A method for managing a multi-user animation platform is disclosed. A three-dimensional space within a computer memory is modeled. An avatar of a client is located within the three-dimensional space, the avatar being graphically represented by a three-dimensional figure within the three-dimensional space. The avatar is responsive to client input commands, and the three-dimensional figure includes a graphical representation of client activity. The client input commands are monitored to determine client activity. The graphical representation of client activity is then altered according to an inactivity scheme when client input commands are not detected. Following a predetermined period of client inactivity, the inactivity scheme varies non-repetitively with time.

An image processing method is provided. Information about a current location of a virtual object on an application interface is obtained, and line-of-sight blocking data corresponding to the location information is queried for. A first mask layer is generated based on a current operation status of the virtual object on the application interface by using the line-of-sight blocking data. A second mask layer is replaced with the first mask layer according to a preset unit of time, the second mask layer being one of at least two mask layers that are generated prior to generation of the first mask layer, the second mask layer being generated earliest among the at least two mask layers. A result of mixing the first mask layer and the at least two mask layers, except the second mask layer, to the application interface is output.

A non-limiting example game system includes a game apparatus, and a terminal device and a television are connected to the game apparatus. A game image that is displayed on the television is an image that various kinds of objects arranged in a virtual space are imaged by a virtual camera. The virtual camera follows a player object so as to keep a predetermined distance with the player object, and when the player object enters a grassland object with comparatively long length, for example, each grass object is deformed or moved so as to go away from the virtual camera. For example, a height of the grass object near the virtual camera is made comparatively low, and the height is gradually made high as it separates from the virtual camera.

Systems and methods for executing content to be rendered on a screen of a head mounted display (HMD) are provided. One method includes executing the content to render interactive scenes on the screen and tracking an orientation direction of the HMD when worn on a head of a user and the interactive scenes are being rendered on the screen. The method includes changing view directions into the interactive scenes based on changes in the orientation direction of the HMD, such that movements of the head of the user causes the changes in the view directions into the interactive scenes. The method further includes receiving images of a real world space using a camera of the HMD. The camera of the HMD is configured to capture a location of real world objects in the real world space relative to the user of the HMD. The method includes detecting that at least one real world object is becoming proximate to the user of the HMD and generating a warning or message to be presented to the HMD, the warning or message indicating that the user is likely to bump or contact the at least one real world object. The method further includes transitioning at least a portion of the screen to a transparent mode. The transparent mode provides at least a partial view into the real world space using the camera of the HMD.

An image is placed, based on a predetermined designation input, on a predetermined placement position in relation to a display area, and displayed. The image is enlarged and reduced in accordance with an enlargement ratio of the image, and an area within which the placement position can be set is changed in relation to the display area in accordance with the enlargement ratio. Then, based on an obtained designation input, a position within the area, which position corresponds to the designation input, is calculated as a placement position, and the image having been enlarged and reduced is placed on the placement position. The image is then displayed on a display device.

A computer system includes a terminal, and a distribution server. The terminal includes an acquisition unit configured to acquire information related to a game played in a player game space, an image processing unit configured to generate second image information based on the information related to the game, a part of or entirety of the second image information being different from first image information that is displayed in the player game space, and a communication unit configured to transmit distribution information that includes the second image information. The distribution server includes a reception unit configured to receive the distribution information that includes the second image information, and a distribution unit configured to distribute distributable information that includes some or all of the second image information viewable on another terminal.

Systems and methods for generating a performance heatmap that accounts for barriers, playable areas and non-playable areas are disclosed. The system applies a blur operation to a performance heatmap associated with a game map to generate a blurred heatmap, the heatmap having a plurality of pixels, where at least a portion of the pixels is associated with one or more values corresponding to one or more performance metrics. A mask representative of a top down image of the game map is generated, where the mask defines first areas that are accessible to players and second areas that are not accessible to players. A data structure is defined having n×m elements, wherein each of the n×m elements has a weight associated therewith based on an association of the data structure and mask. The blurring operation is executed on the heatmap using the data structure.

Various embodiments of the invention disclosed herein provide techniques for extending on-screen gameplay via an augmented reality (AR) system. An extended AR application executing on an AR headset system receives, via a game controller, first data associated with a first object associated with a computer-generated game. The extended AR application renders an augmented reality object based on the first data associated with the first object. The extended AR application displays at least a first portion of the augmented reality object via an augmented reality headset system. Further, an image associated with the computer-generated game is simultaneously rendered on a display monitor.

A game apparatus includes a position acquisition device configured to acquire information related to a position of a second object movable in a game field in which a first object is disposed and in a three-dimensional virtual space, and an image generation device configured to generate an image representing a view from a virtual viewpoint in the three-dimensional virtual space, and perform an image change by at least one of erasure and transparentization of the first object on the basis of a height of the first object with respect to the position of the second object in a display area including at least a part of the second object when generating the image.

Methods and systems for filtering content in reconstructions of native data in assets. Specifically, the methods and systems extract telemetry data from native game data. The methods and systems then identify Personally Identifiable Information (“PII”) in the telemetry data and determine a masking operation to perform on the PII. The methods and systems then generate for presentation, in a user interface, reconstructed asset data based on the telemetry data, wherein the PII is modified in the reconstructed asset data based on the masking operation.