A computer game interface is disclosed, having controller inputs configured to receive an input signal from a user interface controller and to enable the user to control a user controllable element of a game on a computer. The computer game interface also has a controller output that sends an output signal to the computer, the output signal having information to control the user controllable element of the game. Another element of the computer game interface is a switching module in communication with the controller inputs and the controller output. The switching module selects an input signal from the input signals received by the controller inputs and communicates the input signal to the controller output. An additional element of the computer game interface is a timer controlling the switching module to switch the input signal communicated to the controller output based on a time period.

Example systems and methods involve detecting an input to a touchscreen display of a video game apparatus; determining a video game action based on a shape of the input; and determining a timing of the video game action based on a color associated with the input.

A computer game interface is disclosed, having controller inputs configured to receive an input signal from a user interface controller and to enable the user to control a user controllable element of a game on a computer. The computer game interface also has a controller output that sends an output signal to the computer, the output signal having information to control the user controllable element of the game. Another element of the computer game interface is a switching module in communication with the controller inputs and the controller output. The switching module selects an input signal from the input signals received by the controller inputs and communicates the input signal to the controller output. An additional element of the computer game interface is a timer controlling the switching module to switch the input signal communicated to the controller output based on a time period.

A system for improving bodily dexterity includes a plurality of wearable sensor units and a processing unit. The plurality of wearable sensor units each include a sensor for sensing a user action, a generating module for generating an action signal that includes information about the user action, and a sensor transmitter for transmitting the action signal. The processing unit includes a processing unit receiver for receiving the action signal, an interpretation module for interpreting the action signal in accordance with a set of pre-assigned criteria, and an output signal generator for generating an output signal based on the interpreted action signal.

Technologies for providing a cognitive capacity test for autonomous driving include a compute device. The compute device includes circuitry that is configured to display content to a user, prompt a message to the user to turn user's attention to another activity that needs situational awareness, receive a user response, and analyze the user response to determine an accuracy of the user response and a response time, wherein the accuracy and response time are indicative of a cognitive capacity of the user to assume control of an autonomous vehicle when the autonomous vehicle encounters a situation that the vehicle is unable to navigate.

In embodiments of portable device pairing with a tracking system, a pairing system includes a portable device that generates device acceleration gesture data responsive to a series of motion gestures of the portable device. The pairing system also includes a tracking system that is configured for pairing with the portable device. The tracking system recognizes the series of motion gestures of the portable device and generates tracked object position gesture data. A pairing service can then determine that the series of motion gestures of the portable device corresponds to the series of motion gestures recognized by the tracking system, and communicate a pairing match notification to both the tracking system and the portable device to establish the pairing.

Example systems and methods involve detecting an input to a touchscreen display of a video game apparatus; determining a video game action based on a shape of the input; and determining a timing of the video game action based on a color associated with the input.

The immersive, interactive system according to the present disclosure employs interconnected hardware, firmware, software, and mixed technology comprising projection systems, smart entertainment technologies, tracking systems, sound, light, visual displays, and other physical and/or special effect displays to create an entertainment experience that brings people together to enjoy a common story, theme, music, or game. In one embodiment, the system takes the form of a magical campfire that interacts with members of the audience to present an interactive and customized visual and audio display and story. The system may connect and interact with other technological platforms and smart devices to supplement the processing and experience, and may be updated to maintain relevant and timely content, and add additional features. The system may exist in a large scale environment, such as a theatre, theme park, or museum, or may be condensed to a smaller-scale version for home use.

An electronic gaming machine (EGM) can include a set of mechanical reels; a display surface; and a projector. The projector can be configured to project a digital element on the display surface. The display surface can be located between the projector and the set of mechanical reels.

The presently disclosed subject matter relates to the field of digital therapeutics to improve immune function. A primary mode of delivering the digital therapeutics is using sensory means comprising: sensory inhibition, sensory substitution, sensory integration, or a combination thereof. The invention also provides combination therapies that comprise digital interventions together with non-digital interventions such as medicinal agents.