Abstract: Technology is provided for a head mounted display housing for use with a portable display device. The head mounted display housing includes a housing body including a facial interface portion and a frame portion. The facial interface portion is configured to confront the face of a user. A strap assembly is coupled to the housing body and retains the facial interface portion against a user's face. The frame portion has surrounding channels configured to contain the portable display device and an opening to receive the portable display device into the channels. A door mount is positioned adjacent the opening, and a door is coupled to the door mount. The door moves between an open position to allow access to the surrounding channels and a closed position to retain the portable display device in the frame portion. The door includes a pair of tabs configured to latch against the frame portion.

Abstract: A virtual reality (VR) headset includes a plurality of marker groups each corresponding to a different location on the VR headset. Each marker group includes one or more passive locators having positions relative to each other. Passive locators included in a marker group are configured to reflect one or more bands of light emitted by a source device. A VR system determines positions of passive locators relative to each other in a marker group and bands of light reflected by the passive locators included in the marker group to determine a location on the VR headset. Based on the location on the VR headset, the VR system determines a position of the VR headset and identifies content to provide to the VR headset.

Abstract: A headset for virtual reality applications includes an optical element configured to modify light from an electronic display in the headset and to direct the modified light to a user. The optical element may include a Fresnel lens secured to a lens by securing the Fresnel lens to a mold and inserting a casting material into the mold so the casting material forms the lens and a portion of the casting material exists on and past an edge of the Fresnel lens. This encases the edge of the Fresnel lens in the casting material, securing the Fresnel lens to the lens.

Abstract: A headset for virtual reality applications includes an array of light emitting diodes (LEDs) emitting light captured by a camera included in a virtual reality system, allowing the virtual reality system to detect the position and orientation of the headset in three-dimensional space. To manufacture the headset, a flexible strip including a circuit having the LEDs is molded into an outer shell of the headset using a casting material that is transmissible to wavelengths of light transmitted by the LEDs. An interior surface of the outer shell of the headset is within a specified distance of the LEDs. The outer shell may also include fabric that is also molded into the outer shell in the same or in a similar process.

Abstract: A headset for virtual reality applications includes an array of light emitting diodes (LEDs) emitting light captured by a camera included in a virtual reality system, allowing the virtual reality system to detect the position and orientation of the headset in three-dimensional space. To manufacture the headset, a flexible strip including a circuit having the LEDs is molded into an outer shell of the headset using a casting material that is transmissible to wavelengths of light transmitted by the LEDs. An interior surface of the outer shell of the headset is within a specified distance of the LEDs. The outer shell may also include fabric that is also molded into the outer shell in the same or in a similar process.

Abstract: A headset for virtual reality applications includes an optical element configured to modify light from an electronic display in the headset and to direct the modified light to a user. The optical element may include a Fresnel lens secured to a lens by securing the Fresnel lens to a mold and inserting a casting material into the mold so the casting material forms the lens and a portion of the casting material exists on and past an edge of the Fresnel lens. This encases the edge of the Fresnel lens in the casting material, securing the Fresnel lens to the lens.

Abstract: A headset for virtual reality applications includes an optical element configured to modify light from an electronic display in the headset and to direct the modified light to a user. The optical element may include a Fresnel lens secured to a lens by securing the Fresnel lens to a mold and inserting a casting material into the mold so the casting material forms the lens and a portion of the casting material exists on and past an edge of the Fresnel lens. This encases the edge of the Fresnel lens in the casting material, securing the Fresnel lens to the lens.

Abstract: A virtual reality (VR) headset includes an electronic display element, an optics block, and an adjustment mechanism. The electronic display element outputs image light. The optics block includes a cone and an additional cone coupled to a lens and an additional lens, respectively. Image light is directed to the lens and to the additional lens via the cone and additional cone, respectively. Each of the cones comprises an opaque material that is deformable to adjust a distance from a base portion of a cone to a top portion of a cone may be adjusted, via, compression, elongation, or both. An adjustment mechanism may receive input from a user and configured to adjust the distance one or more of the cone and the additional cone.

Abstract: A virtual reality (VR) headset includes an electronic display element, an optics block, and an adjustment mechanism. The electronic display element outputs image light. The optics block includes a cone and an additional cone coupled to a lens and an additional lens, respectively. Image light is directed to the lens and to the additional lens via the cone and additional cone, respectively. Each of the cones comprises an opaque material that is deformable to adjust a distance from a base portion of a cone to a top portion of a cone may be adjusted, via, compression, elongation, or both. An adjustment mechanism may receive input from a user and configured to adjust the distance one or more of the cone and the additional cone.

Abstract: A virtual reality (VR) headset includes a plurality of marker groups each corresponding to a different location on the VR headset. Each marker group includes one or more passive locators having positions relative to each other. Passive locators included in a marker group are configured to reflect one or more bands of light emitted by a source device. A VR system determines positions of passive locators relative to each other in a marker group and bands of light reflected by the passive locators included in the marker group to determine a location on the VR headset. Based on the location on the VR headset, the VR system determines a position of the VR headset and identifies content to provide to the VR headset.

Abstract: A headset for virtual reality applications includes an array of light emitting diodes (LEDs) emitting light captured by a camera included in a virtual reality system, allowing the virtual reality system to detect the position and orientation of the headset in three-dimensional space. To manufacture the headset, a flexible strip including a circuit having the LEDs is molded into an outer shell of the headset using a casting material that is transmissible to wavelengths of light transmitted by the LEDs. An interior surface of the outer shell of the headset is within a specified distance of the LEDs. The outer shell may also include fabric that is also molded into the outer shell in the same or in a similar process.

Abstract: Systems and methods to provide a prioritized shopping system are discussed. For example, a method can include receiving a list of target items, receiving busyness data for a plurality of local merchants, developing a prioritized shopping plan, and communicating the prioritized shopping plan to a mobile device. Each target item in the list of target items can represents a product or service that a user has indicated an interest in purchasing. The prioritized shopping plan is based at least in part on the busyness data and the list of target items. Busyness data provides an indication of traffic levels within at least a portion of the plurality of local merchants.

Abstract: Systems and methods to provide a prioritized shopping system are discussed. For example, a method can include receiving a list of target items, receiving busyness data for a plurality of local merchants, developing a prioritized shopping plan, and communicating the prioritized shopping plan to a mobile device. Each target item in the list of target items can represents a product or service that a user has indicated an interest in purchasing. The prioritized shopping plan is based at least in part on the busyness data and the list of target items. Busyness data provides an indication of traffic levels within at least a portion of the plurality of local merchants.

Abstract: In one embodiment, a graphics processing unit 170 may support a logical resource using a physical tile pool 350 for sparse data sets. The graphics processing unit 170 may allocate a physical memory allocation into a primary physical tile pool 350. The graphics processing unit 170 may define a mapping for a logical tile set 300 for a logical resource. The graphics processing unit 170 may selectively map a primary logical tile 320 of the logical tile set 300 to a primary physical tile 360 of the primary physical tile pool 350.

Abstract: Systems and methods to provide a prioritized shopping system are discussed. For example, a method can include receiving a list of target items, receiving busyness data for a plurality of local merchants, developing a prioritized shopping plan, and communicating the prioritized shopping plan to a mobile device. Each target item in the list of target items can represents a product or service that a user has indicated an interest in purchasing. The prioritized shopping plan is based at least in part on the busyness data and the list of target items. Busyness data provides an indication of traffic levels within at least a portion of the plurality of local merchants.