Microsoft Technology Licensing, LLC

Autodesk, Inc.

William Buxton

George William Fitzmaurice

Michel Pahud

Gordon P Kurtenbach

Robert J Pieke

Kenneth Paul Hinckley

Zhengyou Zhang

Alejandro Acero

Eyal Ofek

Stephen Edward Hodges

Christian F Huitema

Ross Garrett Cutler

Shahram Izadi

Jason Garms

Dinei A Florencio

David Alexander Butler

Daniel Allen Rosenfeld

Kori Marie Quinn

Sharon Kay Cunnington

Malcolm Hall

Andrew M Webb

Phillip A Chou

In general, the multi-touch detection implementations described herein use touch detection technologies to provide new and advantageous interactions between users and touch displays using touch, pens and user-wearable devices (UWDs). These new and advantageous interactions include user-associated mobile menus, combined click-through and radial marking menus, menus to automate and improve drawing or manipulation of content on a display, new menus and methods of selecting objects and text on a display, and new interactions with UWDs and touchscreen displays by using UWDs with gestures. In addition, targeted haptic feedback to the UWD of specific users of a display is enabled. In some multi-touch detection implementations menus or tools available to act on object on a display can be ported entirely, or in part, between displays, such as between small and large displays.

Applications for multi-touch input detection

A sensing device, such as a user-wearable device (UWD) worn by a user of a touchscreen, may provide kinematic data of the sensing device or UWD and/or identification data of the user to a processor that operates the touchscreen. Such data may allow the processor to perform a number of user-touchscreen interactions, such as displaying user-specific windows or menus, processing user-manipulation of displayed objects, and determining which hand of a user performs a touch event, just to name a few examples.

Application programming interface for multi-touch input detection

The disclosed pen-mouse is a tracking menu that tracks the position of the pen. A pen cursor that corresponds to the pen is moved about within the pen-mouse graphic by the pen and the pen-mouse remains stationary. The pen-mouse is moved when the location of the pen encounters a tracking boundary of the pen-mouse. The tracking boundary coincides with the graphic representing the mouse. While moving within the pen-mouse, the pen can select objects within the pen-mouse body, such as buttons, wheels, etc. The selection of a button or other virtual control causes a corresponding computer mouse button function to be executed. The execution is directed at any object designated by a pen-mouse tracking symbol, such as an arrow, that is part of the pen mouse graphic. The pen-mouse emulates functions or operations of a mouse including single button clicks, double button clicks, finger wheels, track balls, etc.

Pen-mouse system

The present invention is a system that provides a pen based computer user with a graphical user interface tool, a pen-mouse, that looks like and functions like a mouse but that is controlled by a limited input device such as a pen or stylus of the pen based computer. The pen-mouse is a tracking menu that tracks the position of the pen. A pen cursor that corresponds to the pen is allowed to be moved about within the pen-mouse graphic by the pen and the pen-mouse remains stationary. The pen-mouse is moved when the location of the pen encounters a tracking boundary of the pen-mouse. The tracking boundary typically coincides with the graphic representing the mouse. While moving within the pen-mouse, the pen can select objects within the pen-mouse body, such as buttons, wheels, etc. The selection of a button or other virtual control causes a corresponding computer mouse button function to be executed. The execution focus is directed at any object designated by a pen-mouse tracking symbol, such as an arrow, that is part of the pen mouse graphic. The pen-mouse can emulate functions or operations of a mouse including single button clicks, double button clicks, finger wheels, track balls, etc.

Font animation technique embodiments are presented which animate alpha-numeric characters of a message or document. In one general embodiment this is accomplished by the sender transmitting parametric information and animation instructions pertaining to the display of characters found in the message or document to a recipient. The parametric information identifies where to split the characters and where to rotate the resulting sections. The sections of each character affected are then translated and/or rotated and/or scaled as dictated by the animation instructions to create an animation over time. Additionally, if a gap in a stroke of an animated character exists between the sections of the character, a connecting section is displayed to close the stroke gap making the character appears contiguous.

Parametric font animation

The claimed subject matter relates to an architecture that can preprocess audio portions of communications in order to enrich multiparty communication sessions or environments. In particular, the architecture can provide both a public channel for public communications that are received by substantially all connected parties and can further provide a private channel for private communications that are received by a selected subset of all connected parties. Most particularly, the architecture can apply an audio transform to communications that occur during the multiparty communication session based upon a target audience of the communication. By way of illustration, the architecture can apply a whisper transform to private communications, an emotion transform based upon relationships, an ambience or spatial transform based upon physical locations, or a pace transform based upon lack of presence.

Audio transforms in connection with multiparty communication

Methods and apparatus for uniquely identifying wireless devices in close physical proximity are described. When two wireless devices are brought into close proximity, one of the devices displays an optical indicator, such as a light pattern. This device then sends messages to other devices which are within wireless range to cause them to use any light sensor to detect a signal. In an embodiment, the light sensor is a camera and the detected signal is an image captured by the camera. Each device then sends data identifying what was detected back to the device displaying the pattern. By analyzing this data, the first device can determine which other device detected the indicator that it displayed and therefore determine that this device is in close physical proximity to it. In an example, the first device is an interactive surface arranged to identify the wireless addresses of devices which are placed on the surface.

Unique identification of devices using color detection

Growing community of inventors

Toronto, Canada

William Buxton