Abstract: Enhanced display rotation techniques are described in which arrangement of on-screen elements and user interfaces may be controlled based upon a combination of inputs from a sensor system of a device indicative of positional relationships. Output positions for elements are controlled in dependence upon a calculated position of a user in relation to the device and alignment of the device with a magnetic direction. The position and alignment may be derived based on sensor data, including at least a camera to obtain eye tracking data and a compass used to determine an alignment of the device. Other factors may also be considered such as data from an accelerometer, facial tracking by the camera, gaze detection, a proximity sensor, and other sensor data. Responsive to manipulation of the device, rotation and/or location of the elements may be controlled in accordance with the positional relationships that are ascertained.

Abstract: Enhanced display rotation techniques are described in which arrangement of on-screen elements and user interfaces may be controlled based upon a combination of inputs from a sensor system of a device indicative of positional relationships. Output positions for elements are controlled in dependence upon a calculated position of a user in relation to the device and alignment of the device with a magnetic direction. The position and alignment may be derived based on sensor data, including at least a camera to obtain eye tracking data and a compass used to determine an alignment of the device. Other factors may also be considered such as data from an accelerometer, facial tracking by the camera, gaze detection, a proximity sensor, and other sensor data. Responsive to manipulation of the device, rotation and/or location of the elements may be controlled in accordance with the positional relationships that are ascertained.