Sony Interactive Entertainment Inc.

Frank Zhao

Glenn T Black

Ruxin Chen

Dennis Dale Castleman

Victoria Dorn

Yuichiro Nakamura

Koichi Obana

Techniques for simulating fast eye movement of a robot to mimic human eye saccade are divulged in cases of the robot eyes being moved by actuators that cannot move the eyes fast enough in real time to mimic saccade. Image capture timing is adjusted (i.e., slowed down) to track the speed of the actuators. Then, the resulting sequence of images is time-compressed back to video playback speed so that the video appears to show the robot eye undergoing saccade at human eye speeds.

Reproducing fast eye movement using imaging of robot with limited actuator speed

Techniques for optimizing which LEDs in a HMD to use, the brightness of those LEDs, and camera exposure are divulged based on the particular function to be performed. For instance, one set of optimization parameters may be implemented for eye tracking purposes while a different set of optimization parameters may be implemented for eye-based authentication purposes.

Optimization of eye capture conditions for each user and use case

Methods and systems are provided. One method is for controlling a plurality of haptic sensors of a physical headset of a user interacting in a virtual reality space. The method includes identifying position and orientation of a character of the user in a scene of the virtual reality space and a three-dimensional (3D) location of an audio object in the scene. The character of the user being associated with the user. The method includes associating a virtual headset to a head of the character. The virtual headset moves as the position and orientation of the character moves in the scene, and the virtual headset includes a plurality of virtual haptic sensors. The method includes applying a magnitude to each of the plurality of haptic sensors of the physical headset based on a directional distance of each of the plurality of virtual haptic sensors of the virtual headset to the audio object in the scene.

Positional haptics via head-mounted peripheral

Methods and systems are provided for activating a plurality of haptic sensors of a physical headset of a user playing a video game. The method includes detecting a sound component associated with an audio object in a scene of the video game, the audio object having a three-dimensional (3D) location in the scene. The method includes identifying position and orientation of a character of the user in the scene in relation to the 3D location of the audio object. The character of the user being controlled by the user playing the video game. The method includes associating a virtual headset to a head of the character, the virtual headset moving as the position and orientation of the character moves in the scene. The virtual headset including a plurality of virtual haptic sensors. The method includes applying a magnitude to each of the plurality of haptic sensors of the physical headset based on a directional distance of each of the virtual haptic sensors of the virtual headset to the audio object in the scene. In one example, in addition to magnitude, frequency and audio data related to the audio object is usable as inputs for controlling each of the plurality of haptic sensors.

The present disclosure is related to unmanned aerial vehicles or drones that have a capability of quickly swapping batteries. This may be accomplished even as the drone continues to fly. A drone consistent with the present disclosure may drop one battery and pickup another using an attachment mechanism. Attachment mechanisms of the present disclosure may include electro-magnets, mechanical actuators, pins, or hooks. Systems consistent with the present disclosure may also include locations where replacement batteries may be provided to aircraft via actuation devices coupled to a physical location.

UAV battery form factor and insertion/ejection methodologies

A flight path management system manages flight paths for an unmanned aerial vehicle (UAV). The flight path management system receives a sequence of controller inputs for the UAV, and stores the sequence of controller inputs in a memory. The flight path management system accesses the memory and selects a selected section of the sequence of controller inputs corresponding to a time period. The flight management system outputs the selected section to a playback device in real time over a length of the time period.

Growing community of inventors

San Mateo, CA, United States of America

Frank Zhao