Microsoft Technology Licensing, LLC

Scott Mail

Kevin John Smith

Jacob Fleisher

Joseph Kagume Ngari

Michael Winser

David V Esposito

Timothy Carlyle Shaw

Flavio Protasio Ribeiro

Dan Odell

James Charles Marshall

Carl Edward Picciotto

Tejas Mistry

Bradley R Martin

Christian Carl Gadke

Xuezhong Wu

Pavan Davuluri

Glennis E Covington

Francie Judith Zant

Nino Aldrin Lasco Sarmiento

Vadim Dmitriev

Christopher H Kujawski

Daniel G O'Neil

Glen C Larsen

David Michael Lane

Vincent L Ball

Robert D Young

Dan S Johnson

Daniel M Sangster

Samuel A Mann

Michael Schweers

Yuan-Chou Chung

Matthew G Pedersen

Marc Descamp

Dennis Meinhardt

Martyn S Jackson

Niño Aldrin L Sarmiento

Anthony A Torrence

Dan Johnson

Systems and methods of creating a touch sensitive surface structure comprising a piezo structure in communication with a deformable surface such that the piezo structure, or any suitable pressure sensing device, is capable of sensing pressure from a touch upon the deformable surface and communicating that pressure signal to an actuating circuit. The actuating circuit, upon receiving a suitable pressure signal, sends a piezo actuating signal to the piezo structure. The piezo structure, upon receiving the piezo actuating signal, is capable of communicating a mechanical signal to the deformable surface, sufficient for a person's finger to feel a 'click' and/or haptic sensation. In one embodiment, the piezo actuating signal comprises a first slow charging portion and a second fast discharging portion, sufficient for the piezo structure to communicate the click and/or haptic sensation.

Piezo-actuated virtual buttons for touch surfaces

Input device configurations are described. In implementations, an input device includes a sensor substrate having a capacitive sensor to detect proximity of an object that contacts the input device. The input device also includes a flexible contact layer spaced apart from the sensor substrate, where the flexible contact layer is implemented to flex and contact the sensor substrate responsive to pressure applied by the object to initiate an input to a computing device. The flexible contact layer can include a force concentrator pad that is designed to cause pressure to be channeled through the force concentrator pad to cause the flexible contact layer to contact the sensor substrate to initiate the input.

Input device sensor configuration

A computing device and method for managing inputs from a plurality of user input device actuators are provided. The computing device may include code stored in memory for implementing, via a processor, an actuator input module configured to receive a first actuator input from a first user input device actuator, and a second actuator input from a second user input device actuator. The computing device may further execute code to implement a window selection module configured to select a first selected window to which the first actuator input is sent according to predetermined selection rules, to select a second selected window to which the second actuator input is sent according to the predetermined selection rules, and to send the first actuator input to the first selected window and to send the second actuator input to the second selected window.

Managing inputs from a plurality of user input device actuators

Input device configurations are described. In one or more implementations, an input device includes a sensor substrate having one or more conductors and a flexible contact layer spaced apart from the sensor substrate. The flexible contact layer is configured to flex to contact the sensor substrate to initiate an input of a computing device. The flexible contact layer includes a force concentrator pad that is configured to cause pressure to be channeled through the force concentrator pad to cause the flexible contact layer to contact the sensor substrate to initiate the input.

In embodiments of a touch-scrolling pad for computer input devices, a touch sensor strip detects touch contacts on a touch-scrolling pad that is implemented for vertical scrolling input and horizontal scrolling input. A selectable button positioned proximate below the touch sensor strip can be selected by an actuation depress input to the touch-scrolling pad. The touch-scrolling pad includes programmed instructions in firmware implemented to determine that a touch contact is one of a vertical scrolling input, a horizontal scrolling input, or the actuation depress input to actuate the selectable button. The touch-scrolling pad also includes a haptic system that generates haptic feedback responsive to either of the vertical scrolling input or the horizontal scrolling input.

Touch-scrolling pad for computer input devices

A keyboard key has a key portion that forms a cantilevered beam pivotable about an axis. A switch is disposed relative to the cantilevered beam, such that rotation of the cantilever beam about the axis causes depression of the switch. The switch is offset from an applied force-receiving portion of the key portion. A touch sensitive key also includes a touch sensor detecting contact with the key portion of the key. The invention can be extended such that the key portion is formed of transparent or semi-transparent material. The invention can also be extended to include touch sensitive areas on any portion of an upper case of the computer keyboard.

Keyboard with touch sensitive zones and corresponding computer user interface

Methods and systems for controlling access of application programs to an adaptive input device are described herein. One exemplary computing system includes an application programming interface executable on a computing device for controlling said access to an adaptive input device having a plurality of display regions. The application programming interface is configured to receive a display request from one of the application programs to display formatted output on the composite display and is further configured to apply at least a display sharing policy based on application-specific policy settings received from the application program for defining an application-specific area including at least one of the display regions. Further, the application programming interface is configured to generate formatted output based on the application-specific policy settings, and to send the formatted output to the application-specific area for display. The application-specific policy settings include a shared display mode and an exclusive display mode.

Controlling access of application programs to an adaptive 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

Growing community of inventors

Seattle, WA, United States of America

Scott Mail