Abstract: Systems and related methods for presenting a holographic object that self-adapts to a mixed reality environment are provided. In one example, a holographic object presentation program captures physical environment data from a destination physical environment and creates a model of the environment including physical objects having associated properties. The program identifies a holographic object for display on a display of a display device, the holographic object including one or more rules linking a detected environmental condition and/or properties of the physical objects with a display mode of the holographic object. The program applies the one or more rules to select the display mode for the holographic object based on the detected environmental condition and/or the properties of the physical objects.

Abstract: One embodiment provides a method for controlling a virtual depth of field perceived by a wearer of a see-thru display device. The method includes estimating the ocular depth of field of the wearer and projecting virtual imagery with a specified amount of blur. The amount of blur is determined as a function of the ocular depth of field. Another embodiment provides a method for controlling an ocular depth of field of a wearer of a see-thru display device. This method includes computing a target value for the depth of field and increasing the pixel brightness of the virtual imagery presented to the wearer. The increase in pixel brightness contracts the wearer's pupils and thereby deepens the depth of field to the target value.

Abstract: Examples are disclosed that relate to selectively dimming or occluding light from a real-world background to enhance the display of virtual objects on a near-eye display. One example provides a near-eye display system including a see-through display, an image source, a background light sensor, a selective background occluder comprising a first liquid crystal panel and a second liquid crystal panel positioned between a pair of polarizers, and a computing device including instructions executable by a logic subsystem to determine a shape and a position of an occlusion area based upon a virtual object to be displayed, obtain a first and a second birefringence pattern for the first and the second liquid crystal panels, produce the occlusion area by applying the birefringence patterns to the liquid crystal panels, and display the virtual object in a location visually overlapping with the occlusion area.

Abstract: Various embodiments are disclosed that relate to enhancing the display of images comprising text on various computing device displays. For example, one disclosed embodiment provides, on a computing device, a method of displaying an image, the method including receiving from a remote computing device image data representing a non-text portion of the image, receiving from the remote computing device unrendered text data representing a text portion of the image, rendering the unrendered text data based upon local contextual rendering information to form locally rendered text data, compositing the locally rendered text data and the image data to form a composited image, and providing the composited image to a display.

Abstract: In embodiments of selective illumination, an illumination system includes light sources implemented for selective illumination of a target within a field of view of an imaging system. The illumination system also includes optics that can be positioned to direct light that is generated by a subset of the light sources to illuminate a region within the field of view. An imaging application can activate the subset of the light sources and position the optics to illuminate the region within the field of view that includes the target of the selective illumination.

Abstract: In embodiments of an imaging structure with embedded light sources, an imaging structure includes a silicon backplane with a driver pad array. The embedded light sources are formed on the driver pad array in an emitter material layer, and the embedded light sources can be individually controlled at the driver pad array to generate and emit light. A conductive material layer over the embedded light sources forms a p-n junction between the emitter material layer and the conductive material layer. Micro lens optics can be positioned over the conductive material layer to direct the light that is emitted from the embedded light sources. Further, the micro lens optics may be implemented as parabolic optics to concentrate the light that is emitted from the embedded light sources.

Abstract: In embodiments of eyebox adjustment for interpupillary distance, a first optical lens receives light of an image at a projected orientation of the light, and deviates the light by a deviation angle from the projected orientation of the light. A second optical lens receives the deviated light of the image from the first optical lens at the deviation angle, and alters the deviated light back to the projected orientation of the light for viewing the image. Left and right eyeboxes align with respective left and right eyes that view the image, and a distance between the left and right eyeboxes approximately correlates to an interpupillary distance between the left and right eyes. The light of the image can be laterally shifted to increase or decrease the distance between the left and right eyeboxes.

Abstract: In embodiments of laser illumination scanning, an imaging unit includes a linear array of spatial light modulators that direct light in a direction perpendicular to an imaging scan direction. The lasers each emit the light through a diffractive optic that uniformly illuminates the spatial light modulators, and a scanning mirror then scans the spatial light modulators to generate a two-dimensional image for display. The lasers can include red, green, and blue lasers for RGB illumination of the spatial light modulators, which can be implemented as reflective liquid crystal on silicon (LCOS), transmissive LCOS, or as micro-electro-mechanical systems (MEMS) mirrors.

Abstract: A monocular display device of a head mounted monocular display is adjustably positioned in front of a display eye of a user. The monocular display device displays information in a first field of view of the display eye. An occluding device is adjustably positioned in front of a non-display eye of the user. The occluding device blocks a second field of view of the non-display eye, the blocking being regulated to block at least a part of the second field of view that corresponds to the first field of view containing the displayed information.

Abstract: In embodiments of mixed sequential color display, a light source sequentially generates different colors of light in a timed sequence. A display panel is implemented with multiple sub-pixel combinations, where each pixel of the display panel is a combination of sub-pixels that emit a color based on a color of the light that illuminates a sub-pixel combination. The emitted color from a sub-pixel combination is generated as a product of the color of the light and a combination of sub-pixel colors (to include clear and/or colored sub-pixels). The clear and/or different colored sub-pixels in a sub-pixel combination are a spatial aspect of the emitted color, and the sequentially generated different colors of light are a temporal aspect of the emitted color. The pixel combination and the light source together enhance the luminescence of the emitted color over the chrominescence of the emitted color.

Abstract: Examples of the disclosure describe user environment aware single channel acoustic noise reduction. A noisy signal received by a computing device is transformed and feature vectors of the received noisy signal are determined. The computing device accesses classification data corresponding to a plurality of user environments. The classification data for each user environment has associated therewith a noise model. A comparison is performed between the determined feature vectors and the accessed classification data to identify a current user environment. A noise level, a speech level, and a speech presence probability from the transformed noisy signal are estimated and the noise signal is reduced based on the estimates. The resulting signal is outputted as an enhanced signal with a reduced or eliminated noise signal.

Abstract: In embodiments of a flexible display flexure assembly, a flexure assembly includes a structure of pivotable links that couples first and second housing parts of a foldable electronic device. The first housing part of the foldable electronic device includes a flexible display, and the first housing part is integrated with a first section of the flexible display. The second housing part of the foldable electronic device is integrated with a second section of the flexible display. The pivotable links are implemented to collapse relative to each other to form a bend radius of the flexible display and support the flexible display in a closed position of the foldable electronic device. The structure of the pivotable links is also implemented to support the flexible display in an open position of the foldable electronic device.

Abstract: Embodiments related to detecting object information from image data collected by an image sensor are disclosed. In one example embodiment, the object information is detected by receiving a frame of image data from the image sensor and detecting a change in a threshold condition related to an object within the frame. The embodiment further comprises adjusting a setting that changes a power consumption of the image sensor in response to detecting the threshold condition.

Abstract: In embodiments of active reflective surfaces, an imaging structure includes a circuit control layer that controls pixel activation to emit light. A reflective layer of the imaging structure reflects input light from an illumination source. An active color conversion material that is formed on the reflective layer converts the input light to the emitted light. The active color conversion material can be implemented as a phosphorus material or quantum dot material that converts the input light to the emitted light, and in embodiments, the active color conversion material is laminated directly on the reflective layer.

Abstract: Embodiments that relate to displaying an image via a display device worn on a head of a user are disclosed. In one example embodiment, an image is displayed at an initial registration position with respect to a user's eye. Composite motion data is received from one or more sensors, with the composite motion data comprising a head motion component and a relative motion component which is relative motion between the head and the display device. The composite motion data is filtered to remove the head motion component and yield the relative motion component. Using the relative motion component, the initial registration position of the image is adjusted to an adjusted registration position that compensates for the relative motion component. The image is then displayed at the adjusted registration position.

Abstract: A blocking image generating system and related methods include a head-mounted display device having an opacity layer. A method may include receiving a virtual image to be presented by display optics in the head-mounted display device. Lighting information and an eye-position parameter may be received from an optical sensor system in the head-mounted display device. A blocking image may be generated in the opacity layer of the head-mounted display device based on the lighting information and the virtual image. The location of the blocking image in the opacity layer may be adjusted based on the eye-position parameter.

Abstract: One embodiment provides a computing device comprising a computing device body, a display coupled with the computing device body, a first set of computing components incorporated into the computing device body, and a securing system configured to secure the body to a wrist, the securing system comprising a plurality of detachable modular segments joined together to form a second set of computing components that is modifiable by changing segments. Each modular segment comprises a first mechanical connector and a second mechanical connector, a first set of electrical connectors and a second set of electrical connectors, and one or more electrical components incorporated into the modular segment, such that a functionality of the computing device is modifiable by changing modular segments.

Abstract: Embodiments relate to wearable computing devices. For example, one embodiment provides a computing device comprising a body including a dorsal end configured to be located along a dorsal side of a wrist and a lateral end configured to be located along a lateral side of the wrist when the computing device is worn on a wrist. The body comprising a planar portion extending in a planar configuration from a dorsal end partially toward the lateral end, and a curved portion extending from the planar portion to the lateral end. The device further includes a display coupled to the body and extending along at least a portion of the planar portion and at least a portion of the curved portion of the body, and a securing structure configured to connect to the dorsal-side edge and the lateral-side edge and to extend around the wrist to secure the body to the wrist.

Abstract: In embodiments of a transparent display assembly, a display device includes a display panel system that is located between a first display surface and a second display surface, and the display panel system displays an image. The image is viewable through the first display surface and through the second display surface, where the second display surface and the first display surface are viewable from opposite sides of the display device. The display device also includes a multi-mode panel located between the first display surface and the second display surface. The multi-mode panel is operable to permit the image being viewable through the first and second display surfaces, and further operable to prevent the image from being viewable through the first display surface or the second display surface.

Abstract: Wireless communication techniques are described. In one or more implementations, techniques are described that involve active power control such that a device may bypass use of a power amplifier to communicate wirelessly. In one or more additional implementations, wireless communication techniques are described in which multiple bands may be leveraged to provide wireless communication. In one or more further implementations, wireless communication techniques are described in which a frame buffer on a receiving device is leveraged by a sending device. Yet further, in one or more implementations wireless communication techniques are described in which a sending device employs codec adaptation. Still yet further, in one or more implementations, wireless communication techniques are described which may be used to change characteristics of a channel used to communicate data.