Abstract: The device includes a first fiber optic transmitter (FOT) to receive a millimeter wave (MMW) signal and to generate a multiple sideband optical signal, and a second FOT to generate a second optical signal, from a reference signal. A first wavelength division multiplexing (WDM) optical filter is connected to the first FOT to separate a first sideband into a plurality of first sideband channels, and to separate a second sideband into a plurality of second sideband channels, and a second WDM optical filter is connected to the second FOT to separate a reference sideband into a plurality of reference sideband channels. A detector receives the plurality of first sideband channels, to detect an active channel from among the plurality of first sideband channels. Fiber arrays receive the plurality of second sideband channels, and the plurality of reference sideband channels, and an optical coupler generates a combined signal therefrom.

Abstract: A method and apparatus for preventing unwanted wireless networking data communications includes: a) generating at least one protocol data unit in an apparatus; b) ignoring one or more wireless data transmission signals in the predefined area; and c) transmitting the protocol data unit from the apparatus to the predefined area, whereby a first communications device situated within the predefined area and configured to wirelessly receive the protocol data unit is prevented from transferring data with a second communications device. Furthermore, the protocol data unit is transmitted in a wireless data packet, wherein the wireless data packet conforms to a wireless communication protocol utilized by the first communications device and the second communications device. The apparatus is also configured to transmit the protocol data unit to multiple channels within the channel spectrum utilized by the wireless communication protocol.

Abstract: An optical connector adapter includes a substrate having at least one optical waveguide for transporting optical signals. The substrate includes opposing ends, a top reference surface and side reference surface aligned relative to the at least one optical waveguide. A respective carrier bracket is received over each end of the substrate. Substrate alignment fiducials align the carrier brackets relative to the substrate. The substrate carrier receives the substrate and carrier brackets. Respective carrier alignment fiducials align the substrate carrier and the carrier brackets. A beam splitter/combiner is positioned at each end of the substrate and receives and couples an optical signal into the at least one optical waveguide.

Abstract: A secured network system comprising a readykey controller which has a first card reader and a power relay switch connected thereto. The user of the system inserts a microchip embedded card into the first card reader which then transmits an authorization signal to the readykey controller. The readykey controller then activates a power relay switch affixed to the computer which connects the computer's power supply to an external power source activating the computer. The secured network system also has a data relay switch which includes a manual A/B secured network switch. The manual A/B switch allows the user to receive and process classified data, by setting the switch to a predetermined position which connects a secured network server to the computer. The user inserts his proximity card into a second card reader which transmits a second authorization signal to the readykey controller. The readykey controller, responsive to the second authorization signal, activates the data relay switch.

Abstract: A secured network system comprising a readykey controller which has a first card reader and a power relay switch connected thereto. The user of the stem inserts a microchip embedded card into the first card reader which then transmits an authorization signal to the readykey controller. The readykey controller then activates a power relay switch affixed to the computer which connects the computer's power supply to an external power source activating the computer. The secured network system also has a data relay switch which includes a manual A/B secured network switch. The manual A/B switch allows the user to receive and process classified data, by setting the switch to a predetermined position which connects a secured network server to the computer. The user inserts his proximity card into a second card reader which transmits a second authorization signal to the readykey controller. The readykey controller, responsive to the second authorization signal, activates the data relay switch.

Abstract: A secured network system comprising a readykey controller which has a first card reader and a power relay switch connected thereto. The user of the stem inserts a microchip embedded card into the first card reader which then transmits an authorization signal to the readykey controller. The readykey controller then activates a power relay switch affixed to the computer which connects the computer's power supply to an external power source activating the computer. The secured network system also has a data relay switch which includes a manual A/B secured network switch. The manual A/B switch allows the user to receive and process classified data, by setting the switch to a predetermined position which connects a secured network server to the computer. The user inserts his proximity card into a second card reader which transmits a second authorization signal to the readykey controller. The readykey controller, responsive to the second authorization signal, activates the data relay switch.