling a camera client having an operation right for the camera and a state of the camera, and a linkage control module, having linked-movement defining information for defining a linked movement between each camera and other cameras, for recognizing a request for connection from an arbitrary camera client to an arbitrary camera via a corresponding client control module, and providing the other camera to perform a linked movement in accordance with the request for the connection with a request for connection via a corresponding camera server control module and a corresponding camera control module, based on the linked-operation defining information.

Disclosed herein is a system and method for iris recognition including stereoscopic face recognition, which can recognize irises using a stereoscopic face recognition system in order to recognize an authenticatee. The system includes two or more face recognition cameras for photographing two or more face images of an authenticatee; a recognition system for receiving the face images photographed by the face recognition cameras from the face recognition cameras and creating stereoscopic face information on the basis of the face images; and one or more iris recognition cameras controlled by the recognition system to photograph focused irises of the authenticatee using the created stereoscopic face information.