Raymond QuanSeattle, WA

2018021, Aug 2, 2018

Jan 30, 2017

15/419287

- Redmond WA, US
Raymond Quan - Shoreline WA, US
Christian Klein - Duvall WA, US

Microsoft Technology Licensing, LLC - Redmond WA

G06F 3/0483
G06F 1/16
G06F 3/0488
G06F 17/21

Techniques for navigational aid for a hinged device via semantic abstraction are described. Generally, the techniques described herein improve a user experience when the user is navigating through content, such as user-generated content in an electronic document. For example, the techniques described herein semantically abstract authored content in an electronic document to provide abstracted content. In implementations, abstracted content includes abstracted pages that each represent a different section of the authored content. When a user scans through an electronic document, rather than scanning page by page, techniques described herein instead navigate through displays of the abstracted pages. In addition, a hinge between different displays can be used as an input mechanism to control a speed of navigating through the abstracted pages to allow a user to more easily locate specific sections of the authored content

2018011, Apr 26, 2018

Oct 25, 2016

15/333814

- Redmond WA, US
Raymond Quan - Seattle WA, US
Ricardo A. Espinoza Reyes - Redmond WA, US
Gregg Robert Wygonik - Duvall WA, US

Microsoft Technology Licensing, LLC - Richmond WA

G06F 3/0338
G06F 1/16
G06F 3/038
G06F 3/0346

Techniques for input based on interactions with a physical hinge are described. Generally, a new class of interactions involves user manipulation of a physical hinge in order to provide input to a computing device. These hinge-based interactions provide input to a computing system that can be leveraged to initiate one or more system-level commands or operations, initiate transitions between discrete views of content, interact with content displayed via one or more display devices, and so on. In an example, a sequence of two or more consecutive hinge angle changes is recognized as a hinge gesture to perform a particular operation, such as a transition between a single-tasking state and a multitasking state.

2018006, Mar 8, 2018

Sep 6, 2016

15/257179

- Redmond WA, US
Gregg Robert Wygonik - Duvall WA, US
Ricardo A. Espinoza Reyes - Redmond WA, US
Raymond Quan - Seattle WA, US
Sophors Khut - Seattle WA, US

Microsoft Technology Licensing, LLC - Redmond WA

G06F 3/0488
G06F 3/0346
G06F 1/16
G06F 3/0484
G06F 3/041

A gesture language for a device with multiple touch surfaces is described. Generally, a series of new touch input models is described that includes touch input interactions on two disjoint touch-sensitive surfaces. For example, a mobile device can include a primary display on a “front” side of the device, and a secondary display or touch-sensitive surface on the “back” side of the device, such as a surface that is opposite the primary display. Accordingly, the gesture language can include a series of “back touch” interactions with the touch-sensitive surface on the backside of the device. Example interactions include direct and indirect touch input on the back side, as well as simultaneous touch input on both sides of the device.

2016002, Jan 28, 2016

Oct 8, 2015

14/878153

- Redmond WA, US
Dan Hwang - New Castle WA, US
Bo-June Hsu - Woodinville WA, US
Raymond Quan - Seattle WA, US
Eric Badger - Redmond WA, US
Jose Rodriguez - Seattle WA, US
Peter Gregory Davis - Kirkland WA, US

G06F 3/0489
G06F 3/0488

Example apparatus and methods concern controlling a hover-sensitive input/output interface. One example apparatus includes a proximity detector that detects an object in a hover-space associated with the input/output interface. The apparatus produces characterization data concerning the object. The characterization data may be independent of where in the hover-space the object is located. The apparatus selectively controls the activation, display, and deactivation of user interface elements displayed by the apparatus on the input/output interface as a function of the characterization data and interface state. Selectively controlling the activation, display, and deactivation of the user interface elements includes allocating display space on the input/output interface to the user interface elements when they are needed for an operation on the apparatus and selectively reclaiming space on the input/output interface allocated to the user interface elements when they are not needed for an operation on the apparatus.

2015008, Mar 19, 2015

Sep 16, 2013

14/027533

- Redmond WA, US
Dan Hwang - New Castle WA, US
Paul Hsu - Woodinville WA, US
Raymond Quan - Seattle WA, US
Eric Badger - Redmond WA, US
Jose Rodriguez - Seattle WA, US
Peter Gregory Davis - Kirkland WA, US

Microsoft Corporation - Redmond WA

G06F 3/0488

715767, 715773

Example apparatus and methods concern controlling a hover-sensitive input/output interface. One example apparatus includes a proximity detector that detects an object in a hover-space associated with the input/output interface. The apparatus produces characterization data concerning the object. The characterization data may be independent of where in the hover-space the object is located. The apparatus selectively controls the activation, display, and deactivation of user interface elements displayed by the apparatus on the input/output interface as a function of the characterization data and interface state. Selectively controlling the activation, display, and deactivation of the user interface elements includes allocating display space on the input/output interface to the user interface elements when they are needed for an operation on the apparatus and selectively reclaiming space on the input/output interface allocated to the user interface elements when they are not needed for an operation on the apparatus.