490 results about "Computer generation" patented technology

A three-dimensional preview of content can be generated and presented at an electronic device in a three-dimensional environment. The three-dimensional preview of content can be presented concurrently with a two-dimensional representation of the content in a content generation environment presented in the three-dimensional environment. While the three-dimensional preview of content is presented in the three-dimensional environment, one or more affordances can be provided for interacting with the one or more computer-generated virtual objects of the three-dimensional preview. The one or more affordances may be displayed with the three-dimensional preview of content in the three-dimensional environment. The three-dimensional preview of content may be presented on a three-dimensional tray and the one or more affordances may be presented in a control bar or other grouping of controls outside the perimeter of the tray and / or along the perimeter of the tray.

Methods for displaying and organizing user interfaces in a computer-generated environment provide for an efficient and intuitive user experience. In some embodiments, user interfaces can be grouped together into a container. In some embodiments, user interfaces can be added to a container, removed from a container, or moved from one location in the container to another location. In some embodiments, a visual indication is displayed before a user interface is added to a container. In some embodiments, a user interface can replace an existing user interface in a container. In some embodiments, when moving a user interface in a computer-generated environment, the transparency of a user interface that is obscured can be modified.

Methods for counter-scaling windows and rearranging objects within those counter-scaled windows in a 3D computer-generated environment is disclosed. The windows can be counter-scaled in accordance with changes to their depth within the 3D computer-generated environment. Objects within the window can be presented at their actual size and with their correct scale relative to each other and with respect to the 3D computer-generated environment, and can maintain their actual size and scale relative to each other and the environment regardless of the depth of the window in the environment. Some embodiments of the disclosure rearrange the layout of the objects to present more or fewer objects in the window as the size of the window changes due to counter-scaling. Depth-dependent window resizing and object rearrangement while preserving actual object size and scale within the 3D computer-generated environment can provide a more authentic viewing experience and can encourage increased user interaction.

Methods for displaying user interfaces in a computer-generated environment provide for an efficient and intuitive user experience. In some embodiments, user interfaces can have different immersion levels. In some embodiments, a user interface can have a respective immersion level based on its location in the three-dimensional environment or distance from the user. In some embodiments, a user interface can have a respective immersion level based on the state of the user interface. In some embodiments, a user interface can switch from one immersion level to another in response to the user's interaction with the user interface.

The disclosure relates to systems and methods of automatically generating unique content including natural language text based on a corpus of previously generated response documents and discrete requirements defined in a requirements specification. The system may use generative stitching that includes multi-layer processes that execute to influence the generation of unique content including natural language text through an artificial intelligence (AI) language transformer model trained to output the content based on previously written material that is semantically relevant to the discrete requirements and is weighted against labeled attributes. The labeled attributes may determine the influence asserted against the language transformer, thereby generating unique on-target content that may be combined to create a computer-generated response document.

A computer system, while displaying a first view, including a first representation of a first portion of a physical environment, detects a request to activate a first type of computer-generated sensory adjustment, and in response, displays a second representation of the first portion of the physical environment with a first display property adjusted relative to the first representation in accordance with the first type of computer-generated sensory adjustment. The computer system detects a request to activate a second type of computer-generated sensory adjustment, and in response, displays a third representation of the first portion of the physical environment with the first display property adjusted relative to the first representation in accordance with the first type of computer-generated sensory adjustment, and a second display property adjusted relative to the second representation in accordance with the second type of computer-generated sensory adjustment.

Disclosed is a head-mounted display system comprising a head-mounted display unit producing a computer-generated output for a user. The head-mounted display unit includes at least one sensor. The at least one sensor may be configured to measure a parameter associated with digital eye strain for the user. The at least one sensor may be configured to communicate a measured parameter to a processor, wherein the processor is configured to effect change on the computer-generated output based on the measured parameter.

A computing system displays, via a first display generation component, a computer-generated environment, and concurrently displays status information corresponding to the computing system via the second display generation component, including concurrently displaying: a visual representation of a portion of a user of the computing system who is in a position to view the computer-generated environment via the first display generation component, and one or more graphical elements that provide a visual indication of content in the computer-generated environment. The computing system detects a respective event; and in response, the computing system changes a level of immersion of the computer-generated environment displayed via the first display generation component, and changes the status information that is displayed via the second display generation component, including changing an appearance of the visual representation of the portion of the user of the computing system.

A computer generates an accident risk definition model to estimate a probability of hazard occurrence as an accident risk by inputting first in-vehicle sensor data collected in the past and hazard occurrence data having information on hazard occurrence from the first in-vehicle sensor data preset therein, generates accident risk estimation data by inputting second in-vehicle sensor data collected in the past to the accident risk definition model and estimating the probability of the hazard occurrence, generates an accident risk prediction model to predict the accident risk after a predetermined time by inputting first biological index data corresponding to the second in-vehicle sensor data and the accident risk estimation data, calculates second biological index data from second biological sensor data by acquiring the second biological sensor data of a driver, and predicts the accident risk after the predetermined time by inputting second biological index data to the accident risk prediction model.

In some exemplary processes for controlling an external device using a computer-generated reality interface, a view of a physical environment that includes the external device is provided through a display, and an affordance corresponding to the external device is displayed on the display. In response to a user input corresponding to activation of the affordance, the external device provides information including a media item and the media item is presented.

Scenario generation includes establishing a communicative coupling between a computer-generated business continuity management user interface and a selected large language model (LLM). Scenario generation includes specifying an adverse event in the user interface and querying a database of scenario description records for an organization with the specified adverse event in order to receive a vector of relevant data to the specified adverse event. Scenario generation further includes first tuning a pre-determined LLM prompt with the vector to produce a specific LLM prompt for the specified adverse event and then submitting the specific LLM prompt to the selected LLM from over the communicative coupling. The selected LLM returns to the user interface scenario text referring to a plausible instance of the specified adverse event. Finally, scenario generation includes persisting the scenario text into persistent storage in connection with a specific scenario for use in a scenario simulation engine.

Visual programming provides an efficient and intuitive user experience in an enhanced reality computer-generated environment. In some embodiments, a graphical representation of a programming structure is displayed in a computer-generated environment, and various interactions with the graphical representation of the programming structure are provided to define behavior of objects in a computer-generated environment. In some embodiments, the behavior of the object is defined by a trigger and an action. In some embodiments, the various interactions include adding one or more graphical representations of programming objects to the graphical representation of the programming structure, removing one or more graphical representations of programming objects from the graphical representation of the programming structure or from the computer-generated environment, and / or previewing the behavior defined by the graphical representation of the programming structure.

Systems, methods, and other embodiments described herein relate to superimposing computer-generated exterior vehicle lights over asynchronous real-world exterior vehicle lights to reduce a sensory overload of a vehicle driver. In one embodiment, a method includes assessing a sensory environment of a vehicle driver. The method also includes determining that the vehicle driver is in a sensory-overloaded state based on 1) a characteristic of the sensory environment, 2) physiological sensor data for the vehicle driver, and 3) driving behavior sensor data. The method also includes superimposing an augmented reality (AR) overlay of computer-generated synchronized exterior vehicle lights over asynchronous real-world exterior vehicle lights viewed through an AR display device of the vehicle based on a determination that the vehicle driver is in the sensory-overloaded state.

A system projects a user-viewable, computer-generated or -fed image, wherein a head-mounted projector is used to project an image onto a retro-reflective surface, so only the viewer can see the image. The projector is connected to a computer that contains software to create virtual 2-D and or 3-D images for viewing by the user. Further, one projector each is mounted on either side of the user's head, and, by choosing for example a retro angle of less than about 10 degrees, each eye can only see the image of one of the projectors at a given distance up to 3 meters, in this example, from the retro-reflective screen. The retro angle used may be reduced with larger viewing distance desired. These projectors use lasers to avoid the need for focusing, and in some cases these projectors use instead of lasers highly collimated LED light sources to avoid the need for focusing.

Some examples of the disclosure are directed to systems and methods for synchronizing display of content among multiple devices. In some examples, a first electronic device detects a second display in communication with a second electronic device at a first location in a physical environment of the first electronic device. In some examples, in response to detecting the second display, in accordance with a determination that one or more criteria are satisfied, the first electronic device displays a first object at a first location in a computer-generated environment that corresponds to the first location in the physical environment, wherein the first object includes first content. In some examples, in accordance with a determination that the one or more criteria are not satisfied, the first electronic device forgoes display of the first object at the first location in the computer-generated environment.

Computer-based generation of information-gathering questions in response to a user query can include parsing the user query using natural language processing and extracting from the user query one or more phrases corresponding to a predetermined category. A knowledge database can be accessed, and entities semantically related to each phrase can be extracted therefrom. A query sub-graph representing a relationship between each of the one or more phrases and the entities extracted from the knowledge database can be generated. An expanded user query can be generated by traversing the query sub-graph. Passages semantically related to the expanded user query can be retrieved from one or more passages databases and ranked. A neural question generator can generate a set of information-gathering questions based on the expanded user query and a group of select passages selected from the plurality of passages in accordance with each selected passage's ranking.

A method of generating a cropped view of a computer-generated three-dimensional (3D) computer-aided design (CAD) model includes displaying the model on a computer display, receiving an indication that an element from the displayed model has been selected as a target geometry, creating a boundary shape on the selected target geometry, and generating a cropped view of the model. The method includes forming a boundary shape on a model, extending a boundary line of the boundary shape in a normal direction through the model to establish a boundary, partitioning the model at the boundary to divide a first portion of the model located within the boundary and a second portion of the model located outside the boundary, and visually displaying the first portion of the model located within the boundary based on the partitioned model. And generating a visual description of the clipping representation of the model by hiding or displaying a second portion of the model outside the boundary in a transparent state with only edges.

The invention relates to an eyewear display system (1) for displaying a virtual image in a field of view of a user, the eyewear display system comprising: a display unit (14) for emitting light (163", 161'', 162'') as computer-generated image information in an emission direction; a deflection unit (17) for deflecting the light (163", 161'', 162'') emitted by the display unit (14) as computer-generated image information into an eye (10) of the user; and a plurality of micromirror elements (12, 12', 12"), each of which can be tilted in a support structure (200) and each of which has a reflective surface (25) for deflecting the light (163", 161", 162") emitted by the display unit (14) as computer-generated image information; wherein the micromirror elements (12, 12', 12'') and the support structure (200) are arranged in a sealed housing element (17a) of the deflection unit (17), said housing element being filled with a liquid (23), in order to provide an eyewear display system (1) which offers improved immersion.

The invention discloses a holographic method for generating controllable three-dimensional axial structured light, which comprises the following steps of: generating three-dimensional axial structured light intensity maps and depth maps of different periods and phases through a computer, processing the three-dimensional axial structured light intensity maps and depth maps by the computer to obtain slice layers, and obtaining propagation from an object plane to a holographic plane by using an S-FFT (Fast Fourier Transform) algorithm by virtue of a Fresnel diffraction principle; adding the complex amplitudes of all the slice layers to obtain a hologram, extracting phase distribution from the complex amplitude distribution of the hologram to obtain a phase distribution diagram, and performing reconstruction processing at the same time; and inputting a three-dimensional reconstruction image generated after reconstruction processing, enabling the moving distance of the receiving screen to correspond to a reconstruction interval, and collecting axial structured light of which the focusing change is that each piece is changed by 5-6 pixel values. According to the invention, the generation process of the three-dimensional axial structured light is simplified, the light beam quality is ensured, the operation simplicity and control efficiency are obviously improved, the period and phase distribution of the light beam can be accurately controlled, and the strict requirements of different application scenes on structured light parameters are met.

A computer-implemented method, a computer program product, and a computer system for phygital integration in commerce-based checkout experiences. A computer aggregates data from one or more personal devices of a user and data from one or more biosensors of the user. A computer trains a machine learning model on features extracted from aggregated data. A computer uses the machine learning model to predict purchase preferences of the user and to generate for the user personalized recommendations, promotions, and loyalty rewards. A computer generates notifications about the personalized recommendations, promotions, and loyalty rewards. A computer transmits the notifications to the one or more personal devices. A computer monitors interactions of the user with the personalized recommendations, promotions, and loyalty rewards. A computer uses information of the interactions to train the machine learning model for future prediction of the purchase preferences and future generation of the personalized recommendations, promotions, and loyalty rewards.

A digital assistant may be used with a computer-generated environment. In some embodiments, a digital assistant is invoked and / or terminated via user input. In some embodiments, the digital assistant is displaying in a computer-generated environment. In some embodiments, the digital assistant may be used to interact with objects in a computer-generated environment. Devices, methods, and graphical user interfaces for a digital assistant provide an improved user experience for computer-generated environments.

A three-dimensional computer-generated environment can be presented to a user. The user can create a virtual representation of a real-world object within the computer-generated environment by directing an input device towards the real-world object and tracing contours of the real-world object. The virtual representation can include voxels. The user can edit the virtual representation or create a new virtual object formed of voxels by depositing or removing voxels at virtual locations within the computer-generated environment based on selection inputs, release inputs, and optionally movement inputs detected by the input device. In some cases, the user can provide inputs via another input source, such as a hand of the user, that are detected by additional sensors or devices.

Mechanisms are provided for rendering virtual objects in a computer generated virtual environment. Physical environment condition data is received and transformed into UV map data structure(s), where each UV map data structure comprises entries that store one or more environment condition values mapped from the physical environment condition data to the UV map data structure. A customized shader processes the UV map data structure(s) to apply environment condition effects to a rendering of a virtual object corresponding to the customized shader. The customized shader executes on the environment condition data of the UV map data structure(s) and specifies a modification to a representation of the virtual object due to the environment condition values represented in the UV map data structure(s). Generation of the virtual object in the virtual environment is controlled based on results of processing the one or more UV map data structures by the customized shader.

Systems and methods are disclosed for generating and providing guided practices and coaching feedback (e.g., illustrated in 3D images, video, or audio) that allow users performing sports activities to follow along to improve their physical movements in a digital environment. The feedback may be provided with a 3D avatar using a biomechanical analysis of observed actions with a focus on representing actions through computer-generated 3D avatars. Physical quantities of biomechanical actions can be measured from the observations, and the system can analyze these values, compare them to watchlist values, animate the 3D avatar based on the measurements, and display the 3D avatar on a computer-generated user interface.

The disclosure relates to systems and methods of automatically generating unique content including natural language text based on a corpus of previously generated response documents and discrete requirements defined in a requirements specification. The system may use generative stitching that includes multi-layer processes that execute to influence the generation of unique content including natural language text through an artificial intelligence (AI) language transformer model trained to output the content based on previously written material that is semantically relevant to the discrete requirements and is weighted against labeled attributes. The labeled attributes may determine the influence asserted against the language transformer, thereby generating unique on-target content that may be combined to create a computer-generated response document.

There is provided an image processing method for generating images including a volumetric effect. The method comprises: sampling, using a three-dimensional grid, computer-generated volumetric effect data for a virtual scene at a first sampling resolution, to obtain a first set of sampling results; upscaling at least part of the first set of sampling results by interpolating between samples of the at least part of the first set of sampling results, to obtain a second set of sampling results having a second, higher, sampling resolution; and generating one or more display images for the virtual scene at least partly in dependence on the second set of sampling results.

A user-described virtual environment method, system, and apparatus obtains a representation of an object and receives a natural language-based communication from a user requesting that a computer-implemented system embody the object within a virtual environment that is described by the user. The natural language description of the virtual environment is interpreted by applying a computer-implemented trained neural network A video stream that embodies the object within a computer-generated virtual environment that is in accordance with the user-described virtual environment is generated by applying a trained neural network and then delivered to the user. The user may then describe desired modifications to the virtual environment and a second video stream is generated in accordance with the desired modifications.