Abstract: A high data rate signal combiner (HDRSC), including: a first analog to digital converter (ADC) configured to convert a first radio frequency (RF) signal from a first antenna into a first digital signal; a second ADC configured to convert a second RF signal from a second antenna into a second digital signal; a first circular buffer configured to store the first digital signal from the first ADC; a second circular buffer configured to store the second digital signal from the second ADC; a cross-correlator configured to cross correlate the first digital signal and the second digital signal; a lag peak search circuit configured to determine the location of a peak in the output of the cross-correlator; a vector adder circuit configured to combine the first digital signal and the second digital signal with a delay on one of the first signal and the second digital signal based upon the location of the peak in the output of the cross-correlator; and a digital to analog converter (DAC) configured to convert the combin

Abstract: An autonomous robot for loading and unloading cargo of a cargo container includes a first vertical member; a second vertical member spaced in substantially parallel relation to the first vertical member; and a cross-member secured to the first and second vertical members in a substantially perpendicular orientation thereto. The robot further includes a first arm and a second arm secured to the cross-member and extending in a forward direction with respect to the robot. The robot also includes means for imparting vertical movement to the cross-member along the length of the first and second vertical members and means for imparting horizontal movement to the first and second arms along the length of the cross-member. Means for imparting motive force to the robot is/are provided. A processing unit is configured to control directional movement, loading, and unloading routines of the robot. A method for loading/unloading the container is also disclosed.

Abstract: An infrared imaging camera (4) acquires a plurality of frames (94) of infrared radiation from a patient (P) positioned in a field-of-view (92) of the camera (4). Each frame (94) is acquired during a corresponding frame sample interval and each frame (94) corresponds to the infrared radiation acquired from an array of optical elements (90) in the field-of-view (92) during its frame sample interval. Plural integrals are determined from infrared radiation received from the array of optical elements (90), with each integral corresponding to the infrared radiation received from the same optical element (90) in at least two frames (94). Each integral is mapped to a color or a shade of gray and the color or shade of gray of each integral is mapped to a position in an image corresponding to the position of the corresponding optical element (90) in the field-of-view (92).

Abstract: This invention provides a system and method for constructing, establishing and deploying a distributive wireless command and control system utilizing the internet to facilitate that command and control. Each and every aspect of this system is designed to provide alternative means of maintaining the complete command and control communication link over every portion of that link. Should any portion of the link fail an alternative will be substituted until all alternatives have been exhausted. One specific realization of the invention is disclosed for the complete wireless command and control of Dynamic Message Signs (DMA), Changeable Message Signs (CMS) and Variable Message Signs (VMS).