Microsoft Technology Licensing, LLC

Other

Kevin John Smith

Scott Mail

Jacob Fleisher

Joseph Kagume Ngari

Michael Winser

David V Esposito

Walid Ali

Kandarp Jani

Kurt David Wrisley

Shiwei Wang

Stephen Clifford Cooper

Tolga Kilicli

Robert A Farrow

Vincent L Ball

Robert D Young

Scott Robert Honji

Daniel M Sangster

Samuel A Mann

Eric Boller Fleegal

Richard Shailer Turner, Jr

Xianfeng Tian

Mark Vulfson

Alice Lockhart

Richard Turner

A device may generate a media stream to be shared with other users by building a media graph, comprising a series of interconnected processing units that perform various processing tasks. However, the time involved in generating the media graph may delay the initialization of the media stream, and adjusting properties of the media stream (such as resolution or codec) may result in an interruption of the media stream while a new media graph is built. Instead, a media graph cache may be provided to cache a set of media graphs, which may be interchangeably selected for rapid initialization and adjusting of media stream properties. The media component (e.g., a videocamera) may also be configured to promote rapid adjustments to some media stream properties, while maintaining other properties (e.g., field of view and white balance) for a smooth transition between media stream property sets.

Rapidly initializing and dynamically adjusting media streams

A device may generate a media stream to be shared with other users by building a media graph, comprising a series of interconnected processing units that perform various processing tasks. However, the time involved in generating the media graph may delay the initialization of the media stream, and adjusting properties of the media stream (such as resolution or codec) may result in an interruption of the media stream while a new media graph is built. Instead, a media graph cache may be provided to cache a set of media graphs, which may be interchangeably selected for rapid initialization and adjusting of media stream properties. The media component (e.g., a video camera) may also be configured to promote rapid adjustments to some media stream properties, while maintaining other properties (e.g., field of view and white balance) for a smooth transition between media stream property sets.

A computing system includes one or more input-device user-interface runtime applications to dynamically display images on a dynamic input device. The one or more input-device user-interface runtime applications are executed in a currently active desktop. The computing system further includes a dominant application configured to execute in the currently active desktop. The dominant application is configured to specify an input-device user-interface runtime application corresponding to a current context of the dominant application. The specified input-device user-interface runtime application is configured to dynamically display virtual controls on the dynamic input device. The specified input-device user-interface runtime application is also configured to report activation of the virtual controls to the dominant application.

Contextual control of dynamic input device

A display screen magnifier is controllable by a user to magnify selected portions of a desktop including windows open on the screen. A moveable magnifier frame is provided, within which a magnified image is presented. The magnified image corresponds to screen content located within a magnification region underlying the magnifier frame, magnified to a set level of magnification. In one embodiment, the magnification region is moveable relative to the magnifier frame, in relation to movement of the magnifier frame on the display screen. Such relative movement can be used to avoid a potentially disorienting edge condition that arises when a magnifier frame reaches an edge of the display screen and stops, while its associated magnification region continues to pan. In another embodiment, the cursor of a user input device is moveable across the screen display into and out of the magnification region. When the position of the cursor falls within the magnification region, the cursor appears within the magnified image presented within the magnifier frame. A related feature avoids the potentially disconcerting effect of cursor disappearance as a pointing device cursor passes into a 'lens shadow' defined between the magnification region and the magnifier frame.

Virtual magnifying glass with intuitive use enhancements

A display screen magnifier is controllable by a user to magnify selected portions of a desktop including windows open on the screen. A moveable magnifier frame is provided, within which a magnified image is presented. The magnified image corresponds to screen content located within a magnification region underlying the magnifier frame, magnified to a set level of magnification. The magnifier is controllable through use of a user input device. At least one operational parameter of the magnifier can be adjusted, without interaction with on-screen objects and without taking focus away from the desktop or any windows open on the screen. In a particular embodiment of the invention, on-the-fly controllability of the magnifier includes its activation and deactivation, adjustment of the magnification level, and adjustment of the size of the magnifier frame.

Virtual magnifying glass with on-the fly control functionalities

A method for carrying out application-specific mapping of input device elements (for example, human input device buttons). The method includes, from an application matching program, determining, for an application program, whether a control element event (for example, a mouse button click event) needs to carry out an action that is specific to the application program, or to perform its default action. The application matching program is configured to execute independently of the application program. A computing system that is capable of carrying out the above method is also provided.

Application-specific mapping of input device elements

A portable wheel-about greenhouse is provided formed with a transparent top portion of double wall insulated construction configured to engage in interfitting relationship with a bed portion also formed of double wall construction providing further insulation to said bed thereby. Said transparent cover portion may be positioned in spaced relationship to said bed portion periodically by means of spacer elements positionable at respective corners of the bed and cover members. At least one pair of over-sized wheels are utilized for ease of portability and convenience in transport of said greenhouse from one site to another.

Wheel-about greenhouse

Growing community of inventors

Redmond, WA, United States of America

Kevin John Smith