Microsoft Technology Licensing, LLC

Alexander J Zotov

Reed L Townsend

Steven P Dodge

Richard Jennings Duncan

Bryan Douglas Scott

Zoltan C Szilagyi

David H Massy

Richard John Gardner

Joseph S Beda, Iii

Markus W Mielke

Roderick Adonis Chavez

Christian Fortini

Olumuyiwa M Durojaiye

Robert A Relyea

Anand Ramakrishna

Todd M Landstad

Bulusu Krishna Mohan

Ronald R Martinsen

Stefan Wick

John M Harding

Dave Cox

Kris Markel

Vijayakumar Rangasamy

Steve Dodge

Sameer Shariff

Devices, methods, and computer-readable media process to distinguish user input device gestures, such as gestures input via a pen in a pen-based computing system, e.g., to quickly and reliably distinguish between electronic ink entry, single taps, double taps, press-and-hold actions, dragging operations, and the like. The devices, methods, and computer-readable media process quickly and reliably distinguishes between input device gestures by utilizing a gesture profile that includes a preferential input type, e.g. to preferentially recognize a received input as a first input type over a second input type.

Processing for distinguishing pen gestures and dynamic self-calibration of pen-based computing systems

Systems and methods are provided for controlling the appearance of application windows on a computer display screen. A user identifies either an application window currently running on the computer or a new application to be started. The user also identifies a size, shape, and screen location by inputting a geometric shape, such as by drawing a rectangle with a pen or stylus input device, on the display screen. The appearance of the application window is set based on the geometric shape. The application window is resized and moved, for a currently running application, or created, for a new application, on the display screen.

Controlling application windows in an operating system

A tablet PC having an interactive display, which is touchscreen enabled, may be enhanced to provide a user with superior usability and efficiency. A touchscreen device may be configured to receive multiple concurrent touchscreen contacts. The attributes of the multiple concurrent touchscreen contracts may be mapped to operations performed on the computing device. As a result, a user can trigger the execution of the toggle accessibility aid operation and the screen rotation operation with greater convenience. Moreover, the tablet PC may be configured to map an operation to a hand gesture or input.

Multi-touch uses, gestures, and implementation

Systems, methods, and computer-readable media process and distinguish user input device gestures, such as gestures input via a pen in a pen-based computing system, e.g., to quickly and reliably distinguish between electronic ink entry, single taps, double taps, press-and-hold actions, dragging operations, and the like. Systems, methods, and computer-readable media also are provided for dynamically calibrating a computer system, e.g., calibrating a displayed input panel view based on input data recognized and received by a digitizer. Such systems and methods may operate without entering a dedicated or special calibration application, program, or routine.

A system for enabling a tablet input object is described. A tablet input object can take various inputs from touch, a mouse, and a pen and sends their information to an application or operating system. Also, a pen message pathway may also be used to handle touch messages, thereby reusing an existing pen message pathway for messages created by something other than a pen.

Touch input data handling

Methods and systems for enabling a tablet input object is described. A tablet input object can take various inputs from touch, a mouse, and a pen and send their information to an application.

Methods for allowing applications to filter out or opt into tablet input

A new form of DHTML behaviors, called &#x2dc;Element Behaviors,' wherein a behavior component is bound to an HTML element, and not just attached to the element as with attached behaviors. A special processing instruction is used to import the Element Behavior into a Web page. Upon parsing the Web page, the Element Behavior is initialized as soon as it has been downloaded and parsed. This immediate initialization makes the Element Behavior declaratively available to bind synchronously to the element(s) it is modifying. A viewLink is a feature of Element Behaviors that permits encapsulation of a behavior component file (e.g., an HTC file) so that the structure of the HTC file is transparent to a Web page (&#x2dc;primary document') to which the HTC file is linked, but the content of the HTC file may be displayed in the primary document. The viewLink provides a pointer to the content in the encapsulated HTC file, and renders that content in the primary document, without incorporating the elements of the encapsulated HTC file into the primary document structure.

Method for synchronously binding an external behavior to a web page element

In some embodiments, code can be encapsulated in an external behavior component for affecting the behavior of an element inserted into an HTML document. A reference can be attached to the element in the document to associate the element with the external behavior component. A renderer can parse the element in the HTML document and access the external component to modify a behavior of a page image. For example, the properties or location of a displayed element associated with the external behavior component may be changed on an event, the external behavior component can control user data input, or the external behavior component can draw on the page image. Multiple documents can reuse external behavior components, and an element can be associated with multiple external behavior components. The associations between elements and external behavior components may be maintained in cascading style sheets, inline with the elements, and in various formats.

Dynamic web page behavior

Methods and systems are provided for automatically calibrating a pointing device, such as a stylus, with a writing surface, such as a touch screen. In one example, an automated method is implemented to calibrate the writing surface based user inputs attempting to use the computer for functions other than calibration of the writing surface. The user inputs may be, for example, a user selecting a button within a non-calibration software application. The automated method may generate a miscalibration vector based upon where the user input was received and where the user input was expected. In yet another example, a bias field may be generated for the writing surface from the collected user inputs. In yet other examples, a computing device may comprise computer-executable instructions for performing one or methods of calibrating the writing surface.

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Sammamish, WA, United States of America

Alexander J Zotov