Microsoft Technology Licensing, LLC

Honda Motor Co., Ltd.

Matthew Conway

Kenneth Paul Hinckley

Richard S Szeliski

Michael Jack Sinclair

Erik J Hanson

Ross Cameron Miller

Richard Alan Ewing, Jr

George G Robertson

Stephen A Jacquot

Dennis R Proffitt

Maarten Roderik Van Dantzich

Jeffrey Scott Pierce

George G Roberson

According to one or more aspects, a system for vehicle user interface (UI) management includes an interface component, an operation component, a presentation logic, and a rendering component. The interface component may include a display portion located at a first position and an input portion located at a second position different than the first position. The input portion may receive one or more user inputs and include a touch sensitive portion, a first button, and a second button. The operation component may select one or more modes for a UI based on one or more of the user inputs. The presentation logic may generate one or more objects based on a selected mode and presence information associated with one or more of the user inputs. The rendering component may render one or more of the objects to form a composite image at the display portion.

Vehicle user interface (UI) management

A graphical user interface in which object thumbnails are rendered in a three-dimensional environment and which exploits spatial memory. The objects may be moved, continuously, with a two-dimensional input device. Pop-up title bars may be rendered over active objects. Intelligent help may be provided to the user, as visual indicators, based on proximity clustering or based on matching algorithms. The simulated location of the object thumbnails in a direction orthogonal to the surface is based on function, such as a linear, polynomial, or exponential function for example, of one or more object properties, such as number of mouse clicks since selected, age, size, etc.

Methods, apparatus and data structures for providing a user interface to objects, the user interface exploiting spatial memory and visually indicating at least one object parameter

A computer input device and computer system are provided that determine if the input device is at an edge of a pattern on a working surface based on an image of the working surface captured by the input device. An audio control message is generated based on the input device being positioned on the edge of the pattern and the audio control message is used to cause a speaker to generate an audio signal.

Generating audio signals based on input device position

A method and computer input device are provided for controlling a displayed object. Using the method and computer input device, an indication of the amount of rotation and translation of the computer input device is received. A decision is then made as to whether to use the amount of rotation of the computer input device to control a displayed object based on the amount of translation of the computer input device.

Method and apparatus for computer input using six degrees of freedom

A computer input device and computer system are provided that determine a height of the computer input device over a surface. Based on the height, an audio signal generator generates an audio driver signal. The audio driver signal is applied to an audio signal generate that generates an audio signal based on the audio driver signal.

In an input device, a camera captures images of a surface. Using the images, the input device determines its orientation. Data representing the orientation of the input device and data representing the captured image are communicated from the input device to a host computing device.

A computer input device includes a camera for capturing an image of a pattern on a surface. A processor in the computer input device determines equations for lines from the image of the pattern, applies the line equations to a transform to form transformed line equations, and uses the transformed line equations to determine the height of the computer input device above the surface.

A pad for a computer input device includes a top surface over which the input device is slid and a bottom surface, opposite the top surface, for contacting a support surface. The bottom surface having a raised pivot portion allowing movement of the pad about the pivot portion.

A mouse is provided that uses a camera as its input sensor. A real-time vision algorithm determines the six degree-of-freedom mouse posture, consisting of 2D motion, tilt in the forward/back and left/right axes, rotation of the mouse about its vertical axis, and some limited height sensing. Thus, a familiar 2D device can be extended for three-dimensional manipulation, while remaining suitable for standard 2D Graphical User Interface tasks. The invention includes techniques for mouse functionality, 3D manipulation, navigating large 2D spaces, and using the camera for lightweight scanning tasks.

A method and a computer-readable medium are provided for generating an interface in a personal computer system. The method includes is playing a primary view of a three-dimensional environment from the egocentric perspective of a virtual person in the environment. A glancing function is then performed, which provides animated movement of the virtual person's head to reveal a three-dimensional tool space that is normally hidden from view. In one embodiment, the three-dimensional tool space moves with or is linked to the virtual person's body so that it travels through the environment with the virtual person's body. In other embodiments, the tool space is associated with an object in the three-dimensional environment.

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Seattle, WA, United States of America

Matthew Conway