Microsoft Technology Licensing, LLC

Terry A Adams

Hamid Mahmood

Ruurd Johan Boeke

Michael John Hillberg

Sonal Jain

Jesse Bishop

Mikhail Shatalin

Henricus Johannes Maria Meijer

Anders Hejlsberg

Matthew J Warren

Dinesh Chandrakant Kulkarni

Brendan Joseph Clark

Mads Torgersen

Jomo Fisher

Daigo Hamura

Ted G Glaza

Vincent Paul Sibal

Vijay Devatha

Matthew Jake Hohn

David R Keck

A timing function that distributes progressive start times of a series of target animations, or staggers animations, is disclosed. The timing function includes a set of selectable parameters that are used to create a customized staggering animation in the user interface. The set of selectable parameters includes a user interface geometry for each of the target animations.

Staggered animation scheduling

Embodiments are directed to rendering animations in a multi-layered animation system and to rendering an element with an animation that uses multiple levels of animation properties. In one scenario, a computer system establishes an operating system (OS)-specified animation value for at least one property of a user interface (UI) element that is to be animated. The computer system receives a user-specified animation value for at least one property of the UI element that is to be animated and determines, based on the UI element property, how to combine the OS-specified animation value and the user-specified animation value. The computer system then combines the OS-specified animation value and the user-specified value for the UI element in the determined manner and renders the animation for the element using the combined animation values.

Layering animation properties in higher level animations

A computer system determines that various user interface (UI) elements are to be moved to a different position within the UI. The computer system initiates a first animation that creates first and second aliases for each UI element that is to be moved. The computer system then receives an input that interrupts the initiated first animation. The input indicates that at least one of the UI elements that is being moved during the first animation is to be moved to a different position. The computer system then determines which of the first and second aliases is optimal for use as a starting point for a second animation based on various visibility factors, and initiates a second animation at the determined optimal alias. The second animation uses the determined optimal alias as a starting point and a third, different alias as an end point.

Alias selection in multiple-aliased animations

Embodiments are directed to semantically navigating a data collection and to providing custom data mappings for a semantic group of data items. In one scenario, a computer system displays various data items of a data collection on a data presentation interface of a software application user interface. The user interface receives a first user input indicating that a semantic interface is to be displayed in the software application user interface, and displays the semantic interface which includes semantic headers that identify groups of data items. The user interface then receives a second user input that selects at least one of the semantic headers to display its corresponding group of data items and navigates the data presentation interface to the group of data items corresponding to the selected semantic header.

Semantic navigation through object collections

Embodiments are directed to displaying data items in a carousel display panel and to efficiently presenting virtualized data in a carousel display panel. In one example, a computer system accesses a list of data items that include at least a first data item and a last data item which are to be displayed in a carousel display panel. The computer system displays the selected portion of data items in the carousel display panel and receives a user input indicating that the last data item in the list is to be displayed in the carousel display panel. The computer system then rotates the data items displayed in the carousel display panel to the last data item. The last data item is thus displayed, along with at least a portion of a second-to-last data item and the first data item in the list.

Virtualized data presentation in a carousel panel

The subject disclosure relates to applying layout changes and/or animations in a computing system by statically defining unknown visual layout positions of elements within a user interface. Changes that are to be applied to the elements in a user interface are intercepted by mechanism as described herein that applies the changes as a function of a static reusable component. The static reusable component can be applied across various platforms. Animation is performed on a first element as described herein based at least in part on layout input properties of the first element or layout input properties of a second element that is associated with the first element. As additionally described herein, a dynamic graphical layout position can be described based on a definition of an initial layout position and calculation of a resultant layout position, wherein the positions are defined relative to an element or set of elements.

Static definition of unknown visual layout positions

The present invention provides a localization entity in association with a business entity requested by a requester. During instantiation of the requested business entity, a localization event is triggered which causes a policy handler to implement a localization policy to identify localization values (found in the associated localization entity) for attributes in the business entity. The localization values are received from the localization entity associated with the business entity and are placed in the business entity, as localized values.

Localization of data represented by business entities

The subject disclosure pertains to systems and methods that facilitate retrieval of data. In particular, an application defined data shape can regulate loading of data for use in an object relational mapping system, enabling the object-oriented application to access data in a relational data base system. Data shapes define policies that control data retrieval, enabling efficient data loading. A data shape allows users to declaratively specify a set of policies to be applied to all queries associated with the data shape. In particular, data shapes can include policies that control eager loading. In addition, data shapes can also include filtering policies intended to reduce or limit data retrieved from a relational database.

Growing community of inventors

Findley, OH, United States of America

Terry A Adams