Methods and systems are provided for verifying an input provided at a controller including detecting a finger gesture on a surface of the controller. Responsive to detecting the finger gesture, multi-modal data is collected from a plurality of sensors and components tracking the finger gesture. The multi-modal data is used to generate an ensemble model using machine learning algorithm. The ensemble model is trained in accordance to training rules defined for different finger gestures. An output is identified from the ensemble model for the finger gesture. The output is interpreted to define an input for an interactive application selected for interaction.

A gaming system comprises a handheld user input device, a processor for receiving input data from the handheld user input device and a gaming application for receiving data from the processor based on the received input data from the handheld user input device. The handheld user input device emulates one of a plurality of different devices associated with the gaming application. Each of the plurality of different devices have a set of input commands associated therewith. The set of input commands associated with the one of a plurality of different devices includes a command based on one of motion and orientation of the handheld device.

There are provided a controller apparatus and a control method thereof. The controller apparatus is held by a hand of a user and includes a microphone, a tactile sensation presentation device that presents a tactile sensation to the hand of the user, and a speaker. In addition, during a period in which the user inputs sound from the microphone, the controller apparatus reduces emission of sound of the speaker and causes the tactile sensation presentation device to perform control of tactile sensation presentation.

Aspects of this disclosure relate to rewarding users of an electronic game for real-world physical activity. Further aspects relate to altering virtual items based upon physical activity. An electronic game may comprise or otherwise relate to an online world (such as a “Virtual World”). Users may be represented through customized graphical representations, such as avatars. An account of a user (or entity) may be associated a “virtual region.” A threshold level of real-world physical activity may result in obtaining a reward that may be associated with a virtual item. A reward may be configured to result in: (1) altering visual appearance of a virtual item within a virtual region; (2) altering a virtual characteristic of a virtual item, such that the first user may engage in at least one additional virtual activity using that virtual item; and/or (3) acquiring a new virtual item for a virtual region.

A method for resource allocation and a terminal device are provided. The method includes the following. System-state information of a terminal device is acquired, and the terminal device has a target application running in a foreground of the terminal device. An internal running scenario of the target application is determined according to the system-state information. A performance improvement strategy corresponding to the internal running scenario is acquired. Allocation of system resources for the internal running scenario is adjusted according to the performance improvement strategy.

This application discloses an audio play and acquisition method. The method is applicable to a terminal connected to a Bluetooth headset. The terminal is configured with a terminal microphone, and the Bluetooth headset is configured with a headset microphone. The terminal displays a program interface for playing first audio through the Bluetooth headset in a form of a stereo sound effect. After receiving a voice input signal, the terminal invokes the terminal microphone to activate a voice input channel to acquire second audio as voice input content. When the first audio is played through the Bluetooth headset in a form of the stereo sound effect, the second audio is acquired as the voice input content through the terminal microphone. The second audio is acquired through the terminal microphone while ensuring the first audio is played with a stereo sound effect by the Bluetooth headset.

A game-agnostic event detector can be used to automatically identify game events. Event data for detected events can be written to an event log in a form that is both human- and process-readable. Descriptive text for the event data can come from a common event dictionary that is hierarchical in nature, such that events of the same type can be correlated across different games even though the precise nature or appearance of those events may be different. The event data can be used for various purposes, such as to generate highlight videos or provide player performance feedback.

Information handling systems, methods, and computer-readable media enable gameplay event detection and gameplay enhancement operations. One or more in-game events may be detected by monitoring audio content, by monitoring video content, by monitoring user input, by monitoring other information, or a combination thereof. The one or more in-game events (and information related to the one or more in-game events) may be stored at a database. Information of the database may be accessed to trigger one or more gameplay enhancement operations. The one or more gameplay enhancement operations may include an automatic highlight capture operation, a dynamic screen aggregation operation, a dynamic position switch operation, a dynamic player switch operation, a gameplay enhancement operation using one or more peripheral devices (e.g., a lighting effect or a haptic feedback event), one or more other gameplay enhancement operations, or a combination thereof.

Information handling systems, methods, and computer-readable media enable gameplay event detection and gameplay enhancement operations. One or more in-game events may be detected by monitoring audio content, by monitoring video content, by monitoring user input, by monitoring other information, or a combination thereof. The one or more in-game events (and information related to the one or more in-game events) may be stored at a database. Information of the database may be accessed to trigger one or more gameplay enhancement operations. The one or more gameplay enhancement operations may include an automatic highlight capture operation, a dynamic screen aggregation operation, a dynamic position switch operation, a dynamic player switch operation, a gameplay enhancement operation using one or more peripheral devices (e.g., a lighting effect or a haptic feedback event), one or more other gameplay enhancement operations, or a combination thereof.

Systems and methods for using natural language processing (NLP) to control automated gameplay in one or more online games within an online gaming platform are disclosed. Exemplary implementations may: train a pretrained text-based system to generate sequences indicating one or more activities, wherein activities are associated with characteristics of user-controllable characters such that a particular user-controllable character having a particular characteristic may perform, within the online gaming platform, one or more activities from a particular set that is associated with the particular characteristic; receive user input describing one or more commands; generate, using the pretrained text-based system, a sequence indicating one or more activities based on the user input; transfer the generated sequence to the online gaming platform; effectuate automated execution of activities by the particular user-controllable character in accordance with the generated sequence.