A cloud-based healthcare diagnostic and treatment platform capable of making non-invasive healthcare diagnostics and treatment recommendations based on data captured from combinations of physical activity and mental activity. In an embodiment, the system and method comprise a healthcare diagnostics and treatment module comprising a HIPPA-compliant security gateway, an AI-assisted healthcare diagnostics module, and an alert and treatments module. The HIPPA-compliant security gateway separates out health-related data from streams of data which may include other data such as game data, provides the health-related data to the AI-assisted healthcare diagnostics module which performs diagnoses of the health-related data using machine learning algorithms, and provides the diagnoses to the alert and treatments module which generates alerts and treatments based on the diagnoses.

A smart target co-witnessing hit attribution system includes a network, a projectile-firing device that includes a projectile repository and an infrared emitter, a smart target that includes a piezoelectric sensor, an infrared sensor, and control circuitry, and an extended-reality gaming application. After confirming a successful hit on the smart target, the application receives target state data and updates gaming metric data to attribute a successful impact on the smart target by the projectile-firing device.

A method for realizing a real-time spatial structure in an apparatus for realizing a real-time spatial structure is provided. The method for realizing a real-time spatial structure includes: tracking a movement path of a player; and realizing a spatial structure in the space on the movement path of the player using at least one of water sprayed through water spray modules of a mesh structure installed on a ceiling and electromagnet ropes of the mesh structure.

Virtual entities are displayed alongside real world entities in a wearable reality overlay device worn by the user. Information related to an environment proximate to the wearable device is determined. For example, a position of the wearable device may be determined, a camera may capture an image of the environment, etc. Virtual entity image information representative of an entity desired to be virtually displayed is processed based on the determined information. An image of the entity is generated based on the processed image information as a non-transparent region of a lens of the wearable device, enabling the entity to appear to be present in the environment to the user. The image of the entity may conceal a real world entity that would otherwise be visible to the user through the wearable device. Other real world entities may be visible to the user through the wearable device.

Various embodiments wirelessly detect micro gestures using multiple antenna of a gesture sensor device. At times, the gesture sensor device transmits multiple outgoing radio frequency (RF) signals, each outgoing RF signal transmitted via a respective antenna of the gesture sensor device. The outgoing RF signals are configured to help capture information that can be used to identify micro-gestures performed by a hand. The gesture sensor device captures incoming RF signals generated by the outgoing RF signals reflecting off of the hand, and then analyzes the incoming RF signals to identify the micro-gesture.

A virtual vehicle control method in a virtual scene, performed by a terminal, is provided. The method includes providing a display interface of an application program, the display interface including a scene picture of the virtual scene, and the virtual scene including a virtual vehicle; obtaining a moving speed of the virtual vehicle; and adjusting, based on the moving speed of the virtual vehicle being greater than a moving speed threshold, the scene picture to a picture of the virtual vehicle being observed in the virtual scene by using a camera model in a predetermined viewing angle direction, the camera model being located at a position with respect to the virtual vehicle.

A method of providing an augmented reality game environment within a game space includes obtaining, by a processor, sensor data for the game space, determining, by the processor, a position of a player in the game space based on the sensor data, generating, by the processor, player image data of a peripersonal boundary of the player based on the determined position of the player for rendering a representation of the peripersonal boundary in the game space, the peripersonal boundary being disposed about, and spaced from, the determined position, obtaining, by the processor, player data for the player via an input modality, the player data being indicative of a player directive to modulate the peripersonal boundary, adjusting, by the processor, a size of the peripersonal boundary as a function of the player data, and updating, by the processor, the player image data based on the adjusted size of the peripersonal boundary.

Systems and methods for linking real world activity, such as real world commercial activity or real world data collection activity, with a location-based parallel reality game are provided. In particular, a game server hosting a parallel reality game can modify, update, or add to game data stored in a game database associated with the parallel reality game to include certain game features in the parallel reality game linked with real world activity in the real world. The game features can be linked with activities in the real world such that player actions associated with the game features in the virtual world can lead to or encourage activity in the real world, such as commercial activity and/or data collection activity in the real world. A one-time password may be used to validate a player's location in the real world and to enable controlled access to game features in the virtual world.

A system and method enabling location-based activation of applications. A server system stores and provides a persistent virtual world system comprising one or more applications virtually attached to virtual-world entities positioned according to real-world coordinates, the server system being configured to compute the state of the virtual-world entities and to process the applications. Upon detecting the user devices in a corresponding zone (e.g., by the wireless network detecting user devices connecting to the server), the server system sends a minimum amount of application graphical representation to the user devices. Upon user interaction with the application graphical representation, the user devices download a minimum amount of application data, prompting the server system to determine suitable application media streams. The server system performs heavy-load computational tasks on the media streams and delivers the streams to the user devices, which perform lightweight computational tasks on the media content.

The present invention is configured so that a player and a third party other than the player can enjoy a game. A server 4 comprises a game execution unit 51, a behavior information acquisition unit 53, and a reflection unit 54. The game execution unit 51 executes a game in which an object is caused to act in accordance with the movements of a player P. The behavior information acquisition unit 53 acquires behavior information pertaining to the behavior of a third party related to the game other than the player P. The reflection unit 54 generates changes that affect the game, including the object, on the basis of the behavior information.