Abstract: A dual hard tag assembly comprises radio frequency identification and electronic article surveillance. The dual hard tag is provides a single component able to both track retail merchandise generally and prevent theft by triggering an alarm. The RFID and EAS systems are not coplanar. The dual hard tag system is small and light weight, and may be reprogrammed and reused for the tracking and anti-theft of multiple items.

Abstract: A dual hard tag assembly comprises radio frequency identification and electronic article surveillance. The dual hard tag is provides a single component able to both track retail merchandise generally and prevent theft by triggering an alarm. The RFID and EAS systems are not coplanar. The dual hard tag system is small and light weight, and may be reprogrammed and reused for the tracking and anti-theft of multiple items.

Abstract: Systems and methods are disclosed herein to provide RFID device test techniques. For example, in accordance with an embodiment of the present invention, a radio frequency identification (RFID) device test system includes an RFID device tester adapted to test RFID devices that are disposed in a closely spaced configuration. The RFID device tester applies a variable threshold, to each of the RFID devices tested, based on characteristics of at least one of the RFID devices neighboring the RFID device being tested.

Abstract: Methods and apparatus for detecting objects are disclosed. In one embodiment of the invention, a person entering a secured or “Safe Zone™” is illuminated with low-power polarized radio waves. Differently polarized waves which are reflected back from the person are collected and measured. In a preferred embodiment of the invention, concealed weapons are detected by calculating the difference of a pair of differences between levels of different polarized reflected energy in the time domain, and by using signal processing methods and apparatus to improve the reliability of the detection process. Alternative embodiments of the invention may be used to detect a wide variety of objects other than concealed firearms. The invention may be used for inventory control or to thwart shoplifting.

Abstract: A multiple beam array antenna system including a first group of right-handed circularly polarized subarrays and a second group of left-handed circularly polarized subarrays. Combined signals from the right-handed subarrays are output via low noise amplifiers to a first electromagnetic lens while the outputs of the left-handed circularly polarized subarrays are sent via low noise amplifiers to a second steering electromagnetic lens. A satellite selection matrix output block allows a user to tap into signals from right-handed circularly polarized satellites, left-handed circularly polarized satellites, and linearly polarized satellites. A plurality of satellites (e.g. right-handed satellite “A” and linearly polarized satellite “B”) may be accessed simultaneously thus allowing the user to utilize both signals at the same time.

Abstract: A multiple beam array antenna system including a first group of right-handed circularly polarized subarrays and a second group of left-handed circularly polarized subarrays. Combined signals from the right-handed subarrays are output via low noise amplifiers to a first electromagnetic lens while the outputs of the left-handed circularly polarized subarrays are sent via low noise amplifiers to a second steering electromagnetic lens. A satellite selection matrix output block allows a user to tap into signals from right-handed circularly polarized satellites, left-handed circularly polarized satellites, and linearly polarized satellites. A plurality of satellites (e.g. right-handed satellite "A" and linearly polarized satellite "B") may be accessed simultaneously thus allowing the user to utilize both signals at the same time.

Abstract: A multiple beam array antenna system including a first group of right-handed circularly polarized subarrays and a second group of left-handed circularly polarized subarrays. Combined signals from the right-handed subarrays are output via low noise amplifiers to a first electromagnetic lens while the outputs of the left-handed circularly polarized subarrays are sent via low noise amplifiers to a second steering electromagnetic lens. A satellite selection matrix output block allows a user to tap into signals from right-handed circularly polarized satellites, left-handed circularly polarized satellites, and linearly polarized satellites. A plurality of satellites (e.g. right-handed satellite "A" and linearly polarized satellite "B") may be accessed simultaneously thus allowing the user to utilize both signals at the same time.