Microsoft Technology Licensing, LLC

Thomas Russo

Leroy B Keely

Robert J Jarrett

David Abzarian

Richard Jennings Duncan

Shawna Julie Davis

Emily K Rimas-Ribikauskas

Zoltan C Szilagyi

Sriram Viji

Ernest L Pennington, Ii

Nidhi Sanghai

Sally Liu

Pak Kiu Chung

Peter I Lee

A computing environment in which devices interoperate with a plurality of hardware components. Inconsistencies in user experience when operating devices that may use different components are avoided by generating a signature for the components. The signature may be computed as a function of a first key and one or more parameter values obtainable from the component. The signature and parameter values may be stored in the component's memory, and may be obtainable while the component is in operation as part of the computing device. The device may validate the component by performing at least one function based on the signature, the one or more parameter values obtainable from the component, and a second key, which may or may not be identical to the first key. The device may change its interaction with the component, depending on whether the component was successfully validated.

Systems for validating hardware devices

System and method of adjusting selection areas of menu options in a menu utilize the frequency of selection of each of the menu options to adjust the size of various selection areas over time. The sizes of menu options or selection areas with relatively high frequency of use may increase, while the sizes of the selection areas of the remaining menu options may decrease. In addition, the size of the menu options may be further adjusted to return to the original arrangement, e.g., in which the size of each of the selection areas is equal or occupies some predetermined area. The user may hold an electronic pen over the menu or select an icon from the menu to resize the selection areas to return to the original arrangement.

Area selectable menus

New ways to organize and search for digital photos are described. Electronic ink may be written on a photo and associated with the photo or only a portion of the photo. The written ink is recognized and stored as photo file metadata. Once photos and/or photo portions have been annotated with ink, the user may search and organize the photos and/or photo portions based on the ink annotations. The user may be presented with search results that include entire photos that are relevant to the search, and/or just those portions of photos that are relevant to the search. In response to a search request, a set of simultaneously displayed search results may be displayed. Alternatively or in addition, an automated slideshow may be implemented, presenting the search results in a sequential fashion.

Searching and indexing of photos based on ink annotations

Methods of selecting a color for an electronic ink are disclosed. A portion of a photograph may be analyzed to determine a representative color value, which may be an average color value for the portion. Depending on the photograph, more than one representative color value may be determined. A color or colors, that may include gradients in brightness or saturation levels, which will be visible on the representative color value or values, may then be determined. A color of the electronic ink is then set to the appropriate color or colors so that when a user inks on a photograph, the ink is visible.

Inking on photographs

Intelligent rearrangement of icons on a desktop in response to changes in desktop size, such as orientation, may be provided using a number of approaches. Desktop area in multiple orientations may be divided into a grid having equal numbers of rows and columns, and placement of icons in each orientation may use common grid coordinates. Icons may alternatively be reflected along a diagonal of desktops in different orientations, such that some icon positional relationships may be maintained. Placement of icons on a desktop may be restricted to a predefined subset region of the desktop, where the subset region will fit in multiple orientations without requiring adjustment. Additionally, areas of a desktop in multiple orientations may be reserved for predefined types of icons, and changes in orientation may result in placement of icons in corresponding reserved areas based on icon attribute.

Smart icon placement across desktop size changes

System and method of adjusting selection areas of menu options in a radial menu utilize the frequency of selection of each of the menu options to adjust the size of various selection areas over time. The sizes of menu options or selection areas with relatively high frequency of use may increase, while the sizes of the selection areas of the remaining menu options may decrease. In addition, the size of the menu options may be further adjusted to return to the original arrangement, e.g., in which the size of each of the selection areas is equal or occupies some predetermined area. The user may hold an electronic pen over the radial menu or select an icon from the radial menu to resize the selection areas to return to the original arrangement.

Area frequency radial menus

A method of adjusting the size of an area to be deleted in a pen-based computing system is provided. An electronic pen may include an eraser end. The eraser end may be used to contact the display surface of a computer system. Application of pressure to the display through the eraser end of the electronic pen may result in the deletion of the text indicated by the position of the electronic pen. As additional pressure is applied, the size of the area to be deleted increases. The invention provided may be used with both pixel type and stroke type erasing systems and provides an efficient and accurate method of deleting electronic ink.

Size variant pressure eraser

Described is a system and method in which pen gestures cause a mode to be entered in which a computing device acts as if a modifier key (e.g., Control, Alt, or Shift) was being pressed. This is accomplished by a pen driver sending a modifier key down to the keyboard and mouse input subsystem. Modifier key behavior is thus provided, including at times when a keyboard is not readily available. While in the modifier key mode, additional gestures can be input, including a gesture that results in the computing device acting as if multiple modifier keys are pressed. Also, while in the mode, visual feedback may be provided to indicate the mode is active. The mode may be exited by sending a corresponding modifier key up, and the exit may be triggered in various ways, including by other gestures, mouse or pen events, and certain keyboard input.

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Seattle, WA, United States of America

Thomas Russo