Abstract: A multimedia capture system includes a plurality of imaging systems and one or more detection systems. The plurality of imaging systems capture image areas of a scene from at least partially different locations. The one or more detection systems determine a relative position of each of the plurality of imaging systems with respect to the different locations of the scene from where the image areas are captured. The relative position of each of the plurality of imaging systems and the captured image areas are used to generate a multimedia presentation of the scene. The capture system may be worn by an individual or may be on a stationary or mobile support.

Abstract: A multimedia presentation system includes a plurality of display systems and at least one control system. The plurality of display systems output image areas of a multimedia presentation to at least partially different locations of a display environment. The control system adjusts the output of the image areas from the plurality of display systems to conform to the display environment. The display and capture systems may be wearable, mobile or adjustable and can react to any environment. Editing environments allow the same show to be easily relinked to a new display configuration without any need for extensive user-driven layout revision. Virtual display configurations are simulated and presented on other displays.

Abstract: A multimedia capture and presentation system includes a plurality of imaging systems and one or more detection systems. The plurality of imaging systems capture image areas of a scene from at least partially different locations. The one or more detection systems determine a relative position of each of the plurality of imaging systems with respect to the different locations of the scene from where the image areas are captured. The relative position of each of the plurality of imaging systems and the captured image areas are used to generate a multimedia presentation of the scene. The control system adjusts the output of the captured image areas from the plurality of projection systems to conform to a display environment. The one or more detection systems determine another relative position of each of the plurality of imaging systems with respect to the display environment on which the image areas are displayed.

Abstract: A multimedia capture system includes a plurality of imaging systems and one or more detection systems. The plurality of imaging systems capture image areas of a scene from at least partially different locations. The one or more detection systems determine a relative position of each of the plurality of imaging systems with respect to the different locations of the scene from where the image areas are captured. The relative position of each of the plurality of imaging systems and the captured image areas are used to generate a multimedia presentation of the scene. The capture system may be worn by an individual or may be on a stationary or mobile support.

Abstract: A multimedia capture and presentation system includes a plurality of imaging systems and one or more detection systems. The plurality of imaging systems capture image areas of a scene from at least partially different locations. The one or more detection systems determine a relative position of each of the plurality of imaging systems with respect to the different locations of the scene from where the image areas are captured. The relative position of each of the plurality of imaging systems and the captured image areas are used to generate a multimedia presentation of the scene. The control system adjusts the output of the captured image areas from the plurality of projection systems to conform to a display environment. The one or more detection systems determine another relative position of each of the plurality of imaging systems with respect to the display environment on which the image areas are displayed.

Abstract: A multimedia presentation system includes a plurality of display systems and at least one control system. The plurality of display systems output image areas of a multimedia presentation to at least partially different locations of a display environment. The control system adjusts the output of the image areas from the plurality of display systems to conform to the display environment. The display and capture systems may be wearable, mobile or adjustable and can react to any environment. Editing environments allow the same show to be easily relinked to a new display configuration without any need for extensive user-driven layout revision. Virtual display configurations are simulated and presented on other displays.

Abstract: A method for optimizing a selection of spectral sensitivities for an imaging device includes determining a first set of spectral sensitivities from an initial set of spectral sensitivities based on an analysis of one of a universal measure of goodness, a ?-Factor, and RMS noise. A second set of spectral sensitivities is determined from the first plurality of sets of spectral sensitivities based on an analysis of a different one of the universal measure of goodness, the ?-Factor, and the RMS noise. The second set of spectral sensitivities is an optimized set of spectral sensitivities.

Abstract: A method and system for analyzing a color rendering capability of at least one color imaging device with multiple color channels obtaining includes obtaining spectral sensitivity curves for two or more of the multiple color channels in the color imaging device and determining an image quality value for the color imaging device from the spectral sensitivity curves for the two or more of the multiple color channels in the color imaging device.

Abstract: A method for spectral imaging includes capturing high spectral resolution data of at least a portion of an image using a plurality of channels, determining a first set of channels from the plurality of channels which can reconstruct spectra of the portion of the image to within a first error tolerance from the captured high spectral resolution data, and capturing estimated spectral resolution data of the image using the first set of channels.

Abstract: A method for optimizing a selection of spectral sensitivities for an imaging device includes determining a first set of spectral sensitivities from an initial set of spectral sensitivities based on an analysis of one of a universal measure of goodness, a &mgr;-Factor, and RMS noise. A second set of spectral sensitivities is determined from the first plurality of sets of spectral sensitivities based on an analysis of a different one of the universal measure of goodness, the &mgr;-Factor, and the RMS noise. The second set of spectral sensitivities is an optimized set of spectral sensitivities.

Abstract: A method for spectral imaging includes capturing high spectral resolution data of at least a portion of an image using a plurality of channels, determining a first set of channels from the plurality of channels which can reconstruct spectra of the portion of the image to within a first error tolerance from the captured high spectral resolution data, and capturing estimated spectral resolution data of the image using the first set of channels.

Abstract: A method and system for analyzing a color rendering capability of at least one color imaging device with multiple color channels obtaining includes obtaining spectral sensitivity curves for two or more of the multiple color channels in the color imaging device and determining an image quality value for the color imaging device from the spectral sensitivity curves for the two or more of the multiple color channels in the color imaging device.