Abstract: An image process apparatus includes an image capture device, a filter, a depth estimation unit, and a mixture unit. The image capture device captures an original image including at least one target object and generates a first depth map corresponding to the original image. The filter selects the at least one target object from the original image according to the first depth map and generates a temporary image including the at least one target object. The temporary image has a depth information of the at least one target object. The depth estimation unit generates a second depth map corresponding to an input image according to the input image. The mixture unit blends the temporary image into a predetermined field depth of the input image to generate a blending image including the input image and the at least one target object according to the depth information and the second depth map.

Abstract: Methods and systems are described for a media guidance application that enhances the viewing experiences of users by modifying, as perceived by a user, an area outside of the television or computer screen. In particular, the media guidance application may enhance the viewing experiences of users by darkening an area outside of a display screen visible to a user in order to prevent the area outside of the display screen from distracting a user.

Abstract: A machine-implemented method includes obtaining input data and generating output data. The status of at least one contextual factor is determined and compared with a standard. If the status meets the standard, a transformation is applied to the output data. The output data is then outputted to the viewer. Through design and/or selection of contextual factors, standards, and transformations, output data may be selectively outputted to viewers in a context-suitable fashion, e.g. on a head mounted display the viewer's central vision may be left unobstructed while the viewer walks, drives, etc. An apparatus includes at least one sensor that senses a contextual factor. A processor determines the status of the contextual factor, determines if the status meets a standard, generates output data, and applies a transformation to the output data if the status meets the standard. A display outputs the output data to the viewer.

Abstract: An image display apparatus includes a light source configured to emit image light, a scanning mirror configured to reflect the image light from the light source, and a reflective diffraction optical element configured to change a direction of the image light from the scanning mirror to a different direction in addition to regular reflection. The scanning mirror is arranged at a position and a height as different from an observing point as possible. A direction of extension of an interference fringe of the reflective diffraction optical element intersects incident light from the light source.

Abstract: An embodiment of a computer implemented method of displaying textual data includes receiving a request to display textual data and displaying textual data in a region within a display area. Displaying textual data includes sequentially presenting successive components of the textual data at a fixed position relative to the display area. The method also includes monitoring a point of gaze of a user based on biometric information, and based on detecting that the point of gaze is away from the region, automatically stopping the displaying by the processor at a time point corresponding to a current component, and determining a previous component of the textual data displayed at a previous time point. The method further includes, based on detecting that the point of gaze has returned to the region, commencing by the processor the displaying at the previous component and continuing to display successive components of the textual data.

Abstract: A head-mounted display (HMD) that includes a high resolution (HR) inset display and a peripheral display. The HR inset display is configured to display an inset region that includes a portion of an image at a first resolution that corresponds to a resolution of a fovea region of a human eye. The peripheral display displays a background region, the background region having a second resolution that is less than the first resolution, the second resolution corresponding to a resolution of a non-fovea region of the human eye. The HMD includes an optics block that combines the inset region and the background region to create composite content at retinal resolution, and direct the composite content to an exit pupil of the HMD corresponding to a location of an eye of a user of the HMD.

Abstract: A HUD device mounted on a moving body that projects an image on a projection member to virtually display the image includes a projector, a reflector mirror, a stepper motor, a reduction gear mechanism that reduces rotation which is output from the stepper motor and transmitted to the reflector mirror, and a controller that calculates a control step angle for the stepper motor. The controller, when an output direction of the motor according to the control instruction at this determination is the opposite direction as a direction of the rotation of the last time, adds a reverse step angle of the opposite direction, which is equal to or greater than a sum of a reference step angle and a backlash angle of the reduction gear mechanism, to the control step angle.

Abstract: A system, method and software for producing a virtual scene to be viewed on an electronic display. A virtual reference plane is defined. The reference plane has peripheral boundaries. A virtual object is positioned above the reference plane in the virtual scene. Stereoscopic camera viewpoints are calculated that enable the virtual object to be imaged with the reference plane within the peripheral boundaries of the reference plane. The virtual object is digitally altered before and/or after being stereoscopically imaged. The altering includes bending, tapering or tilting a portion of the virtual object, and/or tilting a portion of the reference plane. A common set of boundaries are set for a superimposed image to create a final image.

Abstract: A vehicle sightline guidance apparatus includes a display member displaying an image on either one one a see-through windshield and screen that allow a vehicle occupant to visually recognize outside of a vehicle; a scenery-information acquiring unit acquiring scenery information visually recognized by the occupant from inside the vehicle; and a perspective-position specifying unit specifying a perspective position, which is a position on the windshield or screen that a sightline passes when the occupant visually recognizes a predicted path of the vehicle or a position where left and right edges of the predicted path are projected, based on the scenery information. Based on the perspective position, the display member displays two reference marks on the windshield or screen such that the marks are separated from each other by a distance equivalent to a vehicle width or larger and appear to be aligned with the left and right edges.

Abstract: An example system is described that includes a head-mountable device (HMD) with a bone conduction transducer that transmits an audio signal and an inertial measurement unit (IMU) sensor connected to the bone conduction transducer. The IMU sensor detects movement of the HMD due to vibrations of the bone conduction transducer transmitting the audio signal and the IMU sensor provides outputs. The system also includes one or more processors that receive the outputs of the IMU sensor and compare the outputs of the IMU sensor with at least one reference signal. The at least one reference signal is based on the audio signal that is transmitted. The one or more processors output an HMD fitting parameter based on the comparison.

Abstract: A system for displaying information from a mobile computer in a vehicle is provided. The system is comprised of a screen, means for projecting images from the mobile computer onto the screen, means to determine a driver of the vehicle's position with respect to the vehicle, and means to adjust the orientation of the images on the screen based upon the position of the driver. The screen is transparent and is mounted on the vehicle. The screen is viewable from inside the vehicle and from outside the vehicle. The system is configured to reverse the orientation of the images on the screen based upon the driver being in front of the vehicle.

Abstract: A head-up display apparatus includes an image display surface that displays a color image by multiple pixels, each of the pixels being divided into sub-pixels. The color image displayed on the image display surface is projected to a transparent plate member provided in front of a driver seat, and the color image is displayed superimposed to a forward scenery of the transparent plate member. The image display surface includes a first region including a center position, and a second region other than the first region. Each of the pixels in the first region includes a sub-pixel displaying red, a sub-pixel displaying green, and a sub-pixel displaying blue. Each of the pixels in the second region includes multiple sub-pixels including a sub-pixel displaying color having a color phase biased to at least one direction of a red direction, a green direction, and a blue direction.

Abstract: A detachable head-mounted-display cushion may include a cushion layer having a user-side surface dimensioned to abut a facial portion of a user and a display-side surface dimensioned to abut a mounting surface of a facial-interface system for a head-mounted display. The detachable head-mounted-display cushion may also include a magnetic-coupling mechanism configured to removably attach the cushion layer to the mounting surface of the facial-interface system. A corresponding head-mounted-display system may include a head-mounted display, a facial-interface mounting member for the head-mounted display, a cushion layer abutting the facial-interface mounting member, and a magnetic-coupling mechanism removably attaching the cushion layer to the facial-interface mounting member. A method may include positioning a cushion layer abutting a facial-interface mounting member for a head-mounted display and removably attaching the cushion layer to the facial-interface mounting member with a magnetic-coupling mechanism.

Abstract: Methods, systems, computer-readable media, and apparatuses for selecting an Augmented Reality (AR) object on a head mounted device (HMD) are presented. In some embodiments, an HMD may define a Region-of-Interest (ROI) based on a gesture formed by at least one hand of a user. Subsequently the HMD may display to the user a shape on the HMD. In at least one arrangement, the shape outlines the ROI. Additionally, the HMD may display to the user a plurality of AR objects, each of the plurality of AR objects being associated with a target inside the ROI. Furthermore, the HMD may reduce the size of the ROI based on a first movement of the at least one hand of the user to form a reduced-sized ROI. In at least one arrangement, the reduced-sized ROI is used to select a specific AR object from the plurality of AR objects.

Abstract: A head mounted display device is provided. The head mounted display device includes a main frame including a lens, a front case including a seating area in which an electronic device is seated, a peripheral area that surrounds at least a portion of a periphery of the electronic device, a connector holder that is horizontally movable from one side of the peripheral area and that is electrically connected to a connection port of the electronic device while surrounding at least a portion of one side of the electronic device when the electronic device is mounted, and a fixing holder that is horizontally movable from one side of the peripheral area and that surrounds a portion of an opposite side surface of the electronic device when the electronic device is mounted.

Abstract: Examples are disclosed herein relating to an adjustable scanning system configured to adjust light from an illumination source on a per-pixel basis. One example provides an optical system including an array of light sources, a holographic light processing stage comprising, for each light source in the array, one or more holograms configured to receive light from the light source and diffract the light, the one or more holograms being selective for a property of the light that varies based upon the light source from which the light is received, and a scanning optical element configured to receive and scan the light from the holographic light processing stage.

Abstract: This head-up display device according to an embodiment of the present invention is mounted on an instrument panel of a vehicle. A display means that emits display light is contained in a chassis having a light transmissive cover having a curved surface, and the display light emitted by the display means is output from the light transmissive cover. The curved surface of the light transmissive cover is curved so that the side on the front side of the vehicle is lower than the side on the back side of the vehicle, and that the curved surface is inclined toward the left-right direction of the vehicle so that a corner of the curved surface is lowest.

Abstract: A detachable adjustable electronics module may be removably or permanently connected to eyewear. The module may include electronics for processing audio and/or video input and/or output signals. The module may be provided with an adjustable arm, for adjustably carrying a speaker. The module and/or the speaker may be adjusted relative to the wearer in any of the anterior-posterior direction, the inferior-superior direction and laterally. Rotation adjustments may also be accomplished. Eyewear may be provided with only a single module, on a single side, or with two modules, one on each side, such as to provide stereo audio or dual mono sound.

Abstract: A variable-power optical system includes, in order from an object, an objective optical system (O), a relay optical system (R), and an eyepiece optical system (E), wherein the relay optical system is provided with, in order from the object, a first lens group (G1) having positive refractive power, a second lens group (G2) having positive refractive power, and a third lens group (G3) having positive refractive power, and is an optical system in which an image formed by the objective optical system with variable optical power, and the variable-power optical system is configured so as to satisfy expressions: 0.7<|?|min<1.4, and 12 (mm)<fmin<15 (mm), where |?|min denotes a minimum of absolute value of imaging magnification of the relay optical system, and fmin denotes a shortest focal length.

Abstract: Systems, devices, and methods that integrate eye tracking capability into scanning laser projector (“SLP”)-based wearable heads-up displays are described. An infrared laser diode is added to an RGB SLP and an infrared photodetector is aligned to detect reflections of the infrared light from features of the eye. A holographic optical element (“HOE”) may be used to combine visible light, infrared light, and environmental light into the user's “field of view.” The HOE may be heterogeneous and multiplexed to apply positive optical power to the visible light and zero or negative optical power to the infrared light.

Abstract: Embodiments of the invention describe apparatuses, systems and methods for capturing, selecting and analyzing image data of a user of a computing device display from multiple viewpoints. Embodiments of the invention capture or receive data comprising a plurality of images from an image capture system, wherein the plurality of images comprises images of a user of a computing system from multiple viewpoints. A gaze direction of the user with respect to the display is determined based, at least in part, on the plurality of images. Embodiments further determine a target area on the computing device display based, at least in part, on the determined gaze direction of the user, and execute an application operation in response to determining the target area of the user's gaze.

Abstract: A head up display unit can be provided in an inner portion of an instrument panel. A column bracket for mounting a steering column is at a lower portion of a vehicle body strength member and extends in a vehicle width direction in a vehicle rear side of a front wall panel of a vehicle interior. The head up display unit is mounted on the column bracket so as to be movable to a vehicle upward direction by an emergency input load from a vehicle front direction.

Abstract: A mobile information gateway comprises: a wearable human interface module having an image delivery and display mechanism for presenting information overlaid upon a wide field of view, a computing and communication module adapted to send and receive information to and from the human interface module; and a backend service server coupled for processing medical data. The present invention also includes a method comprising: capturing information with a first mobile information gateway device; processing the captured information to determine an identity of a first user and authenticate the first user; processing the captured information to determine an identity of a patient and authenticate the patient; processing the identity of the first user and the identity of the patient to retrieve information of the patient; and resenting the retrieved information of the patient overlaid on a field of view by the first mobile information gateway device.

Abstract: A method and system for tracking mobile objects in a site are disclosed. The system comprises a computer cloud communicating with one or more imaging devices and one or more tag devices. Each tag device is attached to a mobile object, and has one or more sensors for sensing the motion of the mobile object. The computer cloud visually tracks mobile objects in the site using image streams captured by the imaging devices, and uses measurements obtained from tag devices to resolve ambiguity occurred in mobile object tracking. The computer cloud uses an optimization method to reduce power consumption of tag devices.

Abstract: A device includes a processor and memory coupled to the processor. The memory is encoded with instructions that are executable by the processor to provide content signals. The device also includes a display screen extendable to present an extended portion comprising display pixels configured to display content using the content signals. The display screen comprises a scroll element which may provide a base substrate on which thin film circuits are fabricated, and may also provide motive force during retraction. The scroll element is attached to a pull bar and the pull bar is attached to an extensible support member that provides support during extension and retraction of the display screen.

Abstract: Systems, devices, and methods that integrate eye tracking capability into scanning laser projector (“SLP”)-based wearable heads-up displays are described. An infrared laser diode is added to an RGB SLP and an infrared photodetector is aligned to detect reflections of the infrared light from features of the eye. A holographic optical element (“HOE”) may be used to combine visible light, infrared light, and environmental light into the user's “field of view.” The HOE may be heterogeneous and multiplexed to apply positive optical power to the visible light and zero or negative optical power to the infrared light.

Abstract: An electronic mirror system comprising: an imaging portion that captures an image around a vehicle, and outputs the image to an image display control apparatus; and a display portion that displays an image received from the image display control apparatus. The image display control apparatus comprising: a shift amount calculation portion that calculates a shift amount of an object image that shows an object within an image; a following speed determination portion that determines a following speed of an additional image for the object image; an elapsed time calculation portion that calculates the elapsed time; a shift amount determination portion that determines a shift amount of the additional image; an additional image synthesis portion that synthesizes the additional image to the object image; and a display controller that allows the display portion to display a synthetic image.

Abstract: An image display apparatus includes a frame along a head of an observer, a display unit that displays an image that can be visually recognized by the observer, and a supporting part attached to the frame and supporting the display unit, wherein the frame is fixed to a position in which the image displayed by the display unit connected to the frame via the supporting part is visually recognized by the observer.

Abstract: Aspects of the present invention relate to methods and systems for a head-worn computer with a content display where the head-worn computer can be changed from an augmented reality system where there is relatively high see-through transmission through the display to a virtual reality system where the is no or relatively little see-through transmission through the display.

Abstract: A head-up display device comprises a cradle assembly and a stand assembly. The cradle assembly is configured to support a portable electronic device having a display. The stand assembly is configured to mount on a dashboard of a vehicle. The cradle assembly includes a platform and a combiner configured to at least partially reflect an output of the display of the portable electronic device. The combiner is pivotally connected to the platform using at least one combiner holder. The stand assembly includes a base and a pivot joint connected to the base and arranged substantially over the upper surface of the base. The stand assembly also has a coupler attached to the pivot joint and configured to releasably connect the cradle assembly with the stand assembly. The lower surface of the base may include a repositionable adhesive layer for coupling to the dashboard.

Abstract: A system and method system for determining the positions of one or more collision avoidance sensors on a vehicle is provided. The system includes one or more sensors disposed on the vehicle and configured to generate electromagnetic waves within corresponding fields of view on a side of the vehicle and to receive reflections of the waves from objects passing through the field of view of each sensor. A controller receives signals generated by the sensors responsive to the reflections and determines, responsive to the signals, relative speeds and relative directions of movement of the objects relative to the vehicle. The controller further determines the position of the sensors on the vehicle responsive to the relative speeds and relative directions of movement. In particular, the controller determines the location of sensors relative to the vehicle centerline and the relative positions and distances between sensors in the direction of vehicle travel.

Abstract: The invention relates to a display device (2) for a motor vehicle (1) having a mirror apparatus (13) which has a display element (7) with a semi-transparent mirror surface, and having a drive apparatus (15) by means of which the mirror apparatus (13) can be moved between a storage position and a position of use, wherein the mirror apparatus (13) has a sensor apparatus (22) which is configured to detect, in the position of use of the mirror apparatus (13), a force applied to the display element (7).

Abstract: Techniques for simulating interactions using an augmented reality device are described. Embodiments receive a request to paint over portions of a visual scene. Here, the visual scene is captured using one or more camera devices of the augmented reality device and is presented on a display of the augmented reality device. A first object in the visual scene corresponding to the first location is identified. Additionally, embodiments paint at least a portion of the first object as specified by the received request, and render a series of frames depicting the first object, such that the painted at least a portion of the first object is shown as painted when viewed from different perspectives using the augmented reality device.

Abstract: A liquid crystal display device for a head-up display device includes: a light source unit including a reflection film provided on a substrate, and a light-emitting element; a liquid crystal display element including a first polarizer provided on the light source unit side, and a second polarizer disposed to be opposed to the first polarizer via a liquid crystal layer; a retardation plate provided between the reflection film and the first polarizer, and imparting a retardation of ?/4 to light; a reflective polarizer provided between the retardation plate and the first polarizer, and reflecting a light component which is parallel to a reflection axis; and a diffusion member provided between the reflective polarizer and the first polarizer, and diffusing light.

Abstract: A method to alert traffic light at an intersection in a vehicle is provided. The method comprises determining a driver intent related to a vehicle driving direction; determining a traffic light status corresponding to the driver intent; determining an alert position in the vehicle based on the driver intent; and illuminating the alert position with at least a first designated color based on the traffic light status.

Abstract: The present invention provides an optical structure for a vehicle, including: an optic unit which is configured by a plurality of optics; a lens which is provided with an interval from the optic unit; and a shield which is provided between the optic unit and the lens to reflect light which passes through the optic toward the lens.

Abstract: A head mount display includes a frame attached to a head of an observer, an image display unit that displays an image to be visually recognized by the observer, a fixing part that fixes the image display unit to the frame, an detection part that detects a signal according to a relative attitude of the image display unit with respect to the frame, and a control part that controls the image displayed by the image display unit based on the output signal of the detection part.

Abstract: A head up display apparatus includes: a first mirror having power; a second mirror having power; and a light shielding member provided with an aperture. The aperture is provided between an image display surface and the second mirror. Display light which is output from the image display surface is reflected by the first mirror, the second mirror, and the first mirror in this order, and reaches a front windshield (image reflection surface) by passing through the aperture.

Abstract: There is provided an optical system, including a light-transmitting substrate having at least two major surfaces parallel to each other edges, and an optical device for coupling light into the substrate by total internal reflection. The device includes a polarization sensitive reflecting surface.

Abstract: A self contained breathing apparatus electronics system that provides a method for maximizing battery life, estimating remaining battery life and condition, insuring reliable communications between modules, maintaining reliable real-time clock (RTC), minimizing piezo interference, minimizing effects of RFI and EMI on pressure measurement, retaining consistency in the motion detection circuitry due to sensitivity to temperature changes, and provides an SCBA facemask-mounted Thermal Imaging Camera (TIC) Module and a Heads-Up Display (HUD) Module mounted inside an SCBA facemask, in one of several embodiments.

Abstract: A vehicle camera cleaning system includes an air source and a computer processing unit configured to communicate with the air source. The air source is configured to apply an air flow to a lens of a camera. The camera includes a successive and repeated operational mode and non-operational mode. The computer processing unit includes a non-transitory computer readable medium having instructions to cause the computer processing unit to transmit a signal to the air source to actuate the air flow based on the camera being in the non-operational mode.

Abstract: Provided are a bezel body and a vehicular display device that effectively reduces a sense of discomfort provided to a passenger by making reflection on a windshield less visible. Since a reflection portion is formed in a predetermined area on a lower surface of a light guide member at the rear side, the guided external light is easy to reflect upward, whereby light can efficiently be emitted from the light guide member toward a descending wall. Therefore, this configuration can prevent the descending wall from being darkly reflected on a windshield, thereby making the reflection less visible and effectively reducing a sense of discomfort provided to the passenger.

Abstract: A head-up display includes an image light output device for outputting image light, a first optical element, a second optical element, and a third optical element. The first optical element is provided to be inclined with respect to the output surface of the image light output device. The first optical element reflects the image light having a first polarization direction and allowing the image light having second polarization direction to pass through. The second optical element reflects the image light from the first optical element to the first optical element. The third optical element is disposed between the first and the second optical element, and converts the image light having the first polarization direction to the image light having the second polarization direction by allowing the image light to pass through back and forth. The image light passing through the first optical element is projected on a combiner.

Abstract: Device (1) for projecting an image into a display area (2), with an imager (31) generating the picture, a first projection device (30) for generating a real intermediate image (R), a screen (5) onto which the first projection device (32) projects the intermediate image (R) and to a second projection device (9) projecting the intermediate image (R) into the display area (2). In order to project the image with the least possible loss of brightness, the invention provides that main beam directions (H, H?, H?) of the screen (5) point into an entrance pupil (20) of the second projection device (9).

Abstract: Systems and methods for getting and using reaction and feedback on contents presented on device. In an aspect, viewing time of a user is measured by eye-tracking method, and used to conduct analysis, change contents, charge fees, or award the user. In another aspect, other methods are used to detect user reaction and feedback, perform feedback analysis, respond to user request, or improve user experience. Contents include advertisements or other sponsored programs.

Abstract: In accordance with embodiments herein an electronic device is provided comprising a housing, a display, and a camera assembly including a camera and an articulating support that includes a base and a main leg joined to the base. The base and main leg movably coupled to the housing wherein movement of the articulating support defines camera alignment paths followed by the camera when moving between a retracted position and active positions.

Abstract: An optical device includes a light-conducting member, having a first panel surface disposed facing an image forming unit, that conducts image light incident on a light entry plane formed at an end of the first panel surface to a light exit plane formed in front of the viewer's eye; a first diffractive optics element, provided on the light entry plane, that diffracts the image light incident on the light entry plane in a predetermined direction and transmits that light into the light-conducting member; a second diffractive optics element, provided on the light exit plane, that diffracts the image light exiting from the light exit plane in a predetermined direction and transmits that light to the front of the viewer's eye; and one or more reflective planes disposed within a waveguide for the image light diffracted by the first diffractive optics element.

Abstract: 3D glasses which can individually acquire information according to 3D content that users view. The 3D glasses include a transparent display unit displaying at least one of information on 3D content and a control screen for controlling a 3D display device on a 3D glasses unit, a transmission/reception unit receiving at least one of the information on the 3D content and the control screen for controlling the 3D display device from the 3D display device and transmitting the received signal to the transparent display unit, and a control unit controlling the transparent display unit to display the information on the 3D content or the control screen for controlling the 3D display device.

Abstract: A vehicle-mounted display device is provided with a first attention calling indicator, and a second attention calling indicator. The first attention calling indicator includes first light emitting units which emit light, and is located in one of front left and right sides of a driver's seat, and guides light from the first light emitting units toward a direction of the driver's seat using a reflection from a windshield. The second attention calling indicator includes second light emitting units which emit light, and is located in the other of the front left and right sides of the driver's seat, and guides the light from the second light emitting units toward the direction of the driver's seat using the reflection from the windshield or a reflection from a door window so as to perform display symmetrically along with the first attention calling indicator.

Abstract: Systems and methods for viewing stereoscopic video images are disclosed. The systems can include a first video camera configured to generate a first video feed of a subject, and a second video camera configured to generate a second video feed of the subject. The first video feed and the second video feed combined generate a near real-time stereoscopic video image. A tracking module can be associated with the first video camera and the second video camera, and can be configured to cause the first video camera and the second video camera to be directed to a desired convergent point relative to a selected tracking point to maintain stereopsis. The system may further include an array of video cameras, a gesture control module, an image adjustment module, a calibration module, or a 3-D modeling module, for example.