Abstract: Technology is disclosed herein that enhances the user experience with presentation programs and the operational aspects of such programs. In an implementation, a presentation program includes a hierarchy of parent slides and child slides in a collection of slides. Navigating from a parent slide to a child slide triggers a contextual zoom-in transition into the child slide. Navigating back to the parent slide from the child slide triggers a contextual zoom-out transition to the parent slide. Other non-limiting examples describe smart slide functionality of an exemplary presentation program. A smart slide is a slide of a slide deck that comprises one or more slide links, which provide an active link to another slide of the slide deck.

Abstract: Interpolating shapes is provided. A first image and a second image are received where the first image and the second image each comprise two-dimensional (2D) shapes. A first grid is automatically created outlining the first image, the first grid comprising a number of points and a number of levels. A second grid is automatically created outlining the second image, the second grid comprising the number of points and the number of levels. The first image is morphed to the second image by moving the number of points from locations in the first grid to corresponding locations in the second grid such that the first image is skewed into the second image.

Abstract: Aspects of the present disclosure provide for determining user input of a presentation. Specifically, aspects disclosed herein provide differentiating between interacting with selectable objects within a slide and scrolling between slides, editing a selectable object within a slide, scrolling between slides, viewing off slide content, zooming out from a slide view, and zooming in to a slide view.

Abstract: Systems and methods are provided for displaying and presenting content. When presenting content in real time, contextual-zoom-focus and/or dynamic-zoom-focus may be placed on selected portions of the content. For example, the content may be zoomed and the selected portions of content may be repositioned to a central area of a display. Additionally, context may be maintained for the selected portions of content by at least partially displaying nearby content. In some cases, portions of content may be displayed in a progressive manner along a selected display path. Accordingly, context for the portions of content may be maintained along the display path. In some cases, placing contextual-zoom-focus and/or dynamic-zoom-focus on portions of content may be animated and the portions of content may perceptively zoom and glide into focus.

Abstract: Systems and methods are provided for displaying and presenting content. When presenting content in real time, contextual-zoom-focus and/or dynamic-zoom-focus may be placed on selected portions of the content. For example, the content may be zoomed and the selected portions of content may be repositioned to a central area of a display. Additionally, context may be maintained for the selected portions of content by at least partially displaying nearby content. In some cases, portions of content may be displayed in a progressive manner along a selected display path. Accordingly, context for the portions of content may be maintained along the display path. In some cases, placing contextual-zoom-focus and/or dynamic-zoom-focus on portions of content may be animated and the portions of content may perceptively zoom and glide into focus.

Abstract: A method is presented for displaying a rendered image on an electronic computing device. The method comprises rendering a first image on the electronic computing device. The first image is rendered on a white background. A second image is rendered on the electronic computing device. The second image is rendered on a black background. The first image, the second image and a background image are combined to produce a third image. The third image is a composite of the first image, the second image and the background image. The third image is displayed on a display screen of the electronic computing device. The third image includes anti-aliasing for a plurality of subpixels of the third image.

Abstract: A method is presented for displaying a rendered image on an electronic computing device. The method comprises rendering a first image on the electronic computing device. The first image is rendered on a white background. A second image is rendered on the electronic computing device. The second image is rendered on a black background. The first image, the second image and a background image are combined to produce a third image. The third image is a composite of the first image, the second image and the background image. The third image is displayed on a display screen of the electronic computing device. The third image includes anti-aliasing for a plurality of subpixels of the third image.

Abstract: Object editing controls may be provided. First, a selection of an object within an electronic document may be received. Then, in response to the received selection of the object, at least one selectable control may be displayed. The at least one selectable control may be configured to provide a set of most commonly used editing controls for editing the selected object. Upon selection of the at least one selectable control, a user interface comprising the set of most commonly used editing controls may be deployed next to the selected object.

Abstract: Techniques are provided for forming one or more animation sequences used in animating a graphic. A semantic model of one or more semantic elements corresponding to content data is received. A presentation model of one or more presentation elements corresponding to objects is received. A set of one or more mappings is determined. The set of one or more mappings includes a mapping of each of said semantic elements to one or more presentation elements. The set of one or more mappings are traversed in an ordering in accordance with a selected animation sequence type specifying a set of objects that animate together. One or more animation sequences are built when performing the traversing step using each of the one or more mappings by applying one or more rules in accordance with a particular classification associated with each of the one or more mappings.

Abstract: Techniques are provided for forming one or more animation sequences used in animating a graphic. A semantic model of one or more semantic elements corresponding to content data is received. A presentation model of one or more presentation elements corresponding to objects is received. A set of one or more mappings is determined. The set of one or more mappings includes a mapping of each of said semantic elements to one or more presentation elements. The set of one or more mappings are traversed in an ordering in accordance with a selected animation sequence type specifying a set of objects that animate together. One or more animation sequences are built when performing the traversing step using each of the one or more mappings by applying one or more rules in accordance with a particular classification associated with each of the one or more mappings.