86 results about "Adaptive user interface" patented technology

An intelligent electronic appliance preferably includes a user interface, data input and / or output port, and an intelligent processor. A preferred embodiment comprises a set top box for interacting with broadband media streams, with an adaptive user interface, content-based media processing and / or media metadata processing, and telecommunications integration. An adaptive user interface models the user, by observation, feedback, and / or explicit input, and presents a user interface and / or executes functions based on the user model. A content-based media processing system analyzes media content, for example audio and video, to understand the content, for example to generate content-descriptive metadata. A media metadata processing system operates on locally or remotely generated metadata to process the media in accordance with the metadata, which may be, for example, an electronic program guide, MPEG 7 data, and / or automatically generated format. A set top box preferably includes digital trick play effects, and incorporated digital rights management features.

The present invention relates to an adaptable user interface. The adaptable user interface provides a more error free input function as well as greater ease of use when being used during certain events such as while moving. A user interface in accordance with the principles of the present invention comprises a user input, at least one sensor, and a display unit functionally in communication with the at least one sensor and adapted to change its user interface input mode. The user interface is capable of adapting its user interface input in response to a stimulus sensed by the sensor.

The present invention relates to an adaptable user interface. The adaptable user interface provides a more error free input function as well as greater ease of use when being used during certain events such as while moving. A user interface in accordance with the principles of the present invention comprises a user input, at least one sensor, and a display unit functionally in communication with the at least one sensor and adapted to change its user interface input mode. The user interface is capable of adapting its user interface input in response to a stimulus sensed by the sensor.

A method is provided for semi-automatic operation of a portable control device for a remote-controlled, unmanned vehicle. The method includes the steps of monitoring parameters of an operational environment of the portable control device, switching from a manual operation mode to a semi-automatic operation mode in response to occurrence of predetermined criteria within the operational environment, and presenting a semi-automatic operation graphical user interface to a user of the portable control device. The semi-automatic operation graphical user interface includes a reduced set of user interfaces for the semi-automatic operation mode presented by the portable control device.

Systems and methods for providing adaptive, work-centered healthcare services via an adaptive user interface are provided. An example adaptive user interface apparatus includes a plurality of widgets providing applications and / or data to a user based on a particular data context, the plurality of widgets responsive to input from the user. The apparatus also includes a query engine providing customized query results from a connectivity framework of data sources based on a user query and the particular data context. The apparatus further includes a user interface display area configurable by the user to position widget(s) and query engine access to enable the user to access, input, and search medical information across a healthcare enterprise. The user interface includes an adaptive, work-centered interface employing an ontology modeling approach to characterize the user's workspace based on workflow activities and computation mechanisms to support the user's workflow and access to enterprise applications and data.

According to various embodiments of the present invention, user performance and / or motivation for a computing system may be maximized by optimizing one or more target components of a user interface of the computing system. The target components may be aspects of the user interface that is perceived by the user. One or more input features and one or more output features may be identified, and data regarding these input and output features may be gathered. This data may be compared with the results generated by a set of candidate artificial intelligence algorithms to determine which of them provides the best fit with the data collected. Then, the selected artificial intelligence algorithm may be applied to the user interface to iteratively change the target components over time until the optimal settings for each user are discovered.

An adaptive user interface presented on a heads-up display of an automobile is provided. The adaptive user interface comprises a number of display elements that may be presented in a variety of display states. The display state for each display element is determined based on inputs from a variety of sources (e.g., the automobile).

The present invention relates to a system and methodology providing adaptive user interface capabilities in an industrial control environment. A user interface is provided that can operate across various software and / or hardware platforms. The platforms can be adapted with smart devices and / or wearable devices to facilitate access to a control system and can be adapted as a remote web service and / or adapted to interact with the service. The user interface can be tuned or adjusted in accordance with device capabilities operating the interface and can be adjusted or modified according to various operator or administrative preferences.

A multimodal electronic device (100) includes a shutter enabled dynamic keypad for presenting one of a plurality of keypad configurations to a user. Each keypad configuration, which is presented by an optical shutter (204) that opens or closes windows or shutters that are geometrically configured as alphanumeric or device keys or symbols. Each keypad configuration comprises a plurality of mode based actuators, wherein the plurality of mode based actuators comprises at least a ten-digit keypad actuator set (2000) and a curved scroll device (1903). The optical shutter (204) is a low-resolution display that presents user actuation targets to a user in a low-resolution key area. As each mode of the device changes, the corresponding keypad configuration presented changes accordingly.

A method and apparatus for dynamically adjusting the user interface of a search engine in order to effectively communicate the improved relevancy achieved through real-time implicit re-ranking of search results is described. Real-time implicit re-ranking occurs without delay after every user action as the search is being conducted, so finding methods of immediately altering the search page without disrupting the user experience is important. Graphical icons next to search results are employed to enable generating and removing re-ranked results, referred to as “recommended” search results. Clusters based on the real-time user model are also displayed to facilitate query reformulations. Sponsored links are selected using the real-time user model along with a combination of RPC and CTR information and are displayed in a manner similar to the organic results, or used to replace the initial sponsored links altogether.

An Intelligent Internet system having the capacity to discover, acquire, organize, store, and make accessible knowledge about things of interest to users and to help users more efficiently interact with these things in a rich variety of ways. The Intelligent Internet system provides users with a personalized interface that dynamically adapts to each user's interests and context. This interface provides users with direct access to “knowledge” about things that humans or machines can uniquely sense, recognize, name, understand and interact with, whether real or imagined. Users can access the knowledge stored in the Intelligent Internet system to find, learn about and select products and services; communicate with family, friends, colleagues, classmates, customers and suppliers; learn about things they encounter in their environment, make decisions about them, consume and share content related to them and perform transactions.

A method of activating and displaying a user interface (UI) integrated in an electronic device includes detecting a right-handed or a left-handed grip of the electronic device and activating a right-handed or a left-handed UI responding to the right-handed or left-handed grip. The right handed UI mirrors the left-handed UI.

A multimodal device (100) includes a segmented optical shutter (204) that functions as a morphing user interface along the front surface (105) of the multimodal device (100). The morphing user interface is configured to present one of a plurality of mode-based actuators by selectively opening and closing segments (601,602,603,604) of the segmented optical shutter (204). Each set of mode-based actuators serves as a set of user actuation targets, or keys, for the multimodal device (100). In addition to the mode-based actuators, a brand mark (107,605,606) is presented, perhaps in a keypad region (106), that corresponds to hardware, software, or services that are operational on the multimodal device (100).

Systems and methods are disclosed for alleviating the network congestion inherent in monitoring several million subscribers' usage by incorporating an Information Control Repository (ICR) at the user-level, ideally within the mobile device in the form of a software program. This Micro Intelligent Information Control Repository (MIICR) augments the user profile typically stored in the network-level IICR. The MIICR collects usage information at the user level such as keystrokes, application usage, and other information, and generates a sub-profile that can be stored on the device itself. This sub-profile may consequently be used to provide the user with an enhanced Adaptive User Interface, that dynamically changes based on the usage of the device. Additionally, the sub-profile may be used in conjunction with the network-level user profile stored on the IICR to provide enhanced services customized for the individual user.

Certain embodiments of the present invention provide a method and system for adaptive user interface configuration in a picture archiving and communication environment. Certain embodiments include a user interface configured for execution on a PACS workstation, wherein the user interface presents functionality to a user. The system also includes a registry configured to track usage information for the functionality, wherein the functionality is registered for tracking via the registry. The user interface is reconfigured based on a comparison of the usage information to a threshold. The threshold may include a certain time interval and / or a certain number of uses, for example. The user interface may be reconfigured to hide functionality used less than the threshold, for example. The user interface may be configured to maximize an amount of space available on the user interface for display of images and functionality used more than the threshold, for example.

The present invention provides systems and methods for utilizing sensors of human physical features, ambient conditions, and interfacial behavior for adaptive and friendlier user interfaces for computer applications and communication environments. A user's physical characteristics, for example, age, gender, ergonometric structure and user's interfacial behavior, for example, typing speed, typing error rate and distance from the screen are used to adapt to the user needs and provide more appropriate and fitting interface. In addition, ambient conditions may be considered within the adaptation process.

An adaptive user interface presented on a heads-up display of an automobile is provided. The adaptive user interface comprises a number of display elements that may be presented in a variety of display states. The display state for each display element is determined based on inputs from a variety of sources (e.g., the automobile).

An apparatus, method, and computer program product for providing adaptive user interface elements on display devices are provided. The apparatus includes a processing element configured to provide for a display of an image of a user interface element, where actuation of the user interface element invokes a certain operation. The processing element is also configured to monitor interaction with the user interface element and to provide for a modified image of the user interface element based on the interaction with the respective user interface elements. User interface elements may be modified in various ways to allow a greater portion of the display of the application to be seen and experienced. Furthermore, the interaction may be monitored in different ways, and a user input regarding presentation of the modified image may also be received.

The purpose of this invention is to provide computer or smartphone users with a self-adapting user interface and shortcuts to most frequently used actions (visual or audio).The invention may be applied to menus and to search queries. User has a choice of recent, most frequently used, group, regional or global configuration for either menu or search query defaults. These configurations can be accessed either locally on a disconnected device, synchronized between devices directly or indirectly through a third device such as a local or remote server.The search query can be visually configured to interact with any search engine. The uniqueness of this invention is in access to the last or most frequent uses. The resulting queries can extend from single-term to complex multi-term, multi-range combinations of inclusions and exclusions. The balancing of included search terms with excluded ones helps to eliminate unwanted finds in any database.

A system and method for issuing an instruction includes a parsed hierarchical list including a parent level with parent nodes, and a child level with child nodes. The child level is associated with at least one parent node, each parent node associated with a parent label, the child nodes being associated with a child label. Selectable labels are displayed, each respective label corresponding to a respective parent label with a spatial arrangement corresponding to predetermined criteria. A first label selection is received from an input device and replaced with a second selectable label plurality in a spatial arrangement. Each second selectable label corresponds to a respective child label, the spatial arrangement corresponding to predetermined criteria. A second selection from the second plurality of labels is received from the input device, and an instruction for execution by a computer processor is executed based on the second selection.

A multimodal electronic device (100) includes a shutter enabled dynamic keypad for presenting one of a plurality of keypad configurations to a user. Each keypad configuration, which is presented by an optical shutter (204) that opens or closes windows or shutters that are geometrically configured as alphanumeric or device keys or symbols. Each keypad configuration, in one embodiment, is limited to those needed for the particular mode of operation of the device (100). The optical shutter (204) is a low-resolution display that presents user actuation targets to a user in a low-resolution key area. As each mode of the device changes, the corresponding keypad configuration presented changes accordingly.

Adaptive user interfaces and techniques therefor are provided. In accordance with one example, a method includes, at an electronic device having a display: displaying, on the display, a first user interface comprising a first affordance associated with a first function; receiving a first user input corresponding to a request to display a second affordance associated with a second function; in response to the first user input, displaying the second affordance; receiving a second user input corresponding to a selection of the second affordance; in response to the second user input: performing the second function; and displaying a second user interface comprising the first affordance and the second affordance.

Methods and system for adapting user interfaces are proposed. According to certain embodiments, a user experience level is determined based on usage of a software application and other detected factors. Based on the user experience level, at least in part, a user interface is adapted to provide an improved experience for the user of the adaptive user interface.

A method for operating a plurality of user interfaces coupled to a plurality of medical devices through a communication network is provided. The method includes performing medical diagnostics on a patient using at least two of the plurality of medical devices, wherein the user interface is configured to control the at least two of the plurality of medical devices, and displaying a result of the medical diagnostics on at least one of the plurality of user interfaces.

An image formation and production system provides improved capabilities for producing background separated product images for print and on-line display. The image formation system provides lighting of a product to facilitate acquiring images that can be automatically processed to generate high resolution item-only images free of quality defects and imaging artifacts. Image processing programs accurately detect an outline of an item in a set of digital images taken using the image formation system and automatically store processed images in an image library. The images in the library may be repurposed for print, sales display, transmission to a user, on-line customer support, and the like. A user display configured with an adaptable user interface facilitates user interaction with images in the library. An interactive user interface and image library facilitates automatically producing sets of background separated images.

Provided is a user interface automatic transform system and method based on a display device. The system includes: a graphic user interface (GUI) managing unit for storing and managing style information of the display device and managing mapping information of a GUI library; a transform rule managing unit for storing and managing a transform rule; a user interface database managing unit for storing and managing an original user interface; a renderer agent managing unit for creating an agent for communication with the display device; an authoring agent managing unit for creating an agent for communication with the authoring tool; and a transform unit for creating an adaptive user interface.

A method for controlling configuration display screens within a client-host multi-source system, including transferring look & feel parameters from a host device to a client device, setting parameters of a configuration program for the client device, according to the look & feel parameters transferred by the transferring, generating, by the configuration program, a graphic image of a screen, the graphic image conforming to the look & feel parameters, and displaying the graphic image on a display screen of the host device. A system and a computer-readable storage medium are also described and claimed.

According to various embodiments, user performance and / or motivation for a computing system may be maximized by optimizing one or more target components of a user interface of the computing system. The target components may be aspects of the user interface that is perceived by the user. One or more input features and one or more output features may be identified, and data regarding these input and output features may be gathered. This data may be compared with the results generated by a set of candidate artificial intelligence algorithms to determine which of them provides the best fit with the data collected. Then, the selected artificial intelligence algorithm may be applied to the user interface to iteratively change the target components over time until the optimal settings for each user are discovered.

An adaptive user interface device capable of implementing multiple modes of input and configuration may adapt to current user inputs, and may include configuration changes. In an aspect, an adaptive user interface device may be configured for a finger sensing in a touchpad mode, and configured for stylus sensing in a digital tablet mode. In another aspect, surface features of the adaptive user interface device may change shape, such as by raising buttons in response to entering a keyboard or keypad mode. Various mechanisms may be used for raising buttons, and may enable presenting buttons in a variety of shapes and locations on the interface. The configuration of the adaptive user interface device may depend upon the user actions and user identity. Configuration modes may be organized according to many levels enabling a single user interface to support a large number of input options functionality within a limited surface area.