Abstract: The disclosed invention provides system and method for providing electronic collaborations between a plurality of user devices connected through networks. The user devices include one or more collaborator devices and one or more anonymous contributor devices. The system includes instructions for contribution processor and instructions for digital workspace processor. The contribution processor is coupled through the networks to the one or more anonymous contributor devices including contribution applications, and the digital workspace processor is coupled through the networks to the one or more collaborator devices including digital workspace applications. The system and method allows anonymous devices geographically located anywhere, in real-time, to simultaneously contribute data for the purpose of using the contributed data in one or more unique digital workspaces.

Abstract: An integrated audio microphone system simultaneously provides in-room amplification and remote communication during a collaboration session with one or more local participants in a shared space and one or more remote participants. The integrated audio microphone system includes at least one microphone array and speaker system located in the shared space, at least one microphone system for amplification located in the shared space, an audio processor connected to the microphone system and the microphone array and speaker system, and a computer connected to the audio processor. The audio processor is configured to generate a plurality of virtual microphone bubbles and to amplify received audio signals from the microphone system for in-room audio amplification. The amplified audio signals are output to speakers of the microphone array and speaker system. Audio signals from the microphone system and the arrays of microphones are output to the computer to send the audio signals to one or more remote participants.

Abstract: The disclosed invention provides system and method for providing electronic collaborations between a plurality of user devices connected through networks. The user devices include one or more collaborator devices and one or more anonymous contributor devices. The system includes instructions for contribution processor and instructions for digital workspace processor. The contribution processor is coupled through the networks to the one or more anonymous contributor devices including contribution applications, and the digital workspace processor is coupled through the networks to the one or more collaborator devices including digital workspace applications. The system and method allows anonymous devices geographically located anywhere, in real-time, to simultaneously contribute data for the purpose of using the contributed data in one or more unique digital workspaces.

Abstract: A system and method for providing a collaborative user interface on an interactive digital workspace, including storing, in one or more storage devices, data corresponding to a plurality of synchronized sessions of the interactive digital workspace; communicating, via one or more network interfaces, the stored data corresponding to one of the plurality of synchronized sessions of the interactive digital workspace to a plurality of display apparatuses; displaying, on the plurality of display apparatuses, the one synchronized session of the interactive digital workspace; receiving user input, via one or more user interface apparatuses, for creating one or more objects on the interactive digital workspace; storing data corresponding to the one or more created objects in association with the displayed session; and updating the displayed session of the interactive digital workspace with the one or more created objects on the plurality of display apparatuses according to the user input, wherein at least one of the

Abstract: An interactive input system comprises an optical waveguide, a radiation source directing radiation into the optical waveguide, the radiation undergoing total internal reflection within the optical waveguide in response to at least one touch input on a surface of the optical waveguide. At least one imaging device is positioned adjacent to the waveguide, the at least one imaging device having a field of view looking inside the optical waveguide and capturing image frames thereof. Processing structure processes the image frames captured by the at least one imaging device to determine a location of the at least one touch input based on a frequency of reflections of the radiation appearing in the image frame.

Abstract: An interactive input system comprises a display panel defining an interactive surface, the display panel comprising a light sensitive layer configured to sense illumination impinging thereon; and processing structure in communication with the display panel, said processing structure processing output of the light sensitive layer to detect at least one pointer in proximity with the interactive surface.

Abstract: An interactive input system comprises an optical waveguide, a radiation source directing radiation into the optical waveguide, the radiation undergoing total internal reflection within the optical waveguide in response to at least one touch input on a surface of the optical waveguide. At least one imaging device is positioned adjacent to the waveguide, the at least one imaging device having a field of view looking inside the optical waveguide and capturing image frames thereof. Processing structure processes the image frames captured by the at least one imaging device to determine a location of the at least one touch input based on a frequency of reflections of the radiation appearing in the image frame.

Abstract: A tiled touch system comprises a display on which a computer-generated image is presented. The image is formed of an array of image segments. A digitizer is mapped to the display and senses pointer contacts made thereon.

Abstract: A touch panel includes an input registration structure comprising a biasable medium layer. A generally inflexible cover is disposed on the input registration structure and defines a touch surface. A pointer biases the biasable medium layer at a position adjacent the pointer when the pointer is positioned proximate the touch surface. The input registration structure generates a position signal corresponding to the position of the pointer in relation to the touch surface.

Abstract: A touch panel includes an input registration structure comprising a biasable medium layer. A generally inflexible cover is disposed on the input registration structure and defines a touch surface. A pointer biases the biasable medium layer at a position adjacent the pointer when the pointer is positioned proximate the touch surface. The input registration structure generates a position signal corresponding to the position of the pointer in relation to the touch surface.