Intel Corporation

Murali Veeramoney

Hong W Wong

Arvind A Kumar

Prosenjit Ghosh

Denica N Larsen

Jim Okuley

Gregory Germe

Martin Bone

Roger A Hurwitz

Scott D Boss

Wah Yiu Kwong

Michael D Rosenzweig

James R Trethewey

Anthony Kozaczuk

Stephen H Hall, Jr

Kevin Joseph Doran

Daniel R Cox

Mark R Leavy

Vijay M Rao

James A Larson

Royce Fernald

Greg D Kaine

T V Raman

Karen Stafford

Bob Davies

Scott Colville

Mike Rosenweig

Computer notebook

This disclosure is directed to a system to provide tactile feedback during non-contact interaction. A system may comprise at least display circuitry, sensing circuitry, tactile feedback circuitry and processing circuitry. The processing circuitry may cause the display circuitry to present a user interface. The sensing circuitry may sense when a body part of a user (e.g., a hand, a finger, etc.) is proximate to the user interface and may generate position data based on a sensed position of the body part. The processing circuitry may determine a relative position of the body part with respect to the user interface based on the position data, and may determine if the body part is interacting with the user interface based on the relative position. If it is determined that the body part is interacting with the user interface, the processing circuitry may cause the tactile feedback circuitry to generate directional feedback.

System to provide tactile feedback during non-contact interaction

A computing device is described. The computing device a processor, a bus coupled to the processor, a graphics display device, coupled to the bus, to display graphics data, an interactive display device, coupled to the bus, to display bitmap image data and a manager module to manage the bitmap image data and transmit the bitmap image data to the interactive display device.

Secondary display mechanism

Particular embodiments described herein provide for an electronic device, such as a notebook computer or laptop, that includes including a base portion and a keyboard assembly at least partially disposed in the base portion. The keyboard assembly may include a first portion having at least a first key of a first thickness, and a second portion having at least a second key of a second thickness. The first thickness is different than the second thickness. In a particular embodiment, the first thickness is less than the second thickness. In a particular embodiment, the first portion includes a key row of the keyboard assembly. In still another more particular embodiment, the first portion is a top key row of the keyboard assembly. In still another more particular embodiment, the first portion is a bottom key row of the keyboard assembly. In particular embodiments, a reduced thickness of the first portion may provide for additional space within the base portion to allow other components to be located therein.

Keyboard configuration for an electronic device

A telephone access system which provides remote access and communication with a computer through a telephone handset. The system provides audio instructions to the user to select between a plurality of audio dialogs. The audio dialogs may provide access to voice mail, electronic mail, a file manager (documents, databases, etc.) and facsimiles all stored within the computer. Once within an audio dialog, the system provides a series of instructions which allows the user to manipulate the information stored within the computer. For example, the system may allow the user to listen to a message received through electronic mail and then reply to the message. The system may also allow the user to remotely listen to the text of a document and FAX the document to a location remote from the computer.

Telephone access system for accessing a computer through a telephone

A real-time media driver for scheduling and mixing media in a multimedia environment. Implemented to operate in conjunction with a non-real-time operating system, the real-time media driver comprises a wave driver which controls a predominant percentage of the operations of the media hardware device and a mini-device driver which is software provided by the vendor of the media hardware device to support functions unique to the particular media hardware device. Furthermore, the real-time media driver comprises a media scheduler which (i) synchronizes multiple media streams prior to being input into a mixing/splitting device of the media scheduler; (ii) allows reconfiguration of attributes of media streams without loss of content prior to and after operations by the mixing/splitting device; and (iii) appropriately mixes media to produce multi-channel media according to a certain 'prioritized sharing' policies.

Method and apparatus for scheduling and mixing media in a multi-media

Growing community of inventors

Beaverton, OR, United States of America

Murali Veeramoney