Abstract: A multisurfaced microdevice system array is produced from a wafer formed of semiconductor substrate material. Sensing, controlling and actuating microdevices are fabricated at specific location on both sides of the wafer, and the wafer is diced. Each die thus created is then formed into a multisurfaced, multifaced structure having outer and inner faces. The multifaced structure and the microdevices form a standardized microdevice system, and cooperatively combined microdevice systems form a microdevice system array. Communication of energy and data to and between microdevices on each and other microdevice systems of the microdevice system array is provided by energy transferring devices including electric conductors for transferring electric energy, ultrasound emitters and receivers for transferring acoustic energy, and electromagnetic energy emitters and receivers for transferring electromagnetic energy.

Abstract: A multisurfaced microdevice system array is produced from a wafer formed of semiconductor substrate material. Sensing, controlling and actuating microdevices are fabricated at specific location on both sides of the wafer, and the wafer is diced. Each die thus created is then formed into a multisurfaced, multifaced structure having outer and inner faces. The multifaced structure and the microdevices form a standardized microdevice system, and cooperatively combined microdevice systems form a microdevice system array. Communication of energy and data to and between microdevices on each and other microdevice systems of the microdevice system array is provided by energy transferring devices including electric conductors for transferring electric energy, ultrasound emitters and receivers for transferring acoustic energy, and electromagnetic energy emitters and receivers for transferring electromagnetic energy.

Abstract: A multisurfaced microdevice system array is produced from a wafer formed of semiconductor substrate material. Sensing, controlling and actuating microdevices are fabricated at specific location on both sides of the wafer, and the wafer is diced. Each die thus created is then formed into a multisurfaced, multifaced structure having outer and inner faces. The multifaced structure and the microdevices form a standardized microdevice system, and cooperatively combined microdevice systems form a microdevice system array. Communication of energy and data to and between microdevices on each and other microdevice systems of the microdevice system array is provided by energy transferring devices including electric conductors for transferring electric energy, ultrasound emitters and receivers for transferring acoustic energy, and electromagnetic energy emitters and receivers for transferring electromagnetic energy.

Abstract: The present invention relates to a method and apparatus for the construction and/or use of multidimensional fields that can be used for high-resolution detection and characterization of features within objects. The multidimensional field is constructed from data that is collected by an array of radiation detectors that substantially surround the object under study. The detected radiation is produced by an array of radiation sources and is subsequently scattered, reflected, transmitted, or diffracted by the object under study and any features within the object under study. In particular embodiments of the invention, the radiation that is used is ultrasonic radiation and the object under study is human or animal tissue or an organ. In this case, the invention permits the detection and identification of cancer by an intelligently trained evaluation system.

Abstract: An acoustoelectronic method and apparatus for generating real-time three-dimensional images of an object and characterizing such object are provided. The object is insonified with an incident acoustic signal derived from an electrical signal. Acoustic signals scattered from the object are collected by an acoustic receiver, which generates analog electrical signals that are subsequently converted to digital electronic signals. The digital electronic signals are used in both direct-imaging and holographic methods to produce a three-dimensional representation of the object from which images and characterizations can be generated.

Abstract: An acoustoelectronic method and apparatus for generating real-time three-dimensional images of an object and characterizing such object are provided. The object is insonified with an incident acoustic signal derived from an electrical signal. Acoustic signals scattered from the object are collected by an acoustic receiver, which generates analog electrical signals that are subsequently converted to digital electronic signals. The digital electronic signals are used in both direct-imaging and holographic methods to produce a three-dimensional representation of the object from which images and characterizations can be generated.

Abstract: An acoustoelectronic method and apparatus for generating real-time three-dimensional images of an object and characterizing such object are provided. The object is insonified with an incident acoustic signal derived from an electrical signal. Acoustic signals scattered from the object are collected by an acoustic receiver, which generates analog electrical signals that are subsequently converted to digital electronic signals. The digital electronic signals are used in both direct-imaging and holographic methods to produce a three-dimensional representation of the object from which images and characterizations can be generated.

Abstract: An acoustoelectronic method and apparatus for generating real-time three-dimensional images of an object and characterizing such object are provided. The object is insonified with an incident acoustic signal derived from an electrical signal. Acoustic signals scattered from the object are collected by an acoustic receiver, which generates analog electrical signals that are subsequently converted to digital electronic signals. The digital electronic signals are used in both direct-imaging and holographic methods to produce a three-dimensional representation of the object from which images and characterizations can be generated.

Abstract: An acoustoelectronic method and apparatus for generating real-time three-dimensional images of an object and characterizing such object are provided. The object is insonified with an incident acoustic signal derived from an electrical signal. Acoustic signals scattered from the object are collected by an acoustic receiver, which generates analog electrical signals that are subsequently converted to digital electronic signals. The digital electronic signals are used in both direct-imaging and holographic methods to produce a three-dimensional representation of the object from which images and characterizations can be generated.

Abstract: The present invention relates to a method and apparatus for the construction and/or use of multidimensional fields that can be used for high-resolution detection and characterization of features within objects. The multidimensional field is constructed from data that is collected by an array of radiation detectors that substantially surround the object under study. The detected radiation is produced by an array of radiation sources and is subsequently scattered, reflected, transmitted, or diffracted by the object under study and any features within the object under study. In particular embodiments of the invention, the radiation that is used is ultrasonic radiation and the object under study is human or animal tissue or an organ. In this case, the invention permits the detection and identification of cancer by an intelligently trained evaluation system.

Abstract: The present invention relates to a method and apparatus for the construction and/or use of multidimensional fields that can be used for high-resolution detection and characterization of features within objects. The multidimensional field is constructed from data that is collected by an array of radiation detectors that substantially surround the object under study. The detected radiation is produced by an array of radiation sources and is subsequently scattered, reflected, transmitted, or diffracted by the object under study and any features within the object under study. In particular embodiments of the invention, the radiation that is used is ultrasonic radiation and the object under study is human or animal tissue or an organ. In this case, the invention permits the detection and identification of cancer by an intelligently trained evaluation system.

Abstract: An adaptive optics wavefront control system is presented wherein phase errors are reduced to a minimum using a coarse/fine gradient sensor.

Abstract: An extendable large aperture phased array mirror system includes a plurality of mirror segments cooperatively configured to receive an incoming electromagnetic beam. In response to signals from a sensor indicative of wavefront distortion in the beam, a control apparatus displaces a plurality of segment actuators to configure the mirror segments to generate an outgoing conjugate phase electromagnetic beam.