286 results about "Computer generation" patented technology

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.

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.

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 system implements an emergent web space to bind a host computer to one or more client computers. A host computer generates data aspects of characteristically random data to create emergent web spaces in which website resources can be rendered by one or more client computers intersecting the same emergent web spaces. A binding is established between the host computer and one or more client computers when a block of true random data generated by the host computer is provided to the one or more client computers. A unique block of true random data together with the remote storage of data aspects constitutes a zone. A software application executing on the one or more client computers is configured to retrieve data aspects from within the same zone, and further configured to resolve and then render website resources.

A method is provided. The method is executed by an automation engine implemented as a computer program within a computing environment. The automation engine executing processing strategy based on a problem statement. The method includes receiving the problem statement comprising a specific requested task in natural language and automatically processing the problem statement by utilizing a generative artificial intelligence (AI) model to manipulate the natural language of the problem statement to create a new computer digestible script defining the specific requested task. The method includes automatically determining the processing strategy comprising an automation plan of computer generated steps that achieves the specific requested task and executing the plurality of existing automations according to the processing strategy.

Methods, systems, and apparatus for generating trajectory predictions for one or more target agents. In one aspect, a system comprises one or more computers configured to obtain scene context data characterizing a scene in an environment at a current time point, where the scene includes multiple agents that include a target agent and one or more context agents, and the scene context data includes respective context data for each of multiple different modalities of context data. The one or more computers then generate an encoded representation of the scene in the environment that includes one or more embeddings and process the encoded representation of the scene context data using a decoder neural network to generate a trajectory prediction output for the target agent that predicts a future trajectory of the target after the current time point.

According to various implementations, a method includes obtaining pose data that indicates a plurality of poses of the electronic device within a physical environment. The method includes obtaining a representation of a three-dimensional (3D) environment. The representation of the 3D environment includes a plurality of planes. Each of the plurality of planes defines a plurality of points in xy space. The representation of the 3D environment does not include z space (e.g., depth) information. The method includes anchoring the representation of the 3D environment to a physical anchor point within the physical environment based on the pose data. The method includes anchoring a computer-generated object to the representation of the 3D environment based on the pose data. For example, the pose data includes z space (e.g., depth) information, which is used to anchor the computer-generated object to the representation of the 3D environment.

A head-mounted device may be worn on the face of a user. The head-mounted device may include a user-viewable display that presents inwardly directed user-viewable images such as virtual reality images to the user. The head-mounted device may also have a publicly viewable display that presents publicly viewable images to individuals near the user. The publicly viewable images may overlap facial features of the user's face. Publicly viewable images may include captured images of user facial features or other content, may include computer-generated graphics such as user facial feature graphics, may contain a mixture of captured image content and overlaid graphics such as user facial feature graphics, or may contain other publicly viewable content. User monitoring sensors such as camera and gaze detection sensors, environmental sensors, and other circuitry in the head-mounted device may gather information that is used in adjusting the publicly viewable images.

To provide methods and computing systems utilizing automations and robotic process automations integrated with generative artificial intelligence models to accomplish a specifically requested task.SOLUTION: A method implemented by an automation engine, which is implemented as a computer program within a computing environment and executes processing strategy based on a problem statement, includes: receiving the problem statement comprising a specific requested task in natural language 910; automatically processing the problem statement by utilizing a generative artificial intelligence (AI) model to manipulate the natural language of the problem statement to create a new computer digestible script defining the specific requested task 920; automatically determining the processing strategy comprising an automation plan of computer generated steps that achieves the specific requested task 940; and executing the plurality of existing automations according to the processing strategy 950.SELECTED DRAWING: Figure 9

Various embodiments of the present disclosure include systems, methods, and / or apparatuses for executing an artificial intelligence (AI) framework. The system may be configured to: receive an initial software functionality definition data set; retrieve at least one configuration data set comprising predefined context data; generate, at least by at least one agent executing at least one generative AI model, one or more requirement data objects for a computer-generated executable software program product based on the initial software functionality definition data set; generate one or more code generation work prompt sets defining a list of computer-executable tasks configured to generate code for the computer-generated executable software program product; and / or build the code for the computer-generated executable software program product.

Systems and processes for operating an intelligent automated assistant within a computer-generated reality (CGR) environment are provided. For example, a user input invoking a digital assistant session is received, and in response, a digital assistant session is initiated. Initiating the digital assistant session includes positioning a digital assistant object at a first location within the CGR environment but outside of the currently-displayed portion of the CGR environment at a first time, and providing a first output indicating the location of the digital assistant object.

To provide a hologram device capable of accurately reproducing a reproduced image.SOLUTION: A hologram device (15) includes a holographic color filter (10) composed of a reflection type volume hologram, and a transmission type computer-generated hologram (11) disposed in front of the holographic color filter so as to overlap the holographic color filter.SELECTED DRAWING: Figure 3

Various embodiments are directed towards techniques for determining materials for computer-generated designs that include generating a query prompt based on an assembly context, transmitting the query prompt to a plurality of large language model (LLM) agents for processing, receiving a plurality of material attribute filters from the plurality of LLM agents, where each LLM generates a different material attribute filter when processing the query prompt, combining the material attribute filters included in the plurality of material attribute filters to produce a material query, querying a material database using the material query to identify at least one potential material to use for a design, evaluating simulation results to determine whether the at least one material is an appropriate material to use for the design.

This disclosure relates to techniques for manipulating computer graphics objects. The invention discloses a computer-generated virtual object manipulator having one or more power representations for manipulating computer-generated virtual objects. Selection of a virtual object causes the object manipulator to be displayed above the virtual object. The object manipulator may include a conical single-axis translation power representation for each of the one or more object axes, a disk-shaped single-axis scaling power representation for each of the one or more object axes, an arc-shaped rotation power representation for rotation about each of the one or more object axes, and an object center power representation for free-space movement of the virtual object. The object manipulator may also include a slice-shaped dual-axis translation power representation, which may be displayed after hovering over an area in a specific plane.

The invention discloses an SV message dynamic channel real-time mapping device based on a modification instruction set, comprising a configuration computer which generates a data packet corresponding to the SV modification instruction set and a data packet corresponding to SV message static data, and the message modification module modifies SV message dynamic data in a to-be-matched SV message received by the message receiving module from the to-be-matched source device based on the SV modification instruction set, then generates a modified SV message in combination with the SV message static data, and sends the modified SV message to the target device. The invention further discloses an SV message dynamic channel real-time mapping method based on the modification instruction set, and the to-be-matched SV message from the to-be-matched source device is modified and converted into the message which can be received by the target device in real time. The problems that cross-interval equipment stops for multiple times and SV messages of new and old devices are not matched in the transformation process of the secondary equipment of the intelligent substation are solved, and new equipment debugging, synchronous operation of the old equipment and seamless transformation switching of the new and old equipment are achieved.

The application relates to the field of sintering machine trolley fault detection, and provides a sintering machine trolley operation fence failure detection method and system. A line structure light device is arranged at the waist line of the fence, and is connected with a computer to control the line laser generator to emit a laser line to form a light stripe on the fence. The camera is controlled to collect the data of the light stripe, the data of the light stripe is transmitted to the computer to generate fence scanning data. A world coordinate system is established with the vertical and horizontal ground direction as the X axis, the vertical fence direction as the Y axis, and the movement direction of the trolley as the Z axis to generate a point cloud model of the fence outer side contour. Whether the fence has an angle defect, inclination or a gap between adjacent fences is judged according to the point cloud model of the fence outer side contour. The fence angle defect, inclination or gap between adjacent fences can be detected, the detection result is not interfered by the fence outer side reinforcing rib, and the detection result is accurate and timely.

Methods, systems, and apparatuses, including computer programs for identifying a gene fusion in a biological sample are disclosed. The method can include actions of obtaining first data that represents a plurality of aligned reads, identifying a plurality of fusion candidates included within the obtained first data, filtering the plurality of fusion candidates to determine a filtered set of fusion candidates, for each particular fusion candidate of the filtered set of fusion candidates: generating, by one or more computers, input data for input to a machine learning model that includes extracted feature data that to represents the particular fusion candidate, providing the generated input data as an input to the machine learning model that has been trained to generate output data representing a likelihood that a fusion candidate is a valid gene fusion, and determining whether the particular fusion candidate corresponds to a valid gene fusion based on the output data.

A gaming machine for displaying a computer-animated reel game is described herein. The gaming machine includes one or more processors programmed to execute an algorithm to display an animated sequence of computer-generated images of the computer-animated reel game on a display device GUI including the steps of initiating a free game selection animation sequence by rendering a free game selection screen including a player selectable free game icon displaying a first game feature notification icon indicating that an appearance of the special symbol may trigger a reveal boost game feature animation sequence, and a player selectable super free game icon displaying an inner symbol notification indicating that a predefined number of inner symbols will be added to the reels and a second game feature notification icon indicating that an appearance of the special symbol always triggers the reveal boost game feature animation sequence.

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.

The invention relates to a computer-implemented method for checking and providing a computer-generated function, said method comprising the following method steps:-providing a known sensor signal,-providing a computer-generated function,-modifying the known sensor signal in view of a non-functional requirement, applying a computer-generated function to the known sensor signal and generating a result, applying the computer-generated function to the changed sensor signal and generating a result, checking whether the generated result lies in the respective target range, if one of the generated results does not lie in the target range, determining whether the target range is in the target range, and if the other of the generated results does not lie in the target range, determining whether the target range is in the target range. Discarding the computer-generated function if all the resulting results lie in the respective nominal range, outputting the computer-generated function if all the resulting results lie in the respective nominal range; a computer program product containing a computer generated function; a computer system configured to execute a computer generated function; and a train, the train having a computer system, the computer system being configured to execute a computer-generated function.

A head-wearable computer system for providing a computer-generated experience.SOLUTION: The head-mountable display device comprises a housing defining a front opening and a rear opening, a display screen disposed in the front opening, a display assembly disposed in the rear opening, a first fastening strap coupled to the housing and including a first electronic component, a second fastening strap coupled to the housing and including a second electronic component, and an anchoring band extending between and coupled to the first fastening strap and the second fastening strap.SELECTED DRAWING: FIG. 1-1A

Described herein are systems and methods for generating and transmitting media data feeds location-based privacy settings. Embodiments generate, store, and reference location-based privacy settings that instruct the computing device to generate obfuscations in the media data. The obfuscations may include computer-generated or user gesture-generated obfuscation regions that instruct the computing device to apply the obfuscations to portions of the video feed. The computing device may be pre-configured to recognize certain objects or regions (or portions thereof) and remove, blur, or substitute them from the live video stream or 3D data according to privacy settings. The privacy settings may be relative to the location in which the user and computing device are situated. In operation, the computing device may determine the location and then apply the location-specific privacy settings to obfuscate a portion of the video feed while being generated and transmitted.

A disclosed example includes accessing computer-generated impression records, the computer-generated impression records based on network communications received at a server of a database proprietor from client devices, the computer-generated impression records indicative of accesses to media at the client devices; accessing self-reported demographic data and behavioral data from a database of the database proprietor, the self-reported demographic data and the behavioral data corresponding to user accounts registered with the database proprietor and associated with the client devices; comparing the self-reported demographic data with a probability distribution of higher-accuracy demographic data; determining different adjustments for corresponding ones of self-reported demographics of the self-reported demographic data based on the comparison; adjusting the corresponding ones of the self-reported demographics based on corresponding ones of the different adjustments to generate adjusted user demographic data; and assigning the adjusted user demographic data to corresponding ones of the computer-generated impression records.

The technology described herein allows a user to bring phone functionality into a virtual world without disrupting the virtual world experience. For example, the technology described herein enables the user to make and receive calls while in the virtual world, access their contacts, and recent call information. The user may also send and receive text communications. This functionality may be enabled by a phone-sharing application running on a Head Mounted Device (“HMD”) interfacing with the wireless telecommunication network that provides service to the user's telephone (e.g., smartphone). The phone-sharing application can communicate with the telecommunication network to provide notice that the user is actively using the HMD (e.g., in a virtual world). Upon receiving the notice, the telecommunication network can associate the user's telephone number with the HMD to cause communications to be routed to the HMD.

A text analysis processing for detecting computer-generated text is provided. In some cases, a text-based chat interaction may be initiated and analyzed to determine whether the text-based chat generated by a communicating entity is computer-generated. The text of the chat session may be analyzed to evaluate punctuation, use of emojis, spacing, grammar, words, phrases, and the like to determine a further likelihood of whether the text is computer-generated. A duration of the chat session may be used as a scoring factor. The various probabilities and scores may be combined to provide a composite score.

A computer-implemented method for providing correlated randomness for secure multiparty computation using a plurality of computing machines. The method includes: executing a trusted execution environment system; setting up at least one correlated randomness generator in the trusted execution environment system; remote attestation of a single correlated randomness generator by all computing machines or remote attestation of a plurality of correlated randomness generators by in each case one computing machine, injecting in each case at least one secret by all computing machines into a single correlated randomness generator or injecting at least one secret by one computing machine into in each case one correlated randomness generator; checking the injected secrets by the correlated randomness generator(s); generating correlated randomness for the computing machines depending on the injected secrets; distributing the correlated randomness to the computing machines, wherein each computing machine receives only the correlated randomness created for it.

A head-wearable computer system for providing a computer-generated experience.SOLUTION: The head-mountable display device comprises a housing defining a front opening and a rear opening, a display screen disposed in the front opening, a display assembly disposed in the rear opening, a first fastening strap coupled to the housing and including a first electronic component, a second fastening strap coupled to the housing and including a second electronic component, and an anchoring band extending between and coupled to the first fastening strap and the second fastening strap.SELECTED DRAWING: FIG. 1-1A

The present invention relates to a preventive treatment system for neurosensory disorders comprising a vestibular galvanic stimulation device (200) connected to an electrode holder (100) having auricular electrodes powered by electrical signals, and a virtual reality system (10) generating real-time images of animated images viewed by a virtual reality headset that covers the user's eyes to create an immersive experience by displaying computer-generated images that simulate a 3D environment. The electrode holder (100) has two sets of electrodes of two or three electrodes arranged to make contact with the right and left circumauricular areas, each of said sets comprising at least one upper electrode and at least one lower electrode.The system further includes a means of synchronizing the video stream and the galvanic stimulation (300) connected on the one hand to said virtual reality equipment (400) to receive directional information and on the other hand to said galvanic stimulation device (200) to control the generation of stimulation signals according to said directional information, Figure of the abstract: figure 1.