Abstract: Embodiments disclosed herein include a method for field adjusting calibrating factors of a plurality of RF impedance matches for control of a plurality of plasma chambers. In an embodiment, the method comprises collecting and storing in a memory data from operation of the plurality of RF impedance matches, and finding a tune space for each of the plurality of RF impedance matches from the collected data. In an embodiment, the method further comprises finding adjustments to account for variability in each of the plurality of RF impedance matches, finding adjustments to variable tuning elements of the plurality of RF impedance matches to account for time varying and process related load impedances, and the method further comprises obtaining operating windows for the variable tuning elements in the plurality of RF impedance matches.

Abstract: Embodiments disclosed herein include a method for field adjusting calibrating factors of a plurality of RF impedance matches for control of a plurality of plasma chambers. In an embodiment, the method comprises collecting and storing in a memory data from operation of the plurality of RF impedance matches, and finding a tune space for each of the plurality of RF impedance matches from the collected data. In an embodiment, the method further comprises finding adjustments to account for variability in each of the plurality of RF impedance matches, finding adjustments to variable tuning elements of the plurality of RF impedance matches to account for time varying and process related load impedances, and the method further comprises obtaining operating windows for the variable tuning elements in the plurality of RF impedance matches.

Abstract: Embodiments disclosed herein include a method for field adjusting calibrating factors of a plurality of RF impedance matches for control of a plurality of plasma chambers. In an embodiment, the method comprises collecting and storing in a memory data from operation of the plurality of RF impedance matches, and finding a tune space for each of the plurality of RF impedance matches from the collected data. In an embodiment, the method further comprises finding adjustments to account for variability in each of the plurality of RF impedance matches, finding adjustments to variable tuning elements of the plurality of RF impedance matches to account for time varying and process related load impedances, and the method further comprises obtaining operating windows for the variable tuning elements in the plurality of RF impedance matches.

Abstract: Systems (100) and methods (600) for enabling communications between a Private Network Resource (“PNR”) and a first Radio Network Resource (“RNR”). The methods comprise: performing first operations by the PNR to generate a first packet with a header including a first Private Address (“PA”) for the PNR and a first Effective PA (“EPA”) for the first RNR; communicating the first packet from the PNR to a second RNR via first private network; performing second operations at the second RNR to parse the first PA and the first RNR from the first packet's header, and translate the first PA into a first Radio Address (“RA”) and the first EPA into a second RA; generating a second packet by modifying the first packet's header to include the first and second RAs; and communicating the second packet to the first RNR via radio network.

Abstract: A system for aligning two ground-based antennae (100, 110) or a ground-based antenna (100) and a satellite antenna (110), for use in military and civilian settings, in which a visual display is generated showing a graphical representation of the antennae including graphical representations indicating both the axis of the main lobe (102) and the approximate radiation pattern (414) of the antennae, superimposed over a live imaging of the local terrain. The alignment is achieved when the graphical representations of the main axis and radiation patterns of the two antennae align with each other.

Abstract: A system for aligning two ground-based antennae (100, 110) or a ground-based antenna (100) and a satellite antenna (110), for use in military and civilian settings, in which a visual display is generated showing a graphical representation of the antennae including graphical representations indicating both the axis of the main lobe (102) and the approximate radiation pattern (414) of the antennae, superimposed over a live imaging of the local terrain. The alignment is achieved when the graphical representations of the main axis and radiation patterns of the two antennae align with each other.

Abstract: A remote control panel (RCP) is provided for controlling an operation of a radio (104, 106). The RCP (102) includes a keypad (208) configured for receiving user input commands for controlling the radio using the same keypad commands as would be used when operating the same without the RCP. The RCP also includes a display unit (206) for displaying information concerning an operational state of the radio. The RCP further includes a communication interface (212, 312-316, 320-322) configured for relaying information from the RCP to the radio located a distance away. The interface is also configured for relaying information from the radio to the RCP. The RCP includes a computer processing device configured for providing an extended capability for the radio exclusive of a predefined functional capability. The extended capability is selected from the group consisting of additional digital data processing capability, additional display capability, and additional communication capability.

Abstract: A remote control panel (RCP) is provided for controlling an operation of a radio (104, 106). The RCP (102) includes a keypad (208) configured for receiving user input commands for controlling the radio using the same keypad commands as would be used when operating the same without the RCP. The RCP also includes a display unit (206) for displaying information concerning an operational state of the radio. The RCP further includes a communication interface (212, 312-316, 320-322) configured for relaying information from the RCP to the radio located a distance away. The interface is also configured for relaying information from the radio to the RCP. The RCP includes a computer processing device configured for providing an extended capability for the radio exclusive of a predefined functional capability. The extended capability is selected from the group consisting of additional digital data processing capability, additional display capability, and additional communication capability.