Microsoft Technology Licensing, LLC

Michael Schweers

Daniel Clark Park

Karsten Aagaard

Nishant Srinivasan

Benoit Guillaume Henri Rouger

Glen C Larsen

Steven Nabil Bathiche

Andrew David Wilson

Christopher H Kujawski

Anthony Reed

Kurt Jenkins

James Charles Marshall

Carl Edward Picciotto

Scott Mail

Jonathan Bing Knight

Yuan-Chou Chung

David Zucker

Matthew G Pedersen

Martyn S Jackson

Colin Tiyani Anderson

Anthony A Torrence

Niño Aldrin L Sarmiento

The description relates to orientation specific control of computing devices. One example can include an orientation specific actuator for controlling functionality of a computing device. The example can include providing a first functionality related to a first orientation of the computing device in response to engagement of the orientation specific actuator. The example can also include providing a second functionality in response to engagement of the orientation specific actuator in a second orientation of the computing device.

Orientation specific control

An apparatus having a fast drop-off in attraction force between magnets is provided. The apparatus includes a first magnet array having a plurality of magnets with different magnetic field orientations fixedly positioned in a first housing. The apparatus also includes an adjacent magnet assembly relative to the first magnet array and provided in a second housing that includes second and third magnet arrays, each having a plurality of magnets with different magnetic field orientations. The apparatus includes an activation mechanism configured to move the adjacent magnet assembly from at least a first relative position to a second relative position. The adjacent magnet assembly in the second relative position has a second magnetic attraction force with the first magnet array that is substantially reduced as compared to a first magnetic attraction force with the first magnet array in the first relative position. The magnet arrays may define a magnetic fastener controlling opening and/or closing of portions of a device.

Magnetic fastener and hinged device using same

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

Mechanical architecture for providing maximum viewing area on key button tops of keys for a user input device. The viewing area is for the display of information on the key buttons, and also includes tactile feedback similar to standard laptop keyboards, all using low cost manufacturing methods such as injection molding. The architecture optimizes an aperture through the core of the key switch assembly in order to project an image through the aperture and onto the display area of the key button. The architecture relocates in at least one embodiment the tactile feedback mechanism (e.g., dome assembly) out from underneath the key button to the perimeter or side of the key switch assembly. The architecture finds particular application to input devices such as keyboards, game pods, data entry device, etc., that operate in combination with an optical surface (e.g., wedge lens).

Mechanical architecture for display keyboard keys

The convenient recharging of a charge storage device is disclosed. In one embodiment, a system comprises a portable device accessory with a charge storage device holding mechanism and a recharging circuit. The system also comprises a portable device with an interface at which the portable device and the portable device accessory are connectable. A charge storage device-switching mechanism is disposed within the portable device accessory or the portable device. The charge storage device-switching mechanism is actuatable to switch a first charge storage device in the portable device with a second charge storage device in the charge storage device holding mechanism of the portable device accessory by mechanically connecting and/or disconnecting the portable device from the portable device accessory.

Convenient recharging of a charge storage device

Growing community of inventors

Seattle, WA, United States of America

Michael Schweers