Abstract: Devices, computer-readable media, and methods for providing an enhanced indication of an object that is located via a visual feed in accordance with a user context are disclosed. For instance, in one example, a processing system including at least one processor may detect a user context from a visual feed, locate an object via the visual feed in accordance with the user context, and provide an enhanced indication of the object via an augmented reality display.

Abstract: Locomotion-based motion sickness has long been a complaint amongst virtual reality gamers and drone pilots. Traditional head-mounted display experiences require a handheld controller (e.g. thumbstick, touchpad, gamepad, keyboard, etc.) for locomotion. Teleportation compromises immersive presence and smooth navigation leads to sensory imbalances that can cause dizziness and nausea (even when using room-scale sensor systems). Designers have therefore had to choose between comfort and immersion. The invention is a hands-free, body-based navigation technology that puts the participant's body in direct control of movement through virtual space. Participants lean forward to advance in space; lean back to reverse; tip left or right to strafe/sidestep; and rotate to look around. In some embodiments, the more a participant leans, the faster they go.

Abstract: A method for updating a display of a technical indicator corresponding to an OHLL (open, high, low, last) type symbol during a current time period, the method includes receiving a close price of a particular intra-time period within a current time period, the particular intra-time period not being a final intra-time period of the current time period, updating the display of the OHLL type symbol to widen, in a time direction, a width of the OHLL type symbol proportional to a predetermined width of the particular intra-time period, and updating the display of the technical indicator to widen, in the time direction, a width of the technical indicator proportional to the predetermined width of the particular intra-time period such that an extent of the technical indicator in the time direction is aligned with an extent of the OHLL type symbol in the time direction.

Abstract: The present disclosure provides systems and methods for enabling Personal Augmented Reality (PAR). PAR can include an emitor configured to receive data signals and emit the data signals as light signals. PAR can further include a smart device configured to receive the light signals emitted by the emitor. The smart device can process the light signals to yield a communication and display the communication on a screen.

Abstract: Various implementations disclosed herein include devices, systems, and methods that determine an orientation of a three-dimensional (3D) model with respect to a global reference direction. For example, an example process may include obtaining an image from an image sensor, determining an orientation of the image sensor with respect to the direction of a celestial element, determining an orientation of the image sensor with respect to a global reference direction based on the orientation of the image sensor with respect to the direction of the celestial element and a relationship between the direction of the celestial element and the global reference direction, obtaining a 3D model of the physical environment, determining an orientation of the image sensor with respect to the 3D model, and determining an orientation of the 3D model with respect to the global reference direction.

Abstract: A control device in a motor vehicle receives a signal from a sensor device which includes at least one image of the current interior situation. The control device generates a superimposition signal containing the at least one image of the current interior situation and transmits the superimposition signal to a display element of a display apparatus. The display apparatus superimposes the at least one image of the current interior situation onto predefined output content output to a user.

Abstract: Various implementations disclosed herein interpret data that define curves to display the curves in a 2D or 3D environment. In some implementations, vertices are used to represent control points that specify the geometry of a curve. These vertices are changed in an extrusion process that moves and/or adds vertices to ensure that sufficient pixels are available for anti-aliasing during rasterization, while also providing changed vertices that can be interpreted to accurately render the curve's geometry.

Abstract: A method includes sensing a plurality of light superposition characteristic values associated with ambient light from a physical environment. The ambient light emanates from the physical environment towards one side of a translucent display. The plurality of light superposition characteristic values quantifies interactions with the ambient light. The method includes determining a plurality of display correction values associated with the electronic device based on a function of the plurality of light superposition characteristic values and predetermined display characteristics of a computer-generated reality (CGR) object. The method includes changing one or more display operating parameters associated with the electronic device in accordance with the plurality of display correction values in order to satisfy the predetermined display characteristics of the CGR object within a performance threshold.

Abstract: A method and processing unit for providing content in a bandwidth constrained environment is disclosed. Initially, a content along with audio inputs, which is received during rendering of the content and provided to one or more users in a bandwidth constrained environment is received. Further, at least one object of interest within the content and associated with the audio inputs is identified. One or more regions of interest, including the at least one object of interest, is determined in the bandwidth constrained environment. Upon determining the one or more regions of interest, bitrate for rendering the content is modified based on the determined one or more regions of interest, to obtain a modified content for the bandwidth constrained environment. The modified content is provided to be rendered in the bandwidth constrained environment.

Abstract: Embodiments relate to using sensor data and location data from a device to generate augmented reality images. A mobile device pose can be determined (a geographic position, direction and a three dimensional orientation of the device) within a location. A type of destination in the location can be identified and multiple destinations can be identified, with the mobile device receiving queue information about the identified destinations from a server. A first image can be captured. Based on the queue information, one of the identified destinations can be selected. The geographic position of each identified destination can be identified, and these positions can be combined with the mobile device pose to generate a second image. Finally, an augmented reality image can be generated by combining the first image and the second image, the augmented reality image identifying the selected one destination.

Abstract: Method of generating depth estimate based on biometric data starts with server receiving positioning data from first device associated with first user. First device generates positioning data based on analysis of a data stream comprising images of second user that is associated with second device. Server then receives a biometric data of second user from second device. Biometric data is based on output from a sensor or a camera included in second device. Server then determines a distance of second user from first device using positioning data and biometric data of the second user. Other embodiments are described herein.

Abstract: A virtual reality data-processing device, intended to be worn on the head of a user is disclosed. The device renders, in a field of view of the data-processing device, a virtual interaction interface, at least one part of the virtual interaction interface being rendered superimposed on a tangible device, when the tangible device is located in the field of view of the data-processing device, track at least one body part of the user likely to interact via the virtual interaction interface, detect at least one user interaction on a virtual element of the virtual interaction interface, when the at least one body part of the user is close to or in contact with the tangible device. The development also relates to a system and a method for processing virtual reality data.

Abstract: In a system in which a virtual reality (VR) user interacts with a virtual environment via a VR device, where the VR user is provided a view of the virtual environment via the VR device. A method includes tracking the VR user relative to at least one other user in a real-world environment; extracting an image of the VR user from the real-world environment; at least one other user obtaining information about the virtual environment; and presenting at least one other view corresponding to the VR user's virtual environment. Another view is presented as if seen from the location and/or perspective and/or orientation of another device relative to the VR user in the real environment.

Abstract: A method for proposing a location of a display device, includes: scanning, by an augmented reality device, an indoor space; receiving, by the augmented reality device, viewing environment information including viewing space information, viewing time information and viewing content information to the augmented reality device; and proposing, by the augmented reality device, an optimal location/type of the display device.

Abstract: A method for positioning a virtual object in an image of a scene including a real object is disclosed. The method comprises receiving a signal from a short-range wireless transmitter arranged at a predetermined position relative to the real object and determining a location and orientation of the portable device relative to the short-range wireless transmitter based on the received signal. The image of the scene is displayed with the virtual object, wherein the position of the virtual object in the image is based on the determined location and orientation of the portable device relative to the short-range wireless transmitter and on the predetermined position of the short-range wireless transmitter relative to the real object. A system, a portable device and a computer program product is also disclosed.

Abstract: Systems and methods relate to the determination of accurate motion vectors, for rendering situations such as a noisy Monte Carlo integration where image object surfaces are at least partially translucent. To optimize the search for “real world” positions, this invention defines the background as first path vertices visible through multiple layers of refractive interfaces. To find matching world positions, the background is treated as a single layer morphing in a chaotic way, permitting the optimized algorithm to be executed only once. Further improving performance over the prior linear gradient descent, the present techniques can apply a cross function and numerical optimization, such as Newton's quadratic target or other convergence function, to locate pixels via a vector angle minimization. Determined motion vectors can then serve as input for services including image denoising.

Abstract: Methods and systems for a virtual experience where a user moves physically to move his or her ‘agent’, a position in the virtual space that determines which virtual content the user may interact with. If the virtual space contains obstacles, and the user moves such that the agent would intersect with one, either (a) move the correlation vector between the virtual space and real space to counteract the user's physical movement, preventing the user from penetrating the obstacle, or (b) allow the user to proceed, but become separated from his or her agent. Also described are applying these methods if the real space is too small to fit the virtual space, if the agent has a speed limitation that the user violates, how to direct the agent when it is separated from the user, and how to handle three-dimensional obstacles, real-world obstacles, and multiple users.

Abstract: A system and method for operating a keyboard and wearable extended reality appliance combination to control a virtual display are disclosed. The system may include a processor configured to receive, from a first hand-position sensor associated with the wearable extended reality appliance, first signals representing first hand-movements; receive, from a second hand-position sensor associated with the keyboard, second signals representing second hand-movements, wherein the second hand-movements include actions other than interactions with a feedback component; and control the virtual display based on the first signals and the second signals.

Abstract: A maintenance support system includes a terminal including an imaging device, a device configured to identify a three-dimensional area TA including a maintenance target T with reference to a predetermined reference point, a device for identifying a position (vector A) of the imaging device in an initial state with respect to the reference point, a device for identifying a change of position (vector B) from the initial state of the imaging device, a device for identifying a position (vector C) of the reference point with reference to the imaging device in a post-movement state in which the terminal has moved, and identifying a pixel area corresponding to the three-dimensional area in a captured image, and a device for generating a processed image in which a portion other than the pixel area is made invisible. A communication device is provided for transmitting the processed image to a support terminal.

Abstract: A system and method for operating a depth sensor. A configuration operation can be performed by storing a first sequence of operation steps which define a first depth sensing mode of operation, and a second sequence of operation steps which define a second depth sensing mode of operation, in the memory. In response to a first request for depth measurements according to the first depth sensing mode of operation, the depth sensor can be operated in the first mode of operation by causing it to execute the first sequence of operation steps. In response to a second request for depth measurements according to the second depth sensing mode of operation, and without performing an additional configuration operation, the depth sensor can be operated in the second mode of operation by causing it to execute the second sequence of operation steps.