Microsoft Technology Licensing, LLC

Other

Tyler Robert Adams

Christopher D Edwards

Melissa Susan Kerr

Michael I Borysenko

Teresa Thomas

Michael Jay Gilmore

Christopher Michael Maloney

Barry Christopher Allyn

Daniel Yancy Parish

Thomas Nhan

Stephanie Horn

Alexandre Gueniot

Jie Li

Onur Onder

Emily Tran

Matthew William Kernek

Constance Worsfold Gervais

Josh Leong

Ramya Tridandapani

Thomas R Mignone

Heather Joanne Alekson

Bharat Kumar Ahuja

Garrett William Brown

Eric Minghai Gao

Adam Ross Le Doux

Jordan Krissi

Michael Alexander Fuller

Chris Welman

Keri Talbot

Mark E Pearson

Jonathan Seth Kaufthal

Jonathan D Esterly

Brent Gilbert

Adam Friedman

Marcos David Marin Amador

Gregory Alan Lewis

Warren Leung

Benjamin R Howell

Benjamin D Haynes

Tucker Hatfield

Tony J Beeman

L Tucker Hatfield

Peter Frem

Galen Michael Elias

Kimberly Shay Koenig

Anthony Joseph Beeman

Eric Wyld Lieberman

Systems, methods, apparatuses, and software for touch input systems in computing environments are provided herein. In one example, an interaction service positioned logically between an operating system and an application is provided. The interaction service directs a processing system to receive a call from the application referencing an interaction class to attach to an object in a user interface used for the application, wherein the interaction class comprises a set of declarative statements. The interaction class attaches to the object in the user interface. A user input is then identified to the operating system associated with the object. In response to the user input, the interaction service determines which one of the declarative statements corresponds to the user input. The one of the declarative statements is then executed to call corresponding native code that performs an action with respect to the object.

Touch application programming interfaces

A three-dimensional model can be presented in a two-dimensional digital canvas on a computer display. User input directed at the three-dimensional model in the two-dimensional canvas can be received. The three-dimensional model can be manipulated in response to the user input. A two-dimensional view of the three-dimensional model can be displayed. Corresponding data structures for the model, the canvas, and the two-dimensional objects in the data structure can be maintained and updated. One or more additional techniques can also be utilized in a computer system, such as continuous user-controlled model rotation in a two-dimensional canvas; viewport autofit and non-autofit modes; rotating the model around a camera look-at point; ghosting outside the viewport; normalizing modeling units and values; preset buttons with on-button previews; user-defined view presets; and/or two-dimensional image substitution.

Three-dimensional digital models in two-dimensional digital canvases

Systems, methods, and software are disclosed herein that enhance drawing technology in application user interfaces. In an implementation, a guide object is disclosed herein that allows a user to draw against the guide object, position other objects against, and otherwise interact with the guide object as-if it were a stencil. The guide object may be presented as a drawing tool in a user interface to an application that a user may invoke by user input to assist with the creation of content on a canvas. As a line is drawn proximate to the guide object, for example, or as a shape is positioned nearby the guide object, the application obtains guidance information from the guide object that allows the application to render the interaction between line or shape and the guide object as-if it were an actual stencil.

Guide objects for drawing in user interfaces

Three-dimensional digital modeling with two-dimensional canvas

Smooth animation effects during zooming are provided by retaining content displayed at a previous zoom level. If the zoom operation is a zoom out operation, new content is stretched to a current zoom level, aligned with the retained content, and placed underneath it. If the zoom operation is a zoom in operation, new content is scaled down to the current zoom level, aligned with the retained content, and displayed on top of the retained content. The new content is then zoomed with the retained content. The retained content is then deleted. When zooming out, the retained content fades out. When zooming in, the new content fades in. Smooth scrolling animation is also provided by pre-rendering a portion of content and teleporting to a final viewport position and thereby skipping over blank content.

Animations for scroll and zoom

Three-dimensional model look-at-point rotation and viewport modes

Systems, methods, and software are disclosed herein for supporting reversible ink in a user interface to an application. In an implementation, an application receives inking input on a canvas in a user interface to the application. The application renders ink on the canvas along a path taken by the inking input and monitors for the inking input to reverse direction along the path. In response to the inking input reversing the direction along the path, the application erases at least a portion of the ink from the canvas.

Reversible digital ink for inking application user interfaces

Systems, methods, apparatuses, and software for touch input systems in computing environments are provided herein. In one example, an interaction service positioned logically between an operating system and an application is provided. The interaction service directs a processing system to receive a call from the application referencing an interaction class to attach to a layer in a user interface used for the application, attach the interaction class to the layer in the user interface, listen to the operating system for user input occurring with respect to the layer, and determine per the interaction class what actions to perform in response to the user input.

Many devices present a cursor on a display. In order to facilitate the user's visual identification and tracking of the location of the cursor, the device may present the cursor with many visual variations, such as blinking the cursor, or selecting colors for the cursor that contrast with the background. However, these techniques may only marginally increase the visibility of the cursor in some circumstances, and/or may appear visually unappealing to the user. Presented herein are techniques for presenting a cursor on the display as a first cursor layer in a first cursor color that blends with the background color, and, under the first layer, a second cursor layer in a contrasting cursor color with respect to the first cursor color and the background. The device may also periodically remove the first layer to display the contrasting second layer and to indicate the location of the cursor to the user.

Contrast-oriented cursor presentation

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

A touchless water control system having at least one sensor capable of determining hand movement from point A to point B in a first direction, from point C to point D in a second direction and from point E to point F in a third direction thereby establishing a spatial field spaced away from a faucet through which a user's hand can be moved to initiate or terminate water flow, water temperature and water pressure.

Spatially reactive water system incorporating a non tactile control module

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

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Seattle, WA, United States of America

Tyler Robert Adams