16 results about "Multiple user interface" patented technology

Systems and methods provide for a multi-modal development environment to receive inputs using a variety of different input modalities in different user interfaces (UIs). Multiple user interfaces may be linked within the development environment to maintain state information so that inputs provided to one UI are represented in the other UIs using an appropriate equivalent representation based on the UI modality. Users of the development environment may select a given UI for interaction based on a desired task and then see changes tracked and relayed through the different UIs to verify changes within the development environment. The UIs may also be contextually linked to permit the user to work between both UIs without losing the context due to the switch.

Methods, systems, and apparatuses for improved quality assurance (QA) are described herein. A computing device may provide a user interface having multiple user interface elements that allow a user of the computing device to interact with a QA system. Each of the user interface elements may be associated with one or more QA tasks for a type(s) of medical equipment. The computing device may receive input from the user via at least one of the user interface elements. The computing device may determine a completion value for at least one of the QA tasks. The computing device may send an update message indicative of the completion value for the at least one QA task.

In devices with multiple user interfaces, such as image forming machines, it was necessary to register a passkey for each user interface, which was cumbersome. [Solution] When a passkey is registered for the remote UI in MFP01 (S1101~S1104), the user is asked to choose whether to use the registered passkey in the local UI as well (S1106). If the user chooses to use it (Yes in S1108), the registered passkey is also registered and associated with the local UI (S1109). Similarly, when a passkey is registered for the local UI, the user is asked to choose whether to use the registered passkey in the remote UI as well. If the user chooses to use it, the registered passkey is also registered and associated with the remote UI.

This application provides an in-device communication method, apparatus, electronic device, and storage medium, executed by a proxy module of a first device. The method includes: receiving a message to be forwarded; in response to the message to be forwarded being a first message forwarded by a frame module of the first device, sending the first message to a corresponding functional module; wherein the frame module is connected to multiple user interface (UI) modules of the first device; the proxy module is connected to multiple functional modules of the first device; in response to the message to be forwarded being a second message from at least one functional module, sending a second message to the frame module; wherein the second message is used by the frame module to forward the message to a corresponding UI module.

A method includes obtaining multiple user interface (UI) elements by a UI generator. A set of descriptors is added to the UI elements. The UI elements are further populated with data values. A UI document including the populated UI elements with descriptors is transmitted to a client application and rendered on a user interface. A prompt is generated based on the descriptors, and the data of the UI elements. The prompt is processed by the LLM to generate an insight based on the prompt. The insight is transmitted to the client application to be rendered on the user interface.

The application relates to a robot control method, an electronic device and a storage medium, and belongs to the technical field of electronic device control. The robot is provided with multiple user interfaces; the method comprises the following steps: acquiring environment information of the robot; determining one user interface in the multiple user interfaces as a target user interface according to the environment information of the robot; and determining the target user interface as a function module for information input or output. The robot body is provided with multiple user interfaces, so that the multiple user interfaces are respectively oriented in multiple different directions. When a user is at different positions relative to the robot, the robot can still determine a target user interface according to the user position, so that the user can conveniently realize man-machine interaction with the robot based on the target user interface, and the interactive experience of the robot and the user is improved.

A system and a method include multiple user interfaces. Different sets of calculations for a flight of an aircraft are configured to be input through the user interfaces. A control unit is in communication with the different user interfaces. The control unit is configured to receive the different sets of calculations for the flight of the aircraft, and compare the different sets of calculations for the flight of the aircraft to determine presence of one or more discrepancies therebetween.

A computing device comprising a memory and one or more processors may be configured to implement various aspects of the techniques. The memory may store an instance of a vehicle operating system, where the instance of the vehicle operating system facilitates concurrent access by multiple user profiles. Tire one or more processors may execute the instance of the vehicle operating system, which is configured to authorize the multiple user profiles to interface with the instance of the vehicle operating system; and present multiple user interfaces across multiple displays communicatively coupled to the vehicle head unit, each of the multiple user interfaces associated with one or more of the multiple user profiles. The multiple user interfaces may interface with multiple users associated with the multiple user profiles to enable the multiple users to interface with the instance of the vehicle operating system and control functionality associated with the vehicle head unit.

An interactive coding environment is provided via an integrated mobile application. The interactive coding environment includes multiple user interface input elements including, but not limited to, a text editor, a virtual keyboard, a virtual autocomplete toolbar, a quick actions toolbar, and a virtual joystick. A user interacts with the coding environment via their user device, such as a mobile device. While coding within the text editor, the user is provided with auto-complete code suggestions and / or code snippets. Suggested inputs are obtained from a predictive model based on the user’s input. A virtual joystick is provided to enable easy navigation within a text document shown within the text editor.

Certain aspects of the disclosure provide a computer-implemented method for managing a multi-sport fantasy application. One aspect includes enabling a user to draft a lineup comprising teams and / or individual players from multiple sports leagues; and displaying multiple user interface pages for navigating and interacting with the application, including a scoreboard page presenting multi-sport scoring information.

A targeting system uses data streamed from a plurality of user interfaces (10). The aiming system includes a digital representation (56) of a real-world environment (14) in which a plurality of said user interfaces (10) are being used by a user (12). Obtaining data from a plurality of said user interfaces (12), the data includes, for each interface, position data representing a position of the user interface (10), orientation data representing a vector of a target axis (26) of the user interface, image data from a camera device (30) directed in a direction extending along the target axis (26), and an activation state of a trigger device (32) of the user interface (10). As a user interface (10) is moved by a user (12) of the user interface (10), a digital representation (56) is continuously updated with a plurality of vectors of a position of the user interface (10) and a target axis (26). The image data is used to determine an arrangement of real-world target objects including a user (12) of the user interface (10) and an arrangement of interventional objects in the real world. A simulated shot (21, 22, 23, 24) is launched by the first user (12) by activating a trigger device (32) of its user interface (10). The aiming system determines whether a path (52) of the simulated shot (21, 22, 23, 24) has passed within a specific distance of a second user (12) of the second user interface (10). This is accomplished based on at least two of image data from the first user interface (10), a vector of a target axis (26) of the first user interface (10), and a relative position of the first user interface and the second user interface (10). The aiming system also simulates the effect of any intervening object (16, 18) on the path (52) of the simulated shot (21, 22, 23, 24) based on the penetrability of the simulated shot (21, 22, 23, 24) and the determination of the properties of the real-world intervening object (16, 18). If it is determined that the path (52) of the simulated shot (21, 22, 23, 24) has passed within a particular distance of the second user (12), the second user (12) receives feedback, such as audible feedback.

A computing device comprising a memory configured to store an instance of a vehicle operating system (“VOS,” where the in stance of the vehicle operating system facilitates concurrent access by multiple user profiles) and processing circuitry configured to execute the instance of the VOS. The VOS may authorize the multiple user profiles to interface with the instance of the vehicle operating system via multiple displays communicatively coupled to the vehicle head unit, and, determine, based on which of the multiple displays with which each of the multiple user profiles interfaced to authorize each of the multiple user profiles, occupant zone identifiers. The VOS may also obtain, based on the occupant zone identifiers, and for each of the multiple user profiles, user experience restrictions, and restrict, via multiple user interfaces presented across the multiple displays by the single instance of the VOS and in accordance with the user experience restrictions, content.

Systems and methods provide for a multi-modal development environment to receive inputs using a variety of different input modalities in different user interfaces (UIs). Multiple user interfaces may be linked within the development environment to maintain state information so that inputs provided to one UI are represented in the other UIs using an appropriate equivalent representation based on the UI modality. Users of the development environment may select a given UI for interaction based on a desired task and then see changes tracked and relayed through the different UIs to verify changes within the development environment. The UIs may also be contextually linked to permit the user to work between both UIs without losing the context due to the switch.

To freely build a system that can operate a highly secure meat auction platform on a global scale. [Solution] The server device 1 is characterized by comprising: a generation unit 516-1 that generates a dashboard for bidders participating across multiple markets via the auction platform 1A to perform a series of operations; a presentation unit 516-2 that presents the dashboard generated by the generation unit 516-1 to multiple data processing devices; and an interface control unit 516-3 that switches between multiple user interfaces that guide bidders to complete a series of transactions based on bidding information in response to a request for the dashboard published on the auction platform 1A from any of the data processing devices.

The invention relates to a method and an engineering system for generating a user interface for a handling and monitoring device of an industrial automation installation. In this case, viable graphical objects of the user interface (Screen) are identified using a generative syntax and on the basis of meta-information relating to the data object, such as an identifier (Tags) of the data object, and then a plurality of viable user interfaces (Screen) are generated from the identified graphical objects, the allocation of the state variables of the graphical object to the data object is then effected for a plurality or all of the generated user interfaces (Screen), then a plurality of the user interfaces (Screen) generated in the third step are selected, the selection being effected on the basis of the number and / or quality of all the allocations of the respective user interfaces (Screen), and the allocation of the state variables of the graphical object to the data object is effected on the basis of the number and / or quality of all the allocations of the respective user interfaces (Screen). Wherein for each assignment of a graphical object to a data object, a degree of matching of the respective state variable with the assigned data object is evaluated, and finally a previously selected user interface (Screen) is proposed or provided for use. The proposed generative syntax for use in defining feasible user interfaces in an engineering system for operating and monitoring devices thus achieves a high degree of flexibility and significantly reduces the workload of relevant personnel responsible for generating user interfaces.