Microsoft Technology Licensing, LLC

Barry Christopher Allyn

Tyler Robert Adams

Kurt William Berglund

Daniel J Clay

Benjamin Edward Rampson

Brian Scott Ruble

Michael I Borysenko

B Scott Ruble

Mark Nelson

Peter Christopher Mullen

Dan Albertson

Craig L Daw

Warren Leung

Benjamin Triet-Minh Nguyen

Qijin Zhou

Evan F B Moran

Mert Ussakli

Daniel Cory

Marcus Eduardo Markiewicz

Matthew John Androski

Michael Joe Woolf

Randall L Davis

Andrew John Verprauskus

Peter H Hufnagel

Anthony Joseph Beeman

Daniel Richard Albertson

Eric Wyld Lieberman

Chris Becker

Dan R Albertson

Various embodiments discussed herein enable unique identifiers or hash values to be generated that uniquely identify performance issues and associated call stack units, which may be attributed to a user or team of users. A performance issue for a currently running process can be detected. A particular location within a call stack of the process indicating where the performance issue was detected can be determined. A quantity of call stack frames within the particular location that account for a threshold proportion of the performance issue can be determined. A hash value that uniquely identifies the performance issued can be generated based at least in part on the particular location and the quantity of call stack frames within the particular location that account for the threshold proportion of the performance issue.

Generating and attributing unique identifiers representing performance issues within a call stack

Various embodiments discussed herein enable intelligent resource leak detection and associated user interface. In some aspects, if a kernel sends a tracing event (e.g., an ETW event) after a process or application has been requested to be shut down but before the process has actually been shut down, a resource leak can be detected. This is because the application should have requested the reference indicator to be removed in memory before the tracing event, as opposed to the kernel acting alone without an application request to remove the reference indicator. If a reference indicator has not been requested to be removed by the time this tracing event occurs, then it is indicative of the application never having sent a request to remove the reference indicator, which is indicative of a resource leak.

Computer resource leak detection

Server-side chart layout for web applications is provided. Output of a server-side layout engine is exposed on the web via a server-side web service and a client-side web player that communicates with the web service. The web player is operative to send chart definitions to the web service, and receive a scene graph of a resultant chart layout. The scene graph includes normalized and annotated information to draw the chart, animate transitions, implement interactivities, and provide standardized accessibility locally within a web client. Aspects enable chart fidelity across native and browser endpoints, and provide faster chart load and render performance that is unaffected by growth of data size or expansions in provided chart features.

Server-side chart layout for interactive web application charts

Maintaining an application for deployment across platforms requires significant engineering effort and an expanded code base, especially when dealing with different input types from the host platforms. To reduce the computational expenses and improve the standardization of the user interface, systems and methods are provided to recognize gestures in a platform agnostic code architecture, which may be deployed on multiple platforms with different input and output methodologies to provide a consistent user experience with a smaller code base to install on those platforms and to maintain. Individual platforms may tailor the size of the architecture to meet their deployment needs and the architecture may be updated independently of the client logic of various applications.

Cross-platform interactivity architecture

A data visualization platform architecture that enables building of a data visualization via a one-directional chain of separate stages is provided, wherein each stage has a simple input interface and output interface. The staging of the architecture enables the data visualization to be provisioned while using fewer system resources and for additional behaviors to be applied to the visualization. Such behaviors include: transforming data from an arbitrary format, modular updates to data visualizations, client-independent operation, reduced-cost updating and extension of the platform, reduced-cost animations, etc. Aspects of the data visualization platform streamline and optimize the performance of a computing device that provides a data visualization.

Data visualization architecture

Morphing animations between arbitrary chart states in a web client application are provided. A morphing animation engine interpolates changes between a first output state (before geometry) and a second output state (after geometry), aligning the before and after geometries by semantic identifiers encoded in the geometry. The morphing animation engine further performs simple geometric transitions of geometric primitives for producing an unlimited number of intermediate states (key frames) between any two arbitrary chart states without requiring per frame layouts. According to an aspect, processing times for producing intermediate frames are minimized, allowing for animations to have consistent rendering and achieving a high frame rate (60 FPS).

Morphing chart animations in a browser

Generating a chart-type agnostic data structure for defining a chart for use in chart rendering, animation, interactivity, and accessibility via a web client is provided. Aspects of a charting system are operative to represent output of a server-side chart layout engine in a data structure that can transmitted to and consumed by the web client for rendering an interactive chart. For example, aspects of the charting system enable for chart layout and chart rendering to exist separately, providing efficient chart layout and preventing external exposure of chart layout code.

Chart-type agnostic scene graph for defining a chart

Systems and methods for associating geometry with contextual information are provided. Contextual information includes metadata about the geometry used to represent data in a visualization to improve the functioning of a device providing the visualization. Improved functioning of the device providing the visualization includes providing new features, and more efficient use of device resources for executing legacy features. Annotations may be made via escapes present in the definition of the geometry to be rendered, which are operable to bind portions of the geometry to the represented data. According to aspects, binding data to geometry improves how the visualization is rendered and improves how portions of the geometry are called out for formatting or interactivity. According to aspects, escapes may be ignored, such that their presence does not affect how the geometry is rendered.

Annotated geometry

A computer system that assists the user of computer drawing programs to accurately place new objects on a drawing is described. The system establishes and displays dynamic gridlines according to objects already placed on the drawing. As a new object is dragged for placement on the drawing, the system analyzes the areas around the new object for already-placed objects. The system then determines the spacing between the already-placed objects and indicates to the user where the dragged object should be placed to maintain the same spacing as the objects already placed on the drawing.

Establishing and displaying dynamic grids

A platform extensibility framework may be provided. A visualization platform may register feature extensions and receive requests to create objects. The objects may be created according to drawing instructions provided by the visualization platform, an application requesting the object's creation, and/or at least one of the feature extensions.

Platform extensibility framework

Animation of computer-generated display components of user interfaces and content items is provided. An animation application or engine creates images of individual display components (e.g., bitmap images) and places those images on animation layers. Animation behaviors may be specified for the layers to indicate how the layers and associated display component images animate or behave when their properties change (e.g., a movement of an object contained on a layer), as well as, to change properties on layers in order to trigger animations (e.g., an animation that causes an object to rotate). In order to achieve high animation frame rates, the animation application may utilize three processing threads, including a user interface thread, a compositor thread and a rendering thread. Display behavior may be optimized and controlled by utilizing a declarative markup language, such as the Extensible Markup Language, for defining display behavior functionality and properties.

Animation of computer-generated display components of user interfaces and content items

Animations may cross different windows. These cross window animations may include interwindow animations and/or window transition animations. Interwindow animations are used to animate elements across windows. Window transitions are used to animate moving/resizing/showing/hiding windows simultaneously. To perform these animations, an overlay window covers the animation area that includes at least a portion of two different windows. Layers may be used to represent images or visual elements that can be moved as part of an animation. These layers may be placed in the animation overlay window to move visual elements across the underlying windows. Supported underlying windows are directed to draw content directly to the overlay window during the animation. A picture of the underlying window is drawn to the animation overlay window when the underlying window is not-supported such that the underlying window is included within the animation. When the animation is complete, the animation overlay window is removed.

Cross window animation

Memory storage and processing for idle computer-generated graphical display components are discarded for conserving memory capacity, processing resources and power consumption. If a computer-generated display frame goes idle for a prescribed duration, for example, 30 seconds, wherein no user action or processor action is performed on the idle display frame, stored data representing the idle display frame is discarded from memory and processing for the idle display component is ceased, thus conserving memory space, processing resources and power consumption (e.g., battery power). If the discarded display frame becomes active again, its discarded resources may be recreated. Alternatively, an idle display component may be passed to a separate application and may be reclaimed by a requiring application when the idle display component becomes active again.

Discarding idle graphical display components from memory and processing

Rendering electronic chart objects is provided. A set of chart elements having a common set of properties is identified. Formatting attributes of the chart elements and the data point locations for each chart element are also identified. Path information is generated for the chart elements that includes the formatting attributes and the data point locations. The path information is provided to a rendering engine that renders a chart element. Each chart element in the set is displayed on a display screen. Chart elements having a common set of properties are only rendered once. Alternatively, chart objects are rendered by generating and storing an image of chart objects having a common geometry and common properties and by copying the stored image to each data point location. Dynamic selection of rendering engines based on property and performance criteria may be utilized to enhance rendering performance.

Rendering electronic chart objects

Technologies are described herein for providing a dynamic preview of diagram elements to be inserted into a flowchart or other diagram. Through the use of the embodiments presented herein, a diagramming application program displays a preview of diagram elements to be inserted into a diagram by an element insertion control on a drawing canvas when a cursor is placed over the element insertion control for threshold period of time. The preview is displayed until the mouse cursor is moved away from the element insertion control or the element insertion control is selected.

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Snohomish, WA, United States of America

Barry Christopher Allyn