Abstract: A wearable augmented reality device is described. The device comprises a headband, brim, optical displays, and environmental sensors. The headband wraps at least partially around a head of a user and distributes the weight of components of the device across the head of the user, supporting the device. The brim is coupled to the headband such that the brim extends away from the headband, over the eyes of the user. The brim includes a heatsink that releases heat from the electronics of the device into the environment. The optical displays are coupled to the underside of the brim. The optical displays both present image light and allow environmental light to pass through. The environmental sensors are couples to the forward edge of the brim and capture data about the environment.

Abstract: A head-mounted device (HMID) may include a front portion, a rear portion and one or more bands. The front portion may include an optical display configured to output image light to a user's eyes. The rear portion may be arranged with the front portion to balance the HMID in weight. The one or more bands connect the front portion and the rear portion so that the two portions rest on either side of the user's head.

Abstract: A wearable augmented reality device is described. The device comprises a headband, brim, optical displays, and environmental sensors. The headband wraps at least partially around a head of a user and distributes the weight of components of the device across the head of the user, supporting the device. The brim is coupled to the headband such that the brim extends away from the headband, over the eyes of the user. The brim includes a heatsink that releases heat from the electronics of the device into the environment. The optical displays are coupled to the underside of the brim. The optical displays both present image light and allow environmental light to pass through. The environmental sensors are couples to the forward edge of the brim and capture data about the environment.

Abstract: Systems and methods for linking real world activity with a location-based parallel reality experience are provided. In particular, a game server hosting a parallel reality experience receives position data from a client device of a user and determines whether the client device is at a real world landmark associated with a geographic area. Responsive to determining that the client device is at the real world landmark, the game server cause the client device to present content incentivizing the user to travel to a real world location in the geographic area. The game server determines whether the client device is within proximity of the real world location based on sensor data. Responsive to determining that the client device is within proximity of the real world location, the game server causes the client device to display the virtual element at a virtual world location corresponding to the real world location.