Abstract: Dielectric inserts providing positional support for components of antenna arrays. A system includes a coaxial pin in electromagnetic communication with an antenna array, and a dielectric insert configured to provide positional support for the coaxial pin. The dielectric insert includes a shaft comprising a central hollow space defined by a wall, and further includes a plurality of fins attached to the shaft. The system is such that the dielectric insert forms an interference fit with one or more of the coaxial pin or the antenna array.

Abstract: Dielectric inserts providing positional support for components of antenna arrays. An antenna array includes a radiating element configured to receive or transmit an electromagnetic signal and an alignment horn attached to the radiating element, wherein the alignment horn comprises a detent end. The antenna array is such that the radiating element and the alignment horn are manufactured together as a single element by a three-dimensional printing process such that manufacturing the single element does not require a separate joining process for joining separate components.

Abstract: A combiner network is provided. The combiner network may include a combiner of a first type. The combiner network may further include a combiner of a second type. The combiner of a first type includes a first plurality of waveguide ports and an H-plane combiner connected to an E-plane combiner. The combiner of the second type includes a second plurality of waveguide ports and an H-plane combiner including a U-bend.

Abstract: An antenna array is provided that includes a plurality of radiating elements and one or more combiners. The plurality of radiating elements and the combiners are formed as a single indivisible metal element by use of additive manufacturing processes.

Abstract: A combiner network is provided. A combiner network may include a corporate combiner. The corporate combiner may include a first plurality of radiation elements. The corporate combiner may include a first H-plane combiner connected to the first plurality of radiation elements and connected by a U-bend to a first E-plane combiner. The corporate combiner may include a second H-plane combiner connected to the first E-plane combiner. The corporate combiner may further include a first port. A plurality of corporate combiners may be assembled together as a combiner network.

Abstract: Antenna arrays comprising planar combiner networks. An apparatus includes a first antenna component comprising a first waveguide combiner and a first radiating element. The apparatus includes a second antenna component comprising a second waveguide combiner and a second radiating element. The second radiating element supports a polarization that is orthogonal to a polarization of the first radiating element, and the first antenna component is located next to the second antenna component within an antenna array. The first antenna component and the second antenna component are disposed within a lattice spacing of the antenna array.

Abstract: Antenna arrays comprising planar combiner networks. An apparatus includes a first antenna component comprising a first multiplexer and a second antenna component comprising a second multiplexer. The apparatus is such that the first antenna component is located next to the second antenna component within an antenna array and the apparatus is disposed within a lattice spacing of the antenna array.

Abstract: Waveguide cross sections designed for waveguide filters. An apparatus includes a waveguide cavity for propagating an electromagnetic signal, wherein the waveguide cavity is defined by a plurality of sidewalls. The waveguide cavity comprises an irregular hexagonal cross-sectional geometry that has a complex side, wherein the complex side comprises a first side and a second side connected to the first side, and wherein the first side and the second side of the complex side meet at a radiused edge.

Abstract: Waveguide filters comprising ridges disposed within a waveguide cavity for selecting electromagnetic signals within a frequency passband. An apparatus includes a waveguide filter comprising a waveguide cavity and a plurality of ridges disposed within the waveguide cavity. The apparatus is such that each of the plurality of ridges comprises a first side and a second side, and wherein the first side and the second side are disposed at a non-orthogonal angle relative to one other. The apparatus is optimized for fabrication using metal additive manufacturing techniques.

Abstract: An antenna array is provided that includes a plurality of radiating elements and one or more combiners. The plurality of radiating elements and the combiners are formed as a single indivisible metal element by use of additive manufacturing processes.

Abstract: Examples described herein provide a computer-implemented method that includes establishing, by a second processing system, a first connection with a first processing system. The method further includes receiving, by the second processing system, a first postcard from the first processing system via the first connection, the first postcard comprising information associated with the first processing system. The method further includes establishing, by the second processing system, a second connection with a third processing system. The method further includes transmitting, by the second processing system, a second postcard to the third processing system via the second connection, the second postcard comprising information associated with the second processing system. The method further includes transmitting, by the second processing system, the first postcard to the third processing system via the second connection.

Abstract: A combiner network is provided. A combiner network may include a corporate combiner. The corporate combiner may include a first plurality of radiation elements. The corporate combiner may include a first H-plane combiner connected to the first plurality of radiation elements and connected by a U-bend to a first E-plane combiner. The corporate combiner may include a second H-plane combiner connected to the first E-plane combiner. The corporate combiner may further include a first port. A plurality of corporate combiners may be assembled together as a combiner network.

Abstract: Antenna arrays and structures for propagating electromagnetic signals. A waveguide cross-section is disclosed that may be implemented as a hollow irregular hexagonal metal structure that receives an electromagnetic signal and propagates the electromagnetic signal through the hollow hexagonal metal structure. The waveguide may be fabricated using metal additive manufacturing techniques and include one or more downward facing and unsupported surfaces.

Abstract: Examples described herein provide a computer-implemented method that includes assigning each of a plurality of processing systems to one of a plurality of groups. Each group of the plurality of groups cycles, based on an offset time period, between an advertiser state, a listener state, and a sleep state. The method further includes connecting a first processing system of a first group of the plurality of groups to a second processing system of a second group of the plurality of groups when the first group is in one of the listener state or the advertiser state and the second group is in the other of the listener state or the advertiser state.

Abstract: Waveguides, transitions, and conductors for propagating electromagnetic energy. An assembly includes a waveguide transition device comprising two or more coaxial waveguides. The assembly includes a radiating component comprising two or more radiating elements configured to receive or transmit electromagnetic energy through two or more signal ears, wherein each of the two or more signal ears is in communication with a coaxial waveguide of the two or more coaxial waveguides.

Abstract: Improved waveguides, transitions, and conductors for propagating electromagnetic energy. A device includes a waveguide port, two or more coaxial waveguides, and a transition disposed between the waveguide port and the two or more coaxial waveguides. The transition combines or divides electromagnetic energy propagating between the waveguide port and the two or more coaxial waveguides.

Abstract: Examples described herein provide a computer-implemented method that includes converting, by a first processing system, a binary data stream into a string using encoding. The method further includes advertising, by the first processing system, standard characteristics to a second processing system. The method further includes receiving, by the first processing system, a request from the second processing system for a payload size and payload characteristics for the data to be transmitted from the first processing system to the second processing system. The method further includes transmitting, by the first processing system, the payload size and the payload characteristics to the second processing system.

Abstract: A method, system, and device provides components of an antenna assembly. Digital information representative of one or more characteristics of an antenna element of antenna assembly may be received by a processor. The processor may further receive a specification for the antenna element. The processor may adjust digital information representative of the antenna element to adjust the physical parameters of the component to meet the specification. The antenna assembly may be fabricated with the adjusted physical parameters.

Abstract: A waveguide filter includes a fundamental waveguide unit. The fundamental waveguide unit may have an irregular hexagonal metal structure. One wall of the irregular hexagonal metal structure may form a connection to one or more walls of another fundamental waveguide unit having an irregular hexagonal metal structure. A fundamental waveguide unit may include a hollow irregular hexagonal metal structure which includes a resonant cavity that receives an electromagnetic signal and propagates the signal through the resonant cavity.

Abstract: A waveguide disclosed herein may be implemented as a hollow irregular hexagonal metal structure which receives an electromagnetic signal and propagates the signal through the hollow hexagonal metal structure. The waveguide may be fabricated using metal additive manufacturing techniques and include one or more downward facing and unsupported surfaces.