Abstract: In one example, a head mounted display system includes at least one memory; and at least one processor to execute instructions to: detect a first position and a first view direction of a head of a user based on sensor data generated by at least one of an accelerometer, at least one camera, or a gyroscope at a first point in time; determine a latency associated with a time to cause an image to be presented on the display; determine a predicted position and a predicted view direction of the head of the user at a second point in time based on the latency; render, prior to the second point in time, the image for presentation on the display based on the predicted position and the predicted view direction of the head of the user; and cause the display to present the rendered image.

Abstract: In one example, a head mounted display system includes at least one memory; and at least one processor to execute instructions to: detect a first position and a first view direction of a head of a user based on sensor data generated by at least one of an accelerometer, at least one camera, or a gyroscope at a first point in time; determine a latency associated with a time to cause an image to be presented on the display; determine a predicted position and a predicted view direction of the head of the user at a second point in time based on the latency; render, prior to the second point in time, the image for presentation on the display based on the predicted position and the predicted view direction of the head of the user; and cause the display to present the rendered image.

Abstract: In one example, a head mounted display system includes at least one memory; and at least one processor to execute instructions to: detect a first position and a first view direction of a head of a user based on sensor data generated by at least one of an accelerometer, at least one camera, or a gyroscope at a first point in time; determine a latency associated with a time to cause an image to be presented on the display; determine a predicted position and a predicted view direction of the head of the user at a second point in time based on the latency; render, prior to the second point in time, the image for presentation on the display based on the predicted position and the predicted view direction of the head of the user; and cause the display to present the rendered image.

Abstract: In one example, a head mounted display system includes at least one memory; and at least one processor to execute instructions to: detect a first position and a first view direction of a head of a user based on sensor data generated by at least one of an accelerometer, at least one camera, or a gyroscope at a first point in time; determine a latency associated with a time to cause an image to be presented on the display; determine a predicted position and a predicted view direction of the head of the user at a second point in time based on the latency; render, prior to the second point in time, the image for presentation on the display based on the predicted position and the predicted view direction of the head of the user; and cause the display to present the rendered image.

Abstract: In one example, a head mounted display system includes at least one memory; and at least one processor to execute instructions to: detect a first position and a first view direction of a head of a user based on sensor data generated by at least one of an accelerometer, at least one camera, or a gyroscope at a first point in time; determine a latency associated with a time to cause an image to be presented on the display; determine a predicted position and a predicted view direction of the head of the user at a second point in time based on the latency; render, prior to the second point in time, the image for presentation on the display based on the predicted position and the predicted view direction of the head of the user; and cause the display to present the rendered image.

Abstract: In one example, a head mounted display system includes at least one memory; and at least one processor to execute instructions to: detect a first position and a first view direction of a head of a user based on sensor data generated by at least one of an accelerometer, at least one camera, or a gyroscope at a first point in time; determine a latency associated with a time to cause an image to be presented on the display; determine a predicted position and a predicted view direction of the head of the user at a second point in time based on the latency; render, prior to the second point in time, the image for presentation on the display based on the predicted position and the predicted view direction of the head of the user; and cause the display to present the rendered image.

Abstract: In one example, a head mounted display system includes detecting a position of a head of a user of the head mounted display, predicting a position of the head of the user of the head mounted display at a time after a time that the position of the head of the user was detected, and rendering image data based on the predicted head position.

Abstract: In one example, a head mounted display system includes at least one memory; and at least one processor to execute instructions to: detect a first position and a first view direction of a head of a user based on sensor data generated by at least one of an accelerometer, at least one camera, or a gyroscope at a first point in time; determine a latency associated with a time to cause an image to be presented on the display; determine a predicted position and a predicted view direction of the head of the user at a second point in time based on the latency; render, prior to the second point in time, the image for presentation on the display based on the predicted position and the predicted view direction of the head of the user; and cause the display to present the rendered image.

Abstract: Systems, apparatus and methods may provide for audio processing of received user audio input from a microphone that may optionally be a tissue conducting microphone. Audio processing may be further conducted on received ambient audio from one or more additional microphones. A translator may translate the ambient audio into content to be output to a user. In an embodiment, ambient audio is translated into visual content to be displayed on a virtual reality device.

Abstract: In one example, a head mounted display system includes detecting a position of a head of a user of the head mounted display, predicting a position of the head of the user of the head mounted display at a time after a time that the position of the head of the user was detected, and rendering image data based on the predicted head position.

Abstract: Systems, apparatus and methods may provide for audio processing of received user audio input from a microphone that may optionally be a tissue conducting microphone. Audio processing may be further conducted on received ambient audio from one or more additional microphones. A translator may translate the ambient audio into content to be output to a user. In an embodiment, ambient audio is translated into visual content to be displayed on a virtual reality device.

Abstract: A gesture-based waking and control system to wake a smartwatch device from a low-power state is described. In one embodiment, the system utilizes a pressure or proximity based wake gesture that is interpretable by low-power sensors. An embodiment of the system can be integrated within a wearable device, such as a smartwatch accessory that can be paired with a mobile electronic device, such as a smartphone. In one embodiment, the wearable device includes a set of low-power sensors that are to detect the wake gesture. In one embodiment, the wake gesture causes the device to enable an additional set of sensors and sensor processing logic to detect more advanced commands or gestures. In one embodiment, the wake gesture enables a display of the wearable device.

Abstract: A gesture-based waking and control system to wake a smartwatch device from a low-power state is described. In one embodiment, the system utilizes a pressure or proximity based wake gesture that is interpretable by low-power sensors. An embodiment of the system can be integrated within a wearable device, such as a smartwatch accessory that can be paired with a mobile electronic device, such as a smartphone. In one embodiment, the wearable device includes a set of low-power sensors that are to detect the wake gesture. In one embodiment, the wake gesture causes the device to enable an additional set of sensors and sensor processing logic to detect more advanced commands or gestures. In one embodiment, the wake gesture enables a display of the wearable device.