Abstract: A process receives, with a receiver, health and wellness data of a user that is sensed by one or more sensors during consumption by the user of media content. Further, the process receives, with the receiver, health and wellness data of the user that is determined by a healthcare provider during an event that is distinct from the consumption of the media content. In addition, the process aggregates, with a processor, the health and wellness data of the user that is sensed and the health and wellness data of the user that is determined by the health care provider into an aggregated health and wellness data model. The process also determines, with the processor, one or more optimal audio/visual device settings based on the aggregated health and wellness data model.

Abstract: In one implementation, a system providing remote access set-up for electronic devices includes a mobile device and a profile server communicatively coupled to the mobile device via a network. The profile server includes a hardware processor, and a server memory storing a profile management software code and a profile information associated with a user of the mobile device. The hardware processor executes the profile management software code to receive, via the network, a platform ID of a configurable hardware platform communicatively coupled to the mobile device, and to determine, based on the platform ID, platform assets including a default configuration associated with the configurable hardware platform.

Abstract: Techniques described herein are directed to adaptive virtual reality and augmented reality viewing based on a user's eye condition data. In a first implementation, a software application renders video content based on the user's eye condition data by mapping the user's eye condition data to video rendering parameters. The video content rendered based on the user's eye condition data may be made available to a virtual reality/augmented reality player and played using a head mounted display. The video content rendered based on the user's eye condition data may be pre-rendered before video content playback or rendered in real time during video content playback. In an additional implementation, the head mounted display may be calibrated and adjusted based on the eye condition data prior to video playback.

Abstract: In one implementation, a system providing remote access set-up for electronic devices includes a mobile device and a profile server communicatively coupled to the mobile device via a network. The profile server includes a hardware processor, and a server memory storing a profile management software code and a profile information associated with a user of the mobile device. The hardware processor executes the profile management software code to receive, via the network, a platform ID of a configurable hardware platform communicatively coupled to the mobile device, and to determine, based on the platform ID, platform assets including a default configuration associated with the configurable hardware platform.

Abstract: A process receives, with a receiver, health and wellness data of a user that is sensed by one or more sensors during consumption by the user of media content. Further, the process receives, with the receiver, health and wellness data of the user that is determined by a healthcare provider during an event that is distinct from the consumption of the media content. In addition, the process aggregates, with a processor, the health and wellness data of the user that is sensed and the health and wellness data of the user that is determined by the health care provider into an aggregated health and wellness data model. The process also determines, with the processor, one or more optimal audio/visual device settings based on the aggregated health and wellness data model.

Abstract: Techniques described herein are directed to adaptive virtual reality and augmented reality viewing based on a user's eye condition data. In a first implementation, a software application renders video content based on the user's eye condition data by mapping the user's eye condition data to video rendering parameters. The video content rendered based on the user's eye condition data may be made available to a virtual reality/augmented reality player and played using a head mounted display. The video content rendered based on the user's eye condition data may be pre-rendered before video content playback or rendered in real time during video content playback. In an additional implementation, the head mounted display may be calibrated and adjusted based on the eye condition data prior to video playback.