Abstract: A system (and corresponding methodology) by which a user can interact directly with visual data is provided. The system employs associations and relationships between visual data objects to automatically update objects based upon a change in other objects. The innovation also provides specialized controls (e.g., dashboard tools/controls) that facilitate manipulation of visual data. As there can be numerous manners in which a user can interact with visualization data, the innovation enables a specialized set of controls to be identified and provided to a user thereby reducing overwhelming effects of a large number of controls.

Abstract: The described implementations relate to unified application building. In one implementation unified application building tools can include a unifying component model configured to communicate with a set of components that are supported by different frameworks. The unified application building tools can also include a unification engine configured to bind events between individual components in a unified manner that is independent of an individual framework upon which individual components are supported.

Abstract: The claimed subject matter relates to an architecture that can support a declarative model-based approach to designing, constructing, and rendering visualizations. By complying with a declarative descriptor, components can be readily customized by way of modifications to the model—declaratively specifying suitable features, behaviors, appearances and so forth. The descriptors that conform to the model can also facilitate connecting to various data sources and performing data transformation operations. Moreover, the descriptors that conform to the model can declaratively specify relationships based upon a scene layout. Accordingly, the architecture can further describe the scene layout and provide features based upon the layout.

Abstract: A system that can enable the atomization of application functionality in connection with an activity-centric system is provided. The system can be utilized as a programmatic tool that decomposes an application's constituent functionality into atoms thereafter monitoring and aggregating atoms with respect to a particular activity. In doing so, the functionality of the system can be scaled based upon complexity and needs of the activity. Additionally, the system can be employed to monetize the atoms or activity capabilities based upon respective use.

Abstract: A unique monitoring system and method is provided that involves monitoring user activity in order to facilitate managing and optimizing the utilization of various system resources. In particular, the system can monitor user activity, detect when users need assistance with their specific activities, and identify at least one other user that can assist them. Assistance can be in the form of answering questions, providing guidance to the user as the user completes the activity, or completing the activity such as in the case of taking on an assigned activity. In addition, the system can aggregate activity data across users and/or devices. As a result, problems with activity templates or activities themselves can be more readily identified, user performance can be readily compared, and users can communicate and exchange information regarding similar activity experiences. Furthermore, synchronicity and time-sensitive scheduling of activities between users can be facilitated and improved overall.

Abstract: Various types of data can be collected into a data set and related content and/or related concepts across the data in the data set and/or across search histories can be displayed as a visual representation. The related content/concepts can be presented as a function of incremental revealing of relationships. After reviewing the visual representation, a user can customize the data set and relationships by specifically excluding a related data segment. The visual representation can be applied across multiple searches or other obtained data. Through interaction with the visual representation, a user can drill down into common linkages of the data to more narrowly focus on a subset of the data and/or to refocus a search result and/or to provide annotations.

Abstract: A system that can enable the atomization of application functionality in connection with an activity-centric system is provided. The system can be utilized as a programmatic tool that decomposes an application's constituent functionality into atoms thereafter monitoring and aggregating atoms with respect to a particular activity. In doing so, the functionality of the system can be scaled based upon complexity and needs of the activity. Additionally, the system can be employed to monetize the atoms or activity capabilities based upon respective use.

Abstract: A system that can enable the atomization of application functionality in connection with an activity-centric system is provided. The system can be utilized as a programmatic tool that decomposes an application's constituent functionality into atoms thereafter monitoring and aggregating atoms with respect to a particular activity. In doing so, the functionality of the system can be scaled based upon complexity and needs of the activity. Additionally, the system can be employed to monetize the atoms or activity capabilities based upon respective use.

Abstract: A prototyping tool is provided to an artistic team, which can use the tool to experiment with, demonstrate, and communicate aspects of the user interface interaction with various user interface elements. These user interface elements can be defined within a layered graphics representation of the user interface artwork, rather than individual flattened graphics files. By setting properties on individual user interface elements through the prototyping tool, the artistic team can review how the elements will appear and behave during typical interaction with a user. Furthermore, a description of the interaction properties and relationships of these user interface elements, as defined by the artistic team, is captured for communication to a programming team. The programming team can then load the layered graphical representation and the interaction description to implement the user interface interactivity developed and proposed by the artistic team.

Abstract: The described implementations relate to unified application building. In one implementation unified application building tools can include a unifying component model configured to communicate with a set of components that are supported by different frameworks. The unified application building tools can also include a unification engine configured to bind events between individual components in a unified manner that is independent of an individual framework upon which individual components are supported.

Abstract: A system that can automatically narrow the search space or recognition scope within an activity-centric environment based upon a current activity or set of activities is provided. In addition, the activity and context data can also be used to rank the results of the recognition or search activity. In accordance with the domain scoping, natural language processing (NLP) as well as other types of conversion and recognition systems can dynamically adjust to the scope of the activity or group of activities thereby increasing the recognition systems accuracy and usefulness. In operation, a user context, activity context, environment context and/or device profile can be employed to effectuate the scoping. As well, the system can combine context with extrinsic data, including but not limited to, calendar, profile, historical activity data, etc. in order to define the parameters for an appropriate scoping.

Abstract: A “Charting Animator” enhances computer-based charting/graphing systems by rendering dynamic animations of chart transitions. In general, when a user changes from one chart type to another, adds new data to a chart, or changes, sorts or deletes data, a new chart is generated to replace the old chart. Conventional charting systems simply replace the existing chart with the new chart. In contrast to conventional systems, the Charting Animator renders animated transitions that dynamically morph the original chart into the new chart. Consequently, these animations avoid abrupt changes that can disorient users. Examples of these animations include animating changes from one chart family to another (e.g., changing from a “Bar Chart” to a “Pie Chart”), animating changes from one chart type within a chart family to another chart type (e.g., changing 2D Bar Charts to 3D Bar Charts or Stacked Bar Charts), animating data changes, animating sorts, etc.

Abstract: A system that can identify, create, update and/or process a workflow based upon a current, past or future activity is disclosed. A ‘workflow’ can be defined as an activity flow that includes interaction with, or assignment of work to, people, devices, or services by a single individual or a group of individuals. Once a workflow is determined in accordance with the innovation, the system can inform other users or groups that are performing, or intend to perform, a similar or like activity. In establishing the workflow, the innovation can operate in an ad hoc or authored manner. As well, the system can employ a combination of either ad hoc or authored mechanisms in establishment of the workflow.

Abstract: A “Charting Animator” enhances computer-based charting/graphing systems by rendering dynamic animations of chart displays. In general, when a user changes from one chart type to another, adds new data to a chart, or changes, sorts or deletes data, a new chart is generated to replace the old chart. Conventional charting systems simply replace the existing chart with the new chart. In contrast to conventional systems, the Charting Animator renders animated transitions that dynamically morph the original chart into the new chart. Consequently, these animations avoid abrupt changes that can disorient users. Examples of these animations include animating changes from one chart family to another (e.g., changing from a “Bar Chart” to a “Pie Chart”), animating changes from one chart type within a chart family to another chart type (e.g., changing 2D Bar Charts to 3D Bar Charts or Stacked Bar Charts), animating data changes, animating sorts, etc.

Abstract: A method of specifying a visual style for a set of graphical components is provided for use on a computer system having a graphical operating environment. The method includes providing a schema file of available graphical components for which a visual style can be created. In the schema file, each component is defined by a unique class name. The method further includes selecting graphical components from the schema file that are desired to have a defined visual style. Properties are then assigned to these selected components according to the desired visual style, and pairs of selected graphical components and corresponding assigned properties for the defined visual style together are grouped together in a class data file that defines the overall appearance for the defined visual style.

Abstract: Modifications to a collection of data are maintained in chronological order and selectively rendered as a function of time. The selective rendering can include an animated version of the modification, which can include a timeline of events. The modifications can be associated with related data that includes information as to who made the modification, when the modification was made, and so forth. The related data can also include a motivation behind the modification. Further, confidence information can be related to the modification to add further detail to the modifications and events surrounding the collection of data.

Abstract: A system (and corresponding methodology) by which a user can interact directly with visual data is provided. The system employs associations and relationships between visual data objects to automatically update objects based upon a change in other objects. The innovation also provides specialized controls (e.g., dashboard tools/controls) that facilitate manipulation of visual data. As there can be numerous manners in which a user can interact with visualization data, the innovation enables a specialized set of controls to be identified and provided to a user thereby reducing overwhelming effects of a large number of controls.

Abstract: The claimed subject matter relates to an architecture that can support a declarative model-based approach to designing, constructing, and rendering visualizations. By complying with a declarative descriptor, components can be readily customized by way of modifications to the model—declaratively specifying suitable features, behaviors, appearances and so forth. The descriptors that conform to the model can also facilitate connecting to various data sources and performing data transformation operations. Moreover, the descriptors that conform to the model can declaratively specify relationships based upon a scene layout. Accordingly, the architecture can further describe the scene layout and provide features based upon the layout.

Abstract: Various types of data can be collected into a data set and related content and/or related concepts across the data in the data set and/or across search histories can be displayed as a visual representation. The related content/concepts can be presented as a function of incremental revealing of relationships. After reviewing the visual representation, a user can customize the data set and relationships by specifically excluding a related data segment. The visual representation can be applied across multiple searches or other obtained data. Through interaction with the visual representation, a user can drill down into common linkages of the data to more narrowly focus on a subset of the data and/or to refocus a search result and/or to provide annotations.

Abstract: A system that can integrate activities across machines and/or devices is disclosed. The innovation can be used in an “asynchronous” manner that enables a user to move or direct a set of activities and/or tasks within an activity from one device to another. Further, the system can facilitate adapting user interface factors with respect to a particular device such that a user can “synchronously” utilize all devices for the given activities and/or tasks. In other words, the “synchronous” scenario enables a user to share activity information between devices when simultaneously utilizing multiple devices in accordance with a particular activity.