Interval Research Corporation

Vulcan Patents LLC

Vintell Applications Ny, LLC

Andrew J Singer

Debby Hindus

Lisa J Stifelman

William L Verplank

Jonathan R Cohen

M Margaret Withgott

Bonnie M Johnson

Scott C Wallters

Sean Michael White

Roger Charles Meike

Wayne A Burdick

Glenn T Edens

Don Charnley

A computerized interactor system uses physical, three-dimensional objects as metaphors for input of user intent to a computer system. When one or more interactors are engaged with a detection field, the detection field reads an identifier associated with the object and communicates the identifier to a computer system. The computer system determines the meaning of the interactor based upon its identifier and upon a semantic context in which the computer system is operating. The interactors can be used to control other systems, such as audio systems, or it can be used as intuitive inputs into a computer system for such purposes as marking events in a temporal flow. The interactors, as a minimum, communicate their identity, but may also be more sophisticated in that they can communicate additional processed or unprocessed data, i.e. they can include their own data processors. The detection field can be one-dimensional or multi-dimensional, and typically has different semantic meanings associated with different parts of the detection field.

Computerized interactor systems and methods for providing same

Computerized interactor systems and method for providing same

A method and a system for audio communication between a plurality of users at a plurality of sites utilizes a set of audio input sensors at each site. Each set of audio input sensors binaurally senses an auditory space in proximity thereto. A metaphorical representation of each of the sites is provided. Each metaphorical representation has a position which is variable within a metaphorical space. The metaphorical representations can be based upon, for example, a physical metaphor, a visual metaphor, an auditory metaphor, or a textual metaphor. The auditory space sensed at each site is combined to form at least one synthetic auditory space. The at least one synthetic auditory space is formed in dependence upon the position of each metaphorical representation within the metaphorical space. A binaurally perceivable auditory environment is produced at one or more sites based upon the at least one synthetic auditory space.

Methods and systems for creating a spatial auditory environment in an

Methods and systems for sensing an auditory environment using a tympanic membrane of an individual are disclosed. An embodiment of a method comprises a step of dynamically sensing a displacement of the tympanic membrane in response to excitation by the auditory environment. An electrical signal based upon the sensed displacement is produced. Consequently, the electrical signal is representative of the auditory environment as sensed by the individual. Embodiments for sensing the displacement of the tympanic membrane are based upon laser interferometry and ultrasonic ranging. Further disclosed are methods and systems for modifying a sensed auditory environment, and methods and systems for producing a virtual auditory environment based upon directly sensing the displacement of the tympanic membrane of an individual.

Wearable apparatus for measuring displacement of an in vivo tympanum and

A subcutaneous implant for displaying various re-programmable information or decorative patterns beneath the surface of the skin of a person or an animal. A biologically inert subcutaneous implant is constructed of a flexible material so as to conform to the skin's surface. The subcutaneous implant includes a battery for providing power to the implant. The subcutaneous implant also includes a receiver for receiving programming information from a user, and a display for displaying the programming information through the skin.

Programmable subcutaneous visible implant

Growing community of inventors

Palo Alto, CA, United States of America

Andrew J Singer