Abstract: A method for adjusting the angle of an element of a photographing unit of a head mounted display is provided by the present disclosure, including determining a rotation angle of a user's head when the user's head rotates, and adjusting an angle of the element of the photographing unit of the head mounted display according to the rotation angle, to align a photographing lens with a specific subject. A head mounted display is provided by the present disclosure, thus automatically capturing a photographing scene may be realized.

Abstract: Provided are a projection type display device, a control method of a projection type display device, and a control program of a projection type display device, capable of being continuously used even in a case where a vehicle vibrates, and performing optimal display depending on the vibration. An HUD 100 includes a projection display section 50 that projects image light obtained by spatially modulating light emitted from a light source onto a combiner 12 to display a virtual image, a first vibration detector 61 that detects a first vibration of the combiner 12, a second vibration detector 62 that detects a second vibration of the projection display section 50, a third vibration detector 63 that detects a third vibration of the projection display section 50 with respect to the combiner 12 on the basis of the first vibration and the second vibration, and a display controller 64 that controls the image to be displayed by the projection display section 50.

Abstract: The invention relates to a housing for a head-up display of a motor vehicle, which housing has an inner wall that at least partially delimits an internal space for an imaging projection device to project a virtual image in a beam path onto a reflection surface in an internal space of the motor vehicle. The housing is characterized by at least one reflective deflection region of the internal wall to deflect the beam path of the imaging projection device. The deflection region may have a metallized or metallizing layer which is formed via the application of a metallizing, amorphous substance or material onto a surface of a base body of the inner wall, said surface facing toward the internal space. The invention furthermore relates to a corresponding head-up display, a correspondingly embodied motor vehicle, and a method to provide a housing according to the invention.

Abstract: An eyepiece optical system is configured to form a non-telecentric optical system together with an image display unit serving as an image element, and to include the pixels in which a pixel in a peripheral region and the like on an image display has a larger size than a pixel in a central region on the image display. Accordingly, the central region that supports a wide angle of view and is of the image display on the image element having an effective field of view with a good performance of information capacity, makes it possible to retain image formation with high resolution, and to prevent an image from being degraded in the peripheral region, thus making it possible to ensure high-quality visibility.

Abstract: The present invention displays multiple images at different locations in the depth direction, while suppressing a decline in display quality, using projected light emitted from a single projector. A projector 20 emits first projection light L1 and second projection light L2 that have a first projection distance P1. A projection distance lengthening unit 251 having a negative refractive power is positioned along the path of the first projection light L1 between the projector 20 and a first screen 23, and causes an image to be formed on the first screen 23 by lengthening the projection distance P of the first projection light L1. A projection distance shortening unit 252 having a positive refractive power is positioned along the path of the second projection light L2 between the projector 20 and a second screen 24, and causes an image to be formed on the second screen 24 by lengthening the projection distance P of the second projection light L2.

Abstract: An eye-tracker for determining a position of the pupil of an eye includes a detector and an optical element. The optical element has a first side facing the detector and an opposing second side. The optical element is configured to receive light reflected off the eye on the first side and redirect a portion of the reflected light that has a first wavelength in a spectral range and a first circular polarization toward the detector. The optical element is also configured to light that is outside the spectral range and light that has a second circular polarization opposite to the first circular polarization. A head-mounted display device that includes a display system and the eye-tracker is also disclosed. A method for determining the location of a pupil of an eye is also disclosed herein.

Abstract: A display control apparatus includes a processor configured to acquire a peripheral image around a predetermined object captured by image capture units. The predetermined object is different from the image capture units. The processor is also configured to determine whether or not a moving situation of an image of a moving subject included in the acquired peripheral image corresponds to a predetermined specific situation. The moving situation is a moving situation of the image of the moving subject with respect to the predetermined object. The processor is further configured to execute control to produce an output so as to display distinguishably on a display an image of a partial region among the peripheral image, the partial region including the image of the moving subject, when the moving situation of the image of the moving subject corresponds to the predetermined moving situation.

Abstract: Provided are a projection type display device, a display control method thereof, and a display control program thereof capable of preventing missing of warning information even in a case where display of warning information using a virtual image and display of warning information using a real image are switched. During a low speed run, warning information A1 is displayed on a windshield 6 using a real image Ir, and guidance information G1 is displayed in front of the windshield 6 using a virtual image Iv. During a high speed run, warning information A2 is displayed in front of the windshield 6 using the virtual image Iv, and guidance information G2 is displayed on the windshield 6 using the real image Ir.

Abstract: In one embodiment, the artificial reality system determines that a performance metric of an eye tracking system is below a first performance threshold. The eye tracking system is associated with a head-mounted display worn by a user. The artificial reality system receives first inputs associated with the body of a user and determines a region that the user is looking at within a field of view of a head-mounted display based on the received first inputs. The system determines a vergence distance of the user based at least on the first inputs associated with the body of the user, the region that the user is looking at, and locations of one or more objects in a scene displayed by the head-mounted display. The system adjusts one or more configurations of the head-mounted display based on the determined vergence distance of the user.

Abstract: A projection display device mounted in a vehicle includes a light modulation unit that spatially modulates, in accordance with image data that has been input, light emitted by a light source; a projection optical system that projects the light that has been spatially modulated onto a projection surface of the vehicle; and an image data control unit 63 that controls image data to be input to the light modulation unit. The image data control unit 63 performs, in a first mode in which driving is performed in accordance with an internally generated instruction or an externally and wirelessly received instruction, control to switch between projection of image light for normal display onto the projection surface 2 and projection of image light for warning display onto the projection surface 2.

Abstract: According to one embodiment, a wearable device includes a display, a detector, and a hardware processor. The display displays a screen keyboard on a screen when an instruction is input. The detector includes a polygonal plate and detects a tracing action of a finger over a side of the polygonal plate. The hardware processor determines whether the screen keyboard is displayed on the screen when the detector detects the tracing action, and executes an action on the screen in accordance with the tracing action detected by the detector when the hardware processor determines that the screen keyboard is displayed.

Abstract: A field curvature virtual image display system applicable to a projection lens set comprises: an image source disposed in a partial region of an objective plane of the projection lens set; a first imaging group having a front lens group and a back lens group; and a second imaging group having a partial reflection and partial transmission surface and an antireflection surface and functioning as an image combiner. In a field curvature virtual image display system system, the objective plane is imaged as a virtual image surface with a specific field curvature type to generate an including angle between the optical axis of the first imaging group and the optical axis of active virtual image.

Abstract: In an aircraft including a cockpit, a unit for monitoring the situation of the aircraft and a radio communication unit, the device for aiding the ground rolling is configured to: acquire, from the monitoring unit, information the situation of the aircraft and determine predicted positions of the aircraft for a set of future instants, and for each vehicle of a set of other vehicles situated on the surface of the airport: acquire, from the radio communication unit, information regarding the situation of the vehicle, which information is transmitted by this vehicle, determine predicted positions of the vehicle and calculate a distance between the predicted position of the aircraft and the predicted position of the vehicle for each instant of the set of future instants and compare this distance with a predetermined distance threshold and, emit an alert in the cockpit if this distance is less than this distance threshold.

Abstract: A system for predicting a touch position of a pointer on a touch-enabled unit includes a 3D imaging unit, a processing unit coupled to the 3D imaging unit, and a touch-enabled unit coupled to the processing unit. The 3D imaging unit is configured to monitor an interaction zone in front of the touch-enabled unit. The processing unit includes a prediction module that is configured to predict where a pointer that approaches the touch-enabled unit and is monitored by the 3D imaging unit will touch the touch-enabled unit, and a calibration module that is configured to generate at least one calibration parameter by comparing the predicted touch position to the actual touch position of the pointer detected by the touch-enabled unit and to transfer the at least one calibration parameter to the prediction module in order to calibrate the prediction module.

Abstract: Disclosed herein are a display apparatus which includes an image processor configured to analyze a histogram of image data including at least one of a white color level and a black color level to determine a color level range and a controller configured to set a display mode or to convert the color level range based on the determined color level range.

Abstract: A VST-HMD (Video See-Through Head Mounted Display) includes at least one camera, a first display device, a second display device, a first lens, a second lens, a first eye tracker, a second eye tracker, and a processor. The camera captures environmental image information. The first eye tracker detects left-eye motion information of a user. The second eye tracker detects right-eye motion information of the user. The processor determines an eye focus region of the user and depth information of the eye focus region according to the environmental image information, the left-eye motion information, and the right-eye motion information. The processor further monitors a displacement of the eye focus region and a change in the depth information, and accordingly determines whether to adjust image positions of the first display device and the second display device and/or focus of the camera.

Abstract: Examples disclosed herein include an augmented reality (AR) see-through display system, which includes a diffractive backlight substrate including diffractive gratings. The display system includes a light source to transmit light into the backlight substrate, wherein the diffractive gratings scatter the light out of the backlight substrate to form an array of directional pixels. The display system includes an LCD panel to modulate the array of directional pixels to form an image that augments a real world view visible through the backlight substrate and the LCD panel.

Abstract: A vehicle display device includes: a projector that emits display light corresponding to a display image to be visually recognized by a driver of a vehicle; a screen on which the display image corresponding to the display light emitted from the projector is projected and that reflects the display light; and an aspheric mirror reflecting reflection light of the display light reflected by the screen toward a windshield of the vehicle. The aspheric mirror has a non-reflection area on a part of a reflection surface reflecting the reflection light toward the windshield. The projector is arranged at a position facing the screen with the aspheric mirror interposed therebetween such that the display light passes through the non-reflection area and is directed to the screen.

Abstract: A method includes detecting a focus of attention of an observer of an anatomical image of a set of images, determining a location of the anatomical image includes tissue with a finding of interest based on the detected focus of attention, identifying an anatomical image, from an earlier acquired imaging data set, with a same portion of tissue as the displayed image, visually displaying graphical indicia, concurrently with the displayed image, that identifies the earlier acquired image.

Abstract: Techniques and systems to support collaborative interaction as part of virtual reality video are described. In one example, a viewport is generated such that a reviewing user of a reviewing user device may view VR video viewed by a source user of a source user device. The viewport, for instance, may be configured as a border at least partially surrounding a portion of the VR video output by the reviewing VR device. In another instance, the viewport is configured to support output of thumbnails within an output of VR video by the reviewing VR device. Techniques and systems are also described to support communication of annotations between the source and reviewing VR devices. Techniques and systems are also described to support efficient distribution of VR video within a context of a content editing application.

Abstract: Eye-tracked head-mounted displays are provide which, in one aspect, may utilize the same optics for eyetracking and image viewing, with a selected portion of the optics used for an eyetracking optical path and a selected portion of the display optics used for an image viewing optical path.

Abstract: A HUD apparatus is provided. The HUD apparatus is provided with: an optical source part having a light emission element; a condenser lens, which faces the optical source part, and collects light source light; a field lens, which further collects the light source light transmitted from the condenser lens side, and which projects light at a predetermined angle; and an image formation element, which forms an image when the light source light transmitted from the field lens side is inputted thereto, and which projects light of an image toward the windshield side. The field lens has a composite surface on at least one of the condenser lens side and the image formation element side, the composite surface having multiple continuous optical surfaces. The condenser lens has a diffusion part that diffuses the light source light.

Abstract: A wearable display includes left and right display lens systems each having imaging units configured for augmented reality imaging. The imaging units include an emitter structure, one or more optical elements, a display optic, an electrically alterable scanning optical element and a calibration light sensor. The emitter structure has one or more light sources configured to emit light. The optical elements direct the light along a light path in the imaging unit. The scanning optical element receives the light from the optical elements and directs it to the display optic. The scanning optical element scans in one or more dimensions to direct the light through an imaging optic that directs the light into the display optic. The calibration light sensor is located at a point along the light path between the emitter structure and the scanning optical element and receives a portion of light from one of the optical elements.

Abstract: A first sensor device detects a viewing direction of a user, who is located in an interior of the motor vehicle, onto a display surface of a motor vehicle. A control unit of the motor vehicle determines a display parameter of a digital image subject to the detected viewing direction, specifying an absolute pictorial configuration of the digital image. The determination of the display parameter is based on the viewing direction of the user onto the absolutely pictorial configuration of the digital image, such that a relative, perspective-related configuration of the digital image is obtained so that the relative, perspective-related configuration corresponds to a target configuration of the digital image. The control unit generates the digital image as a function of the determined display parameter and the digital image is then displayed on the display surface.

Abstract: A computer-implemented method includes: monitoring, by a computing device, a driver's eye gaze direction; receiving, by the computing device, a notification; determining, by a computing device, a location to display the notification based on the driver's eye gaze direction; and generating, by the computing device, display instructions to display the notification in the determined location.

Abstract: An object detection device including at least one image capture element can capture image data in a field of view and detect types of objects located in that region. Information such as a direction of travel or speed of the object may be used to determine a relative position of the object of interest, for example relative to the object detection device or a target object. The data from multiple devices for a region can be aggregated such that objects can be tracked as they move though the region. Information about the relative position of the object of interest can be used to trigger alerts to users in the area.

Abstract: A mobile unit and a system for a mobile unit which can judge whether an oncoming car is emitting a high beam are provided. A mobile unit and a system for a mobile unit which include a first and a second sensors, a memory circuit, an arithmetic circuit, and a window portion. The first sensor is configured to sense the position of the eyes of a driver who is riding in the mobile unit. The second sensor is configured to sense whether an oncoming car is existing, whether the oncoming car is emitting a high beam, and a region that is to be irradiated with the high beam. The memory circuit is configured to store an irradiation distance of a high beam and a decrease rate of light transmittance of the window portion. The arithmetic circuit is configured to output, to the window portion, data on a region of the window portion in which the light transmittance is to be changed, on the basis of data sensed by the first sensor and the second sensor and data stored in the memory circuit.

Abstract: A controller for synthesizing images for a vehicle display comprises a first image generator for generating a bird's eye image from a first set of cameras, the bird's eye image depicting the surroundings of a host vehicle and having a generally central portion. The controller includes a second image generator for generating a second image separate from the bird's eye image. The controller includes a synthesizer for synthesizing the bird's eye image and the second image for displaying the second image within the generally central portion of the bird's eye image.

Abstract: A method for presenting information upon starting an automotive vehicle includes at least one step in which various parameters associated with the vehicle are verified. Also included is a step in which a particular light beam is projected onto a specific area of the passenger compartment of the vehicle when the state of a plurality of verified parameters allows the vehicle to be started.

Abstract: An apparatus and system for a display screen for use in near-eye display devices. Small light emitting devices are placed behind a plurality of light-directing beads. The light emitting devices and light-directing beads for a display device and system placed in front of a user for near-eye display. This allows a user to experience near-eye display with greater resolution, wider field of view and faster frame rate. Other embodiments are described herein.

Abstract: A waveguide display is used for presenting media to a user. The waveguide display includes light source assembly, an output waveguide, and a controller. The light source assembly includes one or more projectors projecting an image light at least along one dimension. The output waveguide includes a waveguide body with two opposite surfaces. The output waveguide includes a first grating receiving an image light propagating along an input wave vector, a second grating, and a third grating positioned opposite to the second grating and outputting an expanded image light with wave vectors matching the input wave vector. The controller controls the scanning of the one or more source assemblies to form a two-dimensional image.

Abstract: An image processing device according to an aspect of the embodiment includes a display controller and a determining unit. The display controller generates a synthesized image when viewing a perimeter of a vehicle from a virtual viewpoint based on an image from an image capturing device and causes a display unit to display the synthesized image. The determining unit determines, in a case where a screen other than a virtual viewpoint screen including the synthesized image is displayed on the display unit, whether a switching condition to a notification screen for notifying an occupant of presence of an obstacle is satisfied when the obstacle is detected by a detector. The display controller causes the display unit to display the notification screen obtained by superimposing a predetermined notification image on the virtual viewpoint screen, when the determining unit determines that the switching condition is satisfied.

Abstract: To provide a control device and a control method capable of controlling display like a case in which a user performs his or her head movement although the user does not move his or her head. There is provided a control device including: an acquisition unit configured to acquire position attitude information regarding a position or an attitude of an object related to a user manipulation located at a different position from a head of a user; and a control unit configured to control an image visual field which is a range displayed as an image on a display device mounted on the head of the user based on the position attitude information.

Abstract: A system may include a structure, a head wearable device, emitters, receivers, and a processor. The emitters may be configured to emit signals and may be implemented on at least one of the structure or the head wearable device. The receivers may be configured to receive at least some of the signals from the emitters, to detect at least one signal property including signal intensity of the received signals, and to output information of the at least one signal property as signal data. The receivers may be implemented on at least one of the structure or the head wearable device. A processor may be configured to: receive the signal data from the receivers; determine a position and an orientation of the head wearable device based on the signal data; and output image or symbolic data to the head wearable device to be displayed by the head wearable device.

Abstract: A method to correct for a vehicle induced change of direction in an electronic device is described. The method comprises determining a first center pose of the electronic device, and determining when a motion of the electronic device is caused by a vehicle. At least one key point within a scene can be tracked, using a sensor in conjunction with computer vision operating on a processor, to determine a second center pose. It is then determined whether the second center pose is within a tolerance with respect to the first center pose; and the second center pose is adjusted when there is a difference between the second center pose and the first center pose.

Abstract: The present application relates to a head-up display apparatus, a control method thereof, and a vehicle. The head-up display apparatus comprises: an image projecting device, a display background detecting device, and a processor. The image projecting device is configured to generate an image and project the image onto a preset area on a reflective surface. The display background detecting device is configured to detect optical information of a background space that a user can see through the preset area, wherein the background space and the user are located at opposite sides of the reflective surface. The processor is configured to determine an image displaying mode of the image projecting device based on the optical information, and to control the image projecting device to project images in the determined image displaying mode.

Abstract: A three-dimensional computer model of an environment is formed based on collected sensor data that includes at least one of image data of the environment and range data to objects in the environment. A plurality of candidate trajectories within the environment are generated based on the three-dimensional computer model. Rendered image data of the three-dimensional computer model and the plurality of candidate trajectories is formed. One of the candidate trajectories is selected based on the rendered image data and is utilized for controlling movement of a mobile platform.

Abstract: Examples of a light field metrology system for use with a display are disclosed. The light field metrology may capture images of a projected light field, and determine focus depths (or lateral focus positions) for various regions of the light field using the captured images. The determined focus depths (or lateral positions) may then be compared with intended focus depths (or lateral positions), to quantify the imperfections of the display. Based on the measured imperfections, an appropriate error correction may be performed on the light field to correct for the measured imperfections. The display can be an optical display element in a head mounted display, for example, an optical display element capable of generating multiple depth planes or a light field display.

Abstract: The present invention relates to an optical apparatus with a wide available range of a lens module, which is capable of providing an image having a deep depth of field to a user. The optical apparatus according to the present invention includes a display unit for outputting an image; at least one reflective unit having a size of 4 mm or less for reflecting the image outputted from the display unit; and a frame unit fixed thereto with the display unit and the at least one reflective unit.

Abstract: A system includes a head-mounted display, a device including at least one of a computer and a battery, and a strap. The strap includes a first end connected to the head-mounted display, a second end connected to the device, a service loop, and circuitry extending from the first end through the service loop to the second end to electrically couple the head-mounted display with the device.

Abstract: A head mount display for use with a virtual reality system allows for an automatic adjustment of an inter-lens distance based on a particular user's inter-pupillary distance (IPD). The IPD for the user is measured, for example by taking an image of the user in a controlled environment and calculating the distance between the user's pupils within the image. Once the IPD is known, a desired inter-lens distance for the particular user may be defined based on user IPD. A computing device in communication with a head mount display unit may automatically adjust the inter-lens distance to match the desired inter-lens distance. A user's IPD and desired inter-lens distance may be stored for the user in a user account. As such, whenever the user participates in the virtual reality system, a head mount display used by the user may be configured with the user's desired inter-lens distance.

Abstract: Described are various embodiments of an electronic device having an adjustable graphical display, and a vision correction system, method and graphical user interface therefor.

Abstract: Systems and methods for gaze-directed photography with a camera having a field of view are provided herein. In some embodiments, a method includes receiving an input trigger from a user, determining a target object of a gaze of the user, mapping the target object to the field of view of the camera, tracking the target object after the user averts their gaze, adjusting at least one camera parameter based on the tracking and capturing one or more images containing the target object.

Abstract: A method of producing vertically or forward projecting three-dimensional images using virtual 3D models, wherein said 3D models are created by the simultaneous localization and depth-mapping of the physical features of real objects. A camera is used to take a first image from a first perspective, and a subsequent image from a subsequent perspective, wherein the autofocus system provides a first set of depth mapping data and a subsequent set of depth mapping data. The first set of depth mapping data and the subsequent set of depth mapping data are used to generate a disparity mapping. A virtual 3D model is created from the disparity mapping. The virtual 3D model is imaged to obtain images that can be viewed as three-dimensional. Enhanced 3D effects are added to the virtual 3D model that cause aspects of the image to appear to extend above, or in front of, the display medium.

Abstract: A method for producing an optical element includes providing a first partial body which is transparent for the predetermined wavelength range and including on its upper side a structured section, applying a coating which is optically effective for the predetermined wavelength range onto the structured section in order to form the optically effective structure, and applying a cover layer which is transparent for the predetermined wavelength range onto the upper side of the first partial body by means of casting of thermoplastic material and/or duroplastic material.

Abstract: A head-mounted display (HMD) system includes an optical arrangement; at least one moveable image panel, wherein the optical arrangement directs image light from the moveable image panel along a first optical pathway; a fixed image panel, wherein a portion of image light emitted from the fixed image panel is combined with image light of the at least one moveable image panel by the optical arrangement; and an adjustment mechanism that is configured to adjust an interpupillary distance (IPD) of the HMD system by moving the optical arrangement and the moveable image panel relative to the fixed image panel between a first position and a second position corresponding to different IPDs. The adjustment to the IPD maintains the first optical pathway.

Abstract: A device for eye tracking is disclosed. The device includes a first depth profiler configured to determine a distance from the first depth profiler to a surface of an eye. The device may also include a display device configured to display one or more images selected based on a position of the eye. The position of the eye is determined based on the determined distance. Also disclosed is a method for eye tracking. The method includes determining, with a first depth profiler, a distance from the first depth profiler to a surface of an eye. A position of the eye is determined based on the determine distance. One or more images selected based on the position of the eye are displayed on a display device.

Abstract: Optical assemblies for use in virtual and augmented reality environments are described. The optical assemblies may include lenses, filter stacks, cameras, and image projecting devices. For example, the optical assemblies may include at least one lens, a first filter stack between the at least one lens and an image projecting device, a second filter stack between the first filter stack and the image projecting device, and a camera configured to capture images of an infrared reflection of light through the at least one lens.

Abstract: A method for determining an orientation of a photosensor of a controller with respect to a projector is described. The method includes generating, by a beam generator of the projector, a beam. The method further includes modifying a direction of travel of the beam using a micro-electro-mechanical systems (MEMS) mirror that moves in a pattern, detecting the beam, calculating a time at which the beam is detected, and determining based on the pattern and the time an orientation of the beam to determine the orientation of the photosensor.

Abstract: A virtual, augmented, or mixed reality display system includes a display configured to display virtual, augmented, or mixed reality image data, the display including one or more optical components which introduce optical distortions or aberrations to the image data. The system also includes a display controller configured to provide the image data to the display. The display controller includes memory for storing optical distortion correction information, and one or more processing elements to at least partially correct the image data for the optical distortions or aberrations using the optical distortion correction information.