Abstract: Non-coaxial conductors, such as direct current power conductors, may be inserted into, or separated from, a central section of a radio frequency (RF) coaxial conductor that is supplying RF signals.

Abstract: Non-coaxial conductors, such as direct current power conductors, may be inserted into, or separated from, a central section of a radio frequency (RF) coaxial conductor that is supplying RF signals.

Abstract: A plating apparatus with direct electrolyte distribution system, including one or more of the following: an electrolyte tank; an electrolyte distribution compartment within the electrolyte tank, the electrolyte distribution compartment for containing electrolyte, the electrolyte distribution compartment having a first side and a second side; a pump having a fluid connection to the electrolyte distribution compartment for applying pressure to the electrolyte; a plurality of nozzles connected to the first side of the electrolyte distribution compartment, the electrolyte being forced through the plurality of the nozzles from the electrolyte distribution compartment to a part to be plated when the pump applies pressure to the electrolyte in the electrolyte distribution compartment; an electrolyte collection compartment within the electrolyte tank, the electrolyte collection compartment being in fluid communication with the electrolyte distribution compartment; and a removable screen between the electrolyte collec

Abstract: Various exemplary embodiments relate to a tuning element assembly and method for tuning an a radio frequency (RF) component, where the component has one or more walls defining a cavity, with at least one wall having at least one bore hole. A bushing is mounted in the bore hole in the wall, and a tuning element is slidably mounted and received in the bushing so that the tuning element projects inwardly through the bushing and into the cavity and is axially adjustable. A method of tuning an RF component also includes providing a bushing mounted in a bore in a wall of the RF component, sliding a tuning element that is slidably mounted and received in the bushing so that the tuning element projects inwardly through the bushing and into the cavity by a distance varying according to the sliding of the tuning element, monitoring a performance characteristic of the RF component, and releasing the tuning element so that a desired performance characteristic is achieved.

Abstract: Various exemplary embodiments include a cavity having a tuning assembly with tunable capacitive coupling. The tuning assembly may have a recess having a specified depth, designed for a default magnitude of coupling into the cavity. A sleeve may be fully inserted within the recess to have the structure operate at that default coupling magnitude. If a different amount of coupling is desired, the sleeve may be inserted to a particular depth that only includes part of the recess, enabling repeatable tuning of a plurality of cavities.

Abstract: Various exemplary embodiments relate to a tuning element assembly and method for tuning an a radio frequency (RF) component, where the component has one or more walls defining a cavity, with at least one wall having at least one bore hole. A bushing is mounted in the bore hole in the wall, and a tuning element is slidably mounted and received in the bushing so that the tuning element projects inwardly through the bushing and into the cavity and is axially adjustable. A method of tuning an RF component also includes providing a bushing mounted in a bore in a wall of the RF component, sliding a tuning element that is slidably mounted and received in the bushing so that the tuning element projects inwardly through the bushing and into the cavity by a distance varying according to the sliding of the tuning element, monitoring a performance characteristic of the RF component, and releasing the tuning element so that a desired performance characteristic is achieved.

Abstract: Various exemplary embodiments include a cavity having a tuning assembly with tunable capacitive coupling. The tuning assembly may have a recess having a specified depth, designed for a default magnitude of coupling into the cavity. A sleeve may be fully inserted within the recess to have the structure operate at that default coupling magnitude. If a different amount of coupling is desired, the sleeve may be inserted to a particular depth that only includes part of the recess, enabling repeatable tuning of a plurality of cavities.

Abstract: A combline filter has a ceramic resonator disposed inside at least one cavity wall. Because the resonator is implemented as a hollow rod, a tuning element may be inserted into an opening on the top of the rod to tune its frequency. A mounting element, inserted into an opening on the bottom of the rod secures its position inside a cavity resonator. Instead of soldering the resonator to the filter's walls, the resonator is supported above a bottom or side wall of the cavity resonator.

Abstract: A plating apparatus with direct electrolyte distribution system, including one or more of the following: an electrolyte tank; an electrolyte distribution compartment within the electrolyte tank, the electrolyte distribution compartment for containing electrolyte, the electrolyte distribution compartment having a first side and a second side; a pump having a fluid connection to the electrolyte distribution compartment for applying pressure to the electrolyte; a plurality of nozzles connected to the first side of the electrolyte distribution compartment, the electrolyte being forced through the plurality of the nozzles from the electrolyte distribution compartment to a part to be plated when the pump applies pressure to the electrolyte in the electrolyte distribution compartment; an electrolyte collection compartment within the electrolyte tank, the electrolyte collection compartment being in fluid communication with the electrolyte distribution compartment; and a removable screen between the electrolyte collec

Abstract: A combline filter has a ceramic resonator disposed inside at least one cavity wall. Because the resonator is implemented as a hollow rod, a tuning element may be inserted into an opening on the top of the rod to tune its frequency. A mounting element, inserted into an opening on the bottom of the rod secures its position inside a cavity resonator. Instead of soldering the resonator to the filter's walls, the resonator is supported above a bottom or side wall of the cavity resonator.