Anokiwave, Inc.

Intel Corporation

Trang Thai

Sidharth Dalmia

Jason Leo Durbin

Vipul Jain

Richard S Perry

Omer Asaf

Josef Hagn

Raanan Sover

Peter Moosbrugger

Michael Coolen

Jonathan C Jensen

A phased array system has a substrate, a plurality of elements, and a plurality of beamforming ICs. Each beamforming IC has a first set of element interfaces and a second set of element interfaces. The first set of element interfaces may be configured to be polarized in a first polarization, while the second set of element interfaces may be configured to be polarized in a second (different) polarization. Each beamforming IC has a first common interface electrically coupled with its first set of element interfaces and, in a corresponding manner, each beamforming IC also has a second common interface electrically coupled with its second set of element interfaces. The system further has an interconnect element (e.g., a circuit trace, metallization on a PCB, etc.) electrically coupling the first common interface with the second common interface of another beamforming IC.

Antenna and PCB layout topology designs for frequency scalability in PCB technology for antenna arrays

A phased array system has a substrate, a plurality of elements, a beamforming IC, and a plurality of feedlines electrically coupling the plurality of elements with at least one beamforming IC. In preferred embodiments, the feedlines are non-intersecting, symmetric feedlines that mitigate cross-polarization.

Array lattice techniques for high symmetry and high scan performance

A patch array has a routing printed circuit board with a plurality of layers for routing signals, and a plurality of printed circuit board patches that each has at least one through-via. The plurality of patches are mounted with the routing printed circuit board. In addition, the plurality of printed circuit board patches are formed in compliance with standard printed circuit board rules.

Standard printed circuit board patch array

A symmetric, multi-layer, three-way power divider that is equally balanced, with resistors placed between all combinations of legs. This three-way power divider is specifically designed to be used in millimeter wave applications (e.g., 5G in the 20 GHz-40 GHz range for both dual and single polarization), specifically in designs where a common signal is distributed to a multiple of three elements. This three-way power divider also can be useful for addressing space constraints in 5G applications, e.g., due to routing limitations.

Pinwheel three-way Wilkinson power divider for millimeter wave applications

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San Diego, CA, United States of America

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