Microsoft Technology Licensing, LLC

Tableau Software, Inc.

Steven Richard Hollasch

Christopher Hugh Pratley

Brett David Brewer

David Benjamin Lee

Sarah Faulkner

Katrika Marie Morris

Jennifer P Michelstein

Nathaniel George Freier

Ilya Tumanov

Hai Liu

Shobana Balakrishnan

Rodion Degtyar

Raphael Hsieh

Dirk Karis

Jonathan D Que

Chad Garrett Waldman

Bryan Alexander Feddern

Vladimir Kondrashov

Zhengxiao Li

Jimmy Y Sun

Daniel Robert Strebe

Matthew Nathaniel Kenny

Bryan Harold Haber

Ryan Milton Whitley

Aysegul Yeniaras-Kramer

Kent Marten

Roger Bruce Dubbs, Iii

Dan Zheng

Patrick Kenneth McKay

Yang Su

Lauren Lea Jackson

Ashwin Kumar

Jialin Le

John Michael Lounsbery

Sandford L Spinrad

This application is directed to matching edges of polygons representing neighboring regions in a map user application. A computer system obtains a first polygon and a second polygon, and the second polygon is connected to the first polygon via polygon edges that are at least partially mismatched. Automatically and without user intervention, the computer system combines the first polygon and the second polygon to form a joined polygon defined by an outline of the first polygon and the second polygon. A region defined by the second polygon is subtracted from a region defined by the joined polygon to form a new region. The computer system defines an updated first polygon as an outline of the new region and renders, on a screen, the updated first polygon and the second polygon with matching edges.

Polygon edge matching with geometric operations

A method generates map visualizations with multiple map layers. A user selects a data source with geographic data. A device displays a data visualization user interface, including a schema information region with data fields, and shelf regions that defining characteristics for a data visualization. The user selects a first geographic data, and the user interface generates a map data visualization using coordinates associated with the first geographic data field. The visualization includes a first plurality of data marks in a first layer. The user selects a second geographic data field. In response, the user interface displays a new layer icon. Upon activation of the new layer icon by the second geographic data field, the user interface superimposes a second layer over the existing map data visualization to form an updated map data visualization. The second layer includes a second plurality of data marks corresponding to the second geographic data field.

Map data visualizations with multiple superimposed marks layers

Concepts and technologies are described herein for transforming data into consumable content. In accordance with the concepts and technologies disclosed herein, a computing device can execute a transformation engine for transforming data into the consumable content. The computing device can be configured to analyze the data to identify relationships within data elements or other portions of the data. The computing device also can determine a visualization model to apply to the data and to choose a world based upon the determined visualization model. The computing device can obtain rules associated with the selected or chosen world, and can apply the rules to the data to generate the output. In some embodiments, the computing device can be configured to obtain and apply feedback to the output.

Transforming data into consumable content

Concepts and technologies are described herein for creating variations when transforming data into consumable content. In accordance with the concepts and technologies disclosed herein, a computing device can execute a transformation engine for transforming data into the consumable content. The computing device can be configured to analyze the data to identify relationships among data elements or other portions of the data, and to identify any possible approaches to transforming the data ('worlds') based upon the relationships and the data. The worlds can be ranked and selected based upon rank. The computing device can obtain rules associated with the selected and apply the rules to the data to generate the output. In some embodiments, the computing device can be configured to obtain and apply feedback regarding the world selection.

Creating variations when transforming data into consumable content

Ray-intersection methods and apparatus that greatly facilitate processing associated with computer graphics are described. In the described embodiment, a collection of shapes are defined that approximate an object. The described shapes are polygons, with exemplary polygons comprising triangles. A ray is cast toward the approximated object, and a reference object which, in the described embodiment comprises one or more planes, is defined to contain the ray. Aspects of the individual shapes are pre-characterized to provide characteristic data. In the described embodiment, pre-characterization takes place by testing each of the vertices of the polygons to ascertain their position relative to the reference object. The characteristic data is then used to ascertain the position of the shapes that are defined by the vertices, relative to the reference object. This provides a sub-set of shapes that might be intersected by the ray. The sub-set of shapes is then evaluated to ascertain which of the shapes is intersected by the ray.

Computer graphics methods and apparatus for ray intersection

The present invention is directed at a system and method for statically checking source code to determine potential compatibility issues with a new software release. The system and method perform a static check on input source files associated with a software release. The static check includes identifying programming constructs, such as function prototypes, structures, unions, and the like, within source code files associated with the software release. The programming constructs undergo a filtering process that reduces the number of potentially false change errors. The filtered programming constructs are saved in a database associated with the software release. The database is then compared with another database containing programming constructs for another software release in order to identify differences between the two software releases. A list of changes is generated that identifies the differences between the two software releases. These changes are used to identify potential incompatibilities between the two software releases.

System and method for statically checking source code

Growing community of inventors

Redmond, WA, United States of America

Steven Richard Hollasch