Abstract: First, the interval between a left virtual camera and a right virtual camera is determined based on the relative position and the relative orientation of an outer imaging section (left) with respect to a marker, which are calculated from a result of marker recognition in the left real world image, and on the relative position and the relative orientation of an outer imaging section (right) with respect to the marker, which are calculated from a result of marker recognition in the right real world image. After the interval between the left virtual camera and the right virtual camera is determined, the positions and the orientations of the left virtual camera and the right virtual camera are determined based on the determined interval such that the relationship between the position and the orientation of the left virtual camera, and the position and the orientation of the right virtual camera is ideal.

Abstract: A projection display system and a control method of controlling a projection display device capable of preventing degradation of visibility or occurrence of a sense of discomfort at a boundary between respective projection areas due to dimming are provided. In a system including a plurality of projection display devices (100A, 100B, 100C) that project image light onto a plurality of areas in one projection surface, each of the plurality of projection display devices includes a brightness detection unit (47b), and a first control unit (52) that controls a projection condition for the image light that is projected on the basis of detected brightness information, and a second control unit (53) that performs control to cause a projection condition for the image light of the second projection display device (100B) to match a projection condition determined by the first control unit (52) of the first projection display device (100A).

Abstract: A head tracking system that determines a rotation angle of a head of a user with respect to a reference direction, dependent on a movement of a user including changes of place, position, and/or posture. The head tracking system includes a sensing device for measuring a head movement to provide a measure representing the head movement, and a processing circuit for deriving the rotation angle of the head of the user with respect to the reference direction from the measure. The reference direction is dependent on the movement of the user.

Abstract: A display apparatus includes an optical image projection system, first optical propagation system, and second optical propagation system. The optical image projection system projects image light to infinity. The first optical propagation system propagates the image light projected from the optical image projection system in the x-direction. The first optical propagation system deflects a portion of the image light. The second optical propagation system includes a second input deflector that deflects the image light deflected by the first output deflector. The second optical propagation system propagates the image light deflected by the second input deflector in the y-direction and deflects a portion of the image light. The light beam width in the y-direction of the image light emitted from the optical image projection system and the length in the y-direction of the first light guide are greater than the length in the y-direction of the second input deflector.

Abstract: Disclosed is an electronic device including a receiver of a piece of information sent by a gaze tracking device, which includes a marker forming a visual identification pattern, carried by a user moving in a real environment. In certain aspects, the received piece of information provides information about the direction of the user's gaze in a plane of reference of the gaze tracking device. At least one camera for acquiring an image of the marker, a memory for storing a digital representation of the environment in a plane of reference specific to the environment, and a processor configured so as, based on the piece of information of the image and the digital representation stored in the memory, to determine, in real-time, the direction of the user's gaze relative to the environment and/or the zone of the environment gazed at by the user may be provided herein.

Abstract: An augmented reality home console is provided. Users can wear head-mounted displays with transparent screens and can control video game indicia that are perceived as being augmented over a user's environment by displaying video game indicia onto the transparent displays. As such, for example, two users can play an airplane dog fighting game where each user controls a plane in their living room. A device that can determine surfaces of objects (e.g., walls) can be utilized such that when the airplane is flown into a wall, the airplane explodes.

Abstract: Devices and methods are described herein that use a first solid figure element, a polarizing beam splitter, and a second solid figure element to reduce speckle in projected images. Specifically, laser light is generated and split into two portions having orthogonal polarizations. The first portion of laser light is internally reflected off at least three internal faces of the second solid figure element and is then spatially recombined with the second portion of laser light in the first solid figure element. The difference in path length followed by the two portions generates a temporal incoherence in the recombined laser light beam, and that temporal incoherence reduces speckle in the projected image.

Abstract: A head-up display with variable focal length includes a projector which provides a beam with image, a magnifier lens module which is disposed on the route of the beam, and an array of lens which is movably disposed between the projector and the magnifier lens module. The beam forms an inter-image after passing the array of lens, then forms a virtual image after passing the magnifier lens module. To change the position of the virtual image, adjust the relative position between the array of lens and the magnifier lens module. A dispersion angle of the array of lens is ?d, a magnification of the magnifier lens module is M, a distance between the virtual image and user's eyes is VID, a visible range of user's eyes is Et, and satisfies the relationship as following: ?d=M*2*cot?1 (2VID/Et).

Abstract: An image processing device includes an orientation information acquisition unit which acquires orientation information of a head portion of a user that observes a display image of a display device; an angle of view switching unit which switches an angle of view of the display image; a rendering process unit which generates the display image based on the orientation information and the angle of view; and a transmission unit which transmits the generated image to the display device.

Abstract: A rearview mirror assembly for a vehicle includes an electro-optic mirror element that reflects images from the rear of the vehicle, wherein the reflected images may be dimmed in response to a detection of glare from trailing vehicle; a display positioned behind the mirror element for displaying images of a rearward scene; a user input for receiving user adjustment of an extent to which the mirror element is to be dimmed to reduce glare from trailing vehicles; and a processor coupled to the mirror element and the user input for adjusting the extent to which the mirror element is dimmed in response to user adjustment via the user input. Wherein, when user adjustment is made via the user input, the processor causes simulated images of vehicle headlights to be displayed on the display where the simulated images are dimmed to a level selected by the user.

Abstract: A virtual image generation system and method of operating same is provided. An end user is allowed to visualize the object of interest in a three-dimensional scene. A text region is spatially associated with the object of interest. A textual message that identifies at least one characteristic of the object of interest is generated. A textual message is streamed within the text region.

Abstract: Eyewear for displaying a virtual image comprising a visor for placement in a field of vision of a wearer, a light source in optical communication with the visor, and a reflective surface situated within the visor and configured to direct light projected into the visor from the light source toward at least one eye of the wearer for display as a virtual image. Another eyewear comprising a visor configured to display a virtual image in a field of vision of a wearer, a frame for supporting the visor, and electronics for operating the eyewear, the electronics being integrally embedded within one or more components of the frame.

Abstract: Disclosed are methods and devices for varying functionality of a wearable computing device. An example device includes a first sensor and a second sensor. An example method includes, while a device is operating in a first state, receiving an indication of a touch input at the first sensor. The second sensor is configured in an idle mode based on the device operating in the first state. The method further includes, in response to receiving the indication of the touch input, triggering the second sensor to operate in an active mode and receiving data from the second sensor. The method further includes determining, based on the data, whether the device is being worn.

Abstract: A method for processing a sequence of holographic images, with a view to its rendition by a holographic display device to at least one observer. A holographic image is decomposed over a Gabor wavelet basis into a set of wavelet coefficients. The method includes the following acts, implemented for an image of the sequence: obtaining items of information representative of the decomposition over the Gabor wavelet basis; obtaining of items of information representative of a location of the at least one observer in a reference frame of the display device; selecting a subset of wavelet coefficients as a function of the wavelet items of information and of the location items of information obtained.

Abstract: A head mounted display device includes an image display unit that allows a user to visually recognize an image and through which outside scenery is transmitted and a microphone that detects a voice. In addition, the head mounted display device further includes a data acquisition unit that acquires data and an additional data display control unit that allows the image display unit to display an image based on the voice detected by the microphone and the data acquired by the data acquisition unit when the outside scenery is visually recognized by the user through the image display unit.

Abstract: Methods and systems for displaying messages using body-worn electronic display devices. One method includes receiving proximity data indicating a distance between a first electronic display device and a second electronic display device. The method also includes receiving first orientation data indicating an orientation of the first electronic display device and receiving second orientation data indicating an orientation of the second electronic display device. The method also includes determining a distributed message for display based on the proximity data, the first orientation data, and the second orientation data. The distributed message includes a first message for display on the first electronic display device and a second message for display on the second electronic display device. The method also includes displaying, by a controller, the first message on the first electronic display device and the second message on the second electronic display device.

Abstract: Systems, methods, and sets for capturing and reproducing a binaural recording are provided. In one embodiment, the binaural recording is captured using an earpiece set that includes a pair of earpieces each including a frame, a microphone, and a transducer. The frame is adapted to be worn on an ear, and defines an ear-insertion end and a posterior end opposite the ear-insertion end. The ear-insertion end is adapted to be positioned within an ear canal. The microphone is coupled to the frame for capturing ambient sound, and adapted to be positioned outside the ear canal and substantially coplanar with a tragus of the ear.

Abstract: A head-up display for a motor vehicle includes a housing, which may be integrated into an instrument panel of the motor vehicle. A combiner is configured to combine an image of the head-up display and an environment in front of the motor vehicle observable through the combiner. The combiner is movable from a position of non-use into a position of use. An image generator is configured to generate the image. A cover may be brought into a closed position, which covers the housing when not in use. The cover has an opening to enable an emission of light of a light beam of the image generator with the cover closed.

Abstract: A near-eye light field display device for displaying a light field to at least one eye of a viewer, the device comprising an array of light field display elements, each display element adapted to display a time-varying light field view image, the display device configured to modulate the focus of the time-varying view image displayed by each display element according to a time-varying fixation depth of the at least one eye.

Abstract: A combiner for a head-up display apparatus has: a front surface; a rear surface; a plurality of grooves formed in a stripe shape so as to penetrate between the front surface and the rear surface in an upper end section; and a plurality of reflective protrusions each formed between each groove in the upper end section. Each reflective protrusion: has a triangular cross section; extends between the front surface and the rear surface; forms a pair of planar reflective surfaces inclined relative to the horizontal plane as a result of interposing therebetween a vertical angle pointing upwards in the triangular cross section; and reflects light to the side by using the reflective surfaces. The angle of the vertical angle in each reflective protrusion gradually increases from either the front surface or the rear surface, towards the other.

Abstract: Disclosed is an electronic device including: a display; at least one optical lens configured to change an optical path of light generated in the display at a fixed refractive index; a prism configured to reflect the light, which has passed through the at least one optical lens, at least one time to guide the light to a destination point; a variable lens positioned in the optical path of light between the display and the destination point, a refractive index of at least a portion of the variable lens being changed by a control signal to change at least a portion of the optical path of light; and a controller configured to generate the control signal. An optical path of light generated in the display may be changed by the variable lens whose refractive index can be changed.

Abstract: A position within displayed digital content that a user is ocularly focused on (e.g., where within displayed content the user is looking) may be determined. Digital content comprising a visual indication of the position may be rendered. The visual indication of the position may be displayed on the same display that the user is looking at and/or a different display. In some embodiments, the position may be determined based on data generated by a sensor physically attached to the user. Additionally or alternatively, the position may be determined based on data generated by a stationary computing device comprising a sensor configured to track changes in ocular position of the user. In some embodiments the digital content may comprise digital images and/or video (e.g., broadcast content, on-demand content, images and/or video associated with a computer application, or the like).

Abstract: A system for providing a visual user environment includes a processing unit, a memory, a primary display device for providing a primary visual interface, and an adjunct communication device for providing an adjunct visual interface. In an embodiment, the adjunct display device is configured to present quasi-3D or 3D images.

Abstract: A hazard warning system for vehicles including hazard detection sensors and a primary transmitter for a primary vehicle configured to transmit information regarding a hazard and a path history of the primary vehicle. A secondary receiver for a secondary vehicle is configured to receive the information regarding the hazard detected by the hazard detection sensors, and the path history of the primary vehicle. A secondary vehicle control module is configured to notify a driver of the secondary vehicle of the hazard when the secondary vehicle is traveling along a path similar to that of the primary vehicle.

Abstract: A display device comprises a signal processor configured to generate left-eye and right-eye image data according to an input image signal, a frame rate controller configured to generate a plurality of left-eye and right-eye image data from the left-eye and right-eye image data according to an output frequency, a data formatter configured to alternately organize the plurality of left-eye and right-eye image data generated by the frame rate controller, and a display unit configured to sequentially display the plurality of left-eye and right-eye image data organized by the data formatter.

Abstract: A portable device (e.g., a wireless device such as a cell phone) is provided with a flexible keyboard and a flexible display screen. Such flexible components may be stored in the housing of the portable device when not in use. The flexible display screen and flexible keyboard may be expanded from the housing when the flexible components are utilized by a user. Non-flexible display and input components may be provided on the exterior of the portable device such that the device may be used, in some form, while the flexible components are stored. In one embodiment, a portion of the flexible display (or flexible keyboard) may be utilized when the flexible display (or flexible keyboard) is stored in said first housing.

Abstract: A display apparatus includes a frame, an image display apparatus attached to the frame, and a distortion correction apparatus. The image display apparatus includes an image forming apparatus and an optical system configured to guide an image from the image forming apparatus to a pupil of an observer. When it is assumed that a direction, which corresponds to a first direction of the image, of the image forming apparatus is an X-direction and a direction, which corresponds to a second direction of the image which direction is different from the first direction, of the image forming apparatus is a Y-direction, the image forming apparatus is curved in the X-direction and/or in the Y-direction. The distortion correction apparatus corrects an input image signal to correct a distortion of an image to be observed.

Abstract: A head mounted device mounted on a user's head includes a display unit that displays an image to the user, a holding member that holds the display unit to the user's head, and an auxiliary member, including a rotation unit, that assists the holding member by rotating about the rotation unit to contact a front of the user's head. The rotation unit includes a biasing member that biases the auxiliary member in a direction of pressing the front region of the user's head and a restricting member that restricts the rotation at the rotation unit.

Abstract: Collaborative scene sharing for overcoming visual obstructions is provided. Video feeds of a scene are obtained from multiple devices viewing the scene from different angle. An obstruction obstructs portion(s) of the scene from view by a device. An aggregation grid that partitions views of the scene into cells is established and used in providing an aggregated view of the scene to the device. This includes identifying cell(s) of the aggregation grid for which the view by the device is obstructed by the obstruction, and providing to the device video portion(s) obtained from video feed(s) from the multiple devices. The video portion(s) correspond to the cell(s) for which the view by the device is obstructed, and the video feeds from which the video portions are obtained are from other device(s), of the multiple devices, for which the view for the cell(s) is unobstructed.

Abstract: An optical component for a display apparatus comprises an optical waveguide part (11) arranged to guide light therealong between surface parts thereof by internal reflection, an input part (13) arranged to receive light and direct the received light into the optical waveguide part, and an output part comprising a partially transmissive angularly reflective optical coating (25) arranged upon a surface part of the optical waveguide part. The output part is optically coupled to the input part by the optical waveguide part to receive guided light and to transmit some but not all of said guided light out from the optical waveguide part. The angularly reflective optical coating extends along a dimension of the optical waveguide part to expand the guided light in said dimension along the output part by repeated partial transmission thereof for output.

Abstract: An anti-ghosting reflection device includes: a reflection sandwich layer with a first surface and a second surface which are used as reflection surfaces; a first half-wave plate disposed on the first surface of the reflection sandwich layer; and a second half-wave plate disposed beneath the second surface. An anti-ghosting display system is capable of solving the problem of low reflection at the Brewster's angle, the invisibility of the polarized sunglasses, raindrops-caused image distortion by the use of the reflection sandwich layer disposed in the two half-wave plates in combination with an imaging device which can generate a polarization imaging light P.

Abstract: Aspects of the present disclosure relate to head worn computing lighting systems and stray light control.

Abstract: Described are techniques and systems for providing authentication credentials associated with a user. The user is authenticated using one or more techniques, such as multi-factor authentication using one or more biometric characteristics, biomedical data, passwords, and so forth, to generate authentication data. The authentication data may be used in conjunction with information about a wearable device (“wearable”), such as a wristband. Authentication may be confirmed upon an indication that the wearable has not been removed, tampered with, and so forth. In some implementations the wearable device may store and distribute the authentication credentials to requesting devices so long as the wearable has not been removed, tampered with, and so forth.

Abstract: Exemplary embodiments may involve analyzing reflections from an eye to help determine where the respective sources of the reflections are located. An exemplary method involves: (a) analyzing eye-image data to determine observed movement of a reflected feature on an eye surface; (b) determining an expected movement of the reflected feature on the eye surface given a value of a z-distance parameter; (c) determining a difference between the observed movement of the reflected feature on the eye surface and the expected movement of the reflected feature on the eye surface; (d) if the difference is less than a threshold, then associating the value of the z-distance parameter with a source of the reflected feature; and (e) if the difference is greater than the threshold, then: (i) making a predetermined adjustment to the value of the z-distance parameter; and (ii) repeating (a) to (d) with the adjusted value of the z-distance parameter.

Abstract: A system and method for generating a dynamic sensor array for an augmented reality system is described. A head mounted device includes one or more sensors, an augmented reality (AR) application, and a sensor array module. The sensor array module identifies available sensors from other head mounted devices that are geographically located within a predefined area. A dynamic sensor array is formed based on the available sensors and the one or more sensors. The dynamic sensor array is updated based on an operational status of the available sensors and the one or more sensors. The AR application generates AR content based on data from the dynamic sensor array. A display of the head mounted device displays the AR content.

Abstract: Aspects of the present invention relate to providing see-through computer display with improved optics.

Abstract: Devices and methods are described that provide for scanning surfaces and generating 3-dimensional point clouds that describe the depth of the measured surface at each point. In general, the devices and methods utilize scanning mirror(s) that reflect a laser beam into a pattern of scan lines. When the raster pattern of scan lines is directed at a surface, reflections of the laser beam from the surface are received and used to the generate 3-dimensional point clouds that describe the measured surface depth at each point. The motion of the scanning mirror(s) can be dynamically adjusted to modify the characteristics of the resulting 3-dimensional point cloud of the surface. For example, the adjustment of the scanning mirror motion can modify the resolution or data density of the resulting 3-dimensional point cloud that describes the measured depths of the surface.

Abstract: A vehicle information display system and an instrument panel assembly configured to project vehicle information onto the windshield or on a meter panel is provided. The information display system and the instrument panel assembly utilizes a single electronic display to either display vehicle information on the meter panel or to project vehicle information onto the windshield so as to reduce the number of components needed to perform both functions, and thus reduce packaging space. The electronic display and a first panel are rotatably mounted to the first display opening so as to alternatively cover the first display opening, wherein in a first mode of operation the electronic display is disposed within the first display opening and in a second mode of operation the first panel is disposed within the opening and the vehicle information is projected onto the windshield.

Abstract: An eyewear-type mobile terminal includes a camera; an output unit configured to output road guide information; and a controller configured to: acquire information about a current position; cause the output unit to output the road guide information for a route from the current position to a destination; cause the camera to acquire visual information in real-time while the road guide information is output; and update the road guide information in real-time based on the acquired visual information.

Abstract: The invention comprises a virtual window system that creates a visual coherency between the image of the patient and his or her anatomy and the patient by aligning the image of the patient anatomy on the display to the patient and presenting the image to the user that feels as if the user is looking directly into the patient through the display. The invention is designed to also display medical devices, such as a minimally invasive tool. The system substantially unifies the coordinate systems of the patient, the medical device, the display, and the physician's hands. The invention creates a visual coherency between the motion of the medical device in the image and the motion of the physician's hands manipulating the device. This invention also creates a visual coherency between the motion of the image in the display and of that display.

Abstract: A thermoplastic film for a laminated-glass pane, having a non-linear continuous wedge insert in both a vertical and horizontal direction in some sections, is described. In the vertical direction, the laminated-glass pane is, from the perspective of an observer, further at a lower end than at an upper end. In a laminated-glass pane equipped with the thermoplastic film, the thermoplastic film is located between two glass layers. The thermoplastic film has at least a first section having a wedge angle profile that is continuous and non-linear in the vertical and horizontal direction, such that ghost images from a head-up display are minimized in the region of the first section. The thermoplastic film also minimizes double images in transmission in the first section and in further sections.

Abstract: A display device includes a first substrate, a pixel defining layer on the first substrate, the pixel defining layer configured to define a light emission area, a first electrode in the light emission area, a light emitting layer on the first electrode, a second electrode on the light emitting layer, a second substrate which is opposite to the first substrate, and a reflecting member on a lower surface of the first substrate. The reflecting member may include a first reflecting unit on the lower surface of the first substrate, the first reflecting unit having an aperture at a position overlapping the light emission area, and a second reflecting unit on the first reflecting unit.

Abstract: A vehicle display device includes an indicator that luminously displays a display image on its screen by lighting and stops the luminous display of the display image by extinction, and a display panel that includes a light shielding part on a rear surface of the display panel. The light shielding part light-shields a surrounding part of a transmitting window, through which an image light of the display image is transmitted to be capable of being visually recognized from a front side. A transmission region of a front surface of the display panel that is located at least on the front side of the transmitting window is occupied by a planar part that is formed in a flat surface shape along the screen, and a plurality of projecting surface parts that project from the planar part into a curved projecting surface shape.

Abstract: An apparatus and method for controlling a virtual monitor in an augmented reality display system are provided. The method for controlling a virtual monitor in an augmented reality display system, including a camera for photographing an image for determining a location of the virtual monitor and for photographing an image of a user's finger, and a graphic device including window images, includes parallel-processing the image for determining a location of the virtual monitor and the window images and mapping the window images to a set location to create the virtual monitor, extracting a finger tip from the image of the user's finger, stencil-buffering an image of the finger tip not to render the image of the finger in the virtual monitor, determining whether the finger tip collides with the stencil-buffered virtual monitor, and controlling an operation of the virtual monitor according to the determination of the finger tip collision.

Abstract: An image display device includes a laser light source, a controller, a temperature acquisition unit, and an image forming unit. The laser light source emits a plurality of laser beams including a red laser beam, a green laser beam, and a blue laser beam. The controller controls lighting of the laser light source. The temperature acquisition unit obtains temperature information with respect to the laser light source. The image forming unit creates an image from the plurality of laser beams emitted from the laser light source. The controller varies a light output ratio between the plurality of laser beams, based on the temperature information obtained by the temperature acquisition unit.

Abstract: A control method executed by a computer including acquiring a first image, acquiring a first location of the target by using a wireless positioning system, displaying the first image and display information that is superimposed on the first image, the display information being displayed with associating with a first location coordinate determined based on the first location of the target, acquiring a second image, acquiring a second location of the target when a specified period of time elapses after the first location is acquired, acquiring a distance of movement of the target during the specified period of time by using an inertial sensor, making a determination of whether the display information is to be displayed with associating with the first location coordinate or a second location coordinate based on the distance of movement, the second location coordinate being determined based on the second location.

Abstract: Introduced herein are various techniques for displaying virtual and augmented reality content via a head-mounted display (HMD). The techniques can be used to improve the effectiveness of the HMD, as well as the general experience and comfort of users of the HMD. A binocular HMD system may present visual stabilizers to each eye that allow users to more easily fuse the digital content seen by each eye. In some embodiments the visual stabilizers are positioned within the digital content so that they converge to a shared location when viewed by a user, while in other embodiments the visual stabilizers are mapped to different locations within the user's field of view (e.g., peripheral areas) and are visually distinct from one another. These techniques allow the user to more easily fuse the digital content, thereby decreasing the eye fatigue and strain typically experienced when viewing virtual or augmented reality content.

Abstract: An information processing apparatus includes an acquiring unit that acquires a plurality of kinds of medical apparatus information, which are information acquired from a plurality of medical apparatuses, a generating unit that generates information for presentation including at least a part of the plurality of kinds of medical apparatus information acquired by the acquiring unit, and a presenting unit that outputs the generated information for presentation to an image display apparatus that displays an image. The generating unit generates the information for presentation including at least the medical apparatus information acquired by the medical apparatus, visual recognition of a display unit of which by a user of the image display apparatus is difficult.

Abstract: An information handling system (IHS) controls a display for an immersive experience based upon a gazing view of a user. A processor communicates with the display and a gaze detector to detect a relative location of a user to the display. A graphic processing unit (GPU) allocates a field of view on the display based upon the relative location, centers display content in the field of view on the display, and accesses color point control data in response to the allocated field of view. The GPU manages color and brightness of display components of the display according to the accessed color point control data to compensate for variations of color and brightness in a viewing angle of the field of view.

Abstract: An image display device includes a light source, a screen, an optical system, a screen driving mechanism unit, a memory unit, and a screen driving circuit unit. An image is formed on the screen by being irradiated with light from the light source. The screen driving mechanism unit moves the screen in an optical axis direction of the light. A smoothed movement profile is obtained by smoothing a movement profile used as a target for moving the screen so as to make a moving speed of the screen vary gently. The memory unit stores screen driving waveform information that has been generated so that the screen follows the smoothed movement profile. The screen driving circuit unit drives the screen driving mechanism unit, based on the screen driving waveform information stored in the memory unit.