Other

Metawave Corporation

Rio Linda Chemical Company Inc.

Gm Cruise Holdings LLC

Yan Wang

Maha Achour

Chiara Pelletti

George Daniel

Dorm Matchim

Bernard D Casse

John Y Mason

Taha Shahvirdi Dizaj Yekan

Asmita Dani

Sebastian Mann

Safa Kanan Hadi Salman

Bernard Casse

Peter W Deacon

George B Barber

Andrew Adsetts

Benedikt Sanftl

Aspects of the disclosed technology provide solutions for splitting power between different parts of a waveguide. Features inside of a waveguide may include an input and interconnected vertical and horizontal hollow spaces (i.e. channels). Other features may include structures (i.e. septum features) that reflect a portion of electromagnetic energy moving in a channel and may allow another portion of that electromagnetic (EM) energy to pass around those septum features. A horizontal channel of a waveguide may lead to several vertical channel of the waveguide and the septum features may reflect EM energy toward one particular vertical channel such that an amount of EM energy output from that particular vertical channel may be increased as compared to amounts of EM energy output from other vertical channels of the waveguide. Geometries of the waveguide features may focus emitted EM energy by splitting the EM energy into several different parts.

Phase compensated power divider for a vertical polarized three-dimensional (3D) antenna

The reflect array system includes a resonant structure formed of an array of resonant cells and for passive reflection of incident signals. The resonant structure generates a radio frequency ('RF') signal that is shaped and steered by the reflect array.

Smart infrastructure sensing and communication system

Examples disclosed herein relate to a radiating structure. The radiating structure has a transmission array structure having a plurality of transmission paths with each transmission path having a plurality of slots and a pair of adjacent transmission paths forming a superelement. Each superelement has a phase control module to control a phase of a transmission signal. The radiating structure also includes a radiating array structure having a plurality of radiating elements configured in a lattice, with each radiating element corresponding to at least one slot from the plurality of slots and the radiating array structure positioned proximate the transmission array structure. A feed coupling structure is coupled to the transmission array structure and adapted for propagation of a transmission signal to the transmission array structure. The transmission signal is radiated through at least one superelement and at least one of the plurality of radiating elements and has a phase controlled by the phase control module in the at least one superelement.

Method and apparatus for an active radiating and feed structure

Examples disclosed herein relate to an Insulated Glass Unit ('IGU') to enhance wireless communications in a wireless network. The IGU has a first and a second glass layers, a first and a second spacers, and a first and a second ground planes, the first ground plane in contact with the first glass layer and the second ground plane in contact with the second glass layer. The IGU also includes a gas layer in between the first and the second ground planes, a reflectarray comprising a metastructure array of reflector elements, and a third glass layer on top of the metastructure reflectarray.

Optically transparent and quasi-transparent reflectarrays for 5G applications

Examples disclosed herein relate to a dual edge-fed Slotted Waveguide Antenna (SWA). The SWA has a plurality of antenna sections having a plurality of radiating slots and configured to radiate one or more transmission signals through the plurality of radiating slots, in which the plurality of antenna sections are symmetric about a termination region between the plurality of antenna sections. The SWA also has a plurality of distributed feed networks coupled to the plurality of antenna sections and configured to serve as a feed to the plurality of antenna sections, in which each of the plurality of distributed feed networks is a corporate feed structure comprising a plurality of transmission lines and further configured to propagate the one or more transmission signals through the plurality of transmission lines. Other examples disclosed herein relate to a radar system for use in an autonomous driving vehicle.

Dual edge-fed slotted waveguide antenna for millimeter wave applications

Examples disclosed herein relate to a multi-layer, multi-steering ('MLMS') antenna array for millimeter wavelength applications. The MLMS antenna array includes a superelement antenna array layer comprising a plurality of superelement subarrays. In some aspects, each superelement subarray of the plurality of superelement subarrays includes a plurality of phase compensated slots for radiating a transmission signal. The MLMS antenna array also includes a power division layer configured to serve as a feed to the superelement antenna array layer. The MLMS antenna array also includes a top layer disposed on the superelement antenna array layer. The top layer may include a superstrate or a metamaterial antenna array. Other examples disclosed herein include a radar system for use in an autonomous driving vehicle.

Phase compensated multi-layer, multi-steering antenna array for millimeter wave applications

Examples disclosed herein relate to an intelligent meta-structure antenna module for use in a radar for object identification, the module having a first Intelligent Meta-Structure ('iMTS') antenna with a set of slots in a longitudinal direction for horizontal polarization and configured to detect a vehicle, and a second iMTS antenna with a set of slots in a transverse direction for vertical polarization and configured to detect a pedestrian.

Intelligent meta-structure antennas with targeted polarization for object identification

The present invention is an antenna system having an array of metamaterial cells and a transmission array having a plurality of slots, wherein a signal propagates through the transmission array to the metamaterial cells and radiates a beamform. The system further includes reactance control means to adjust a phase of the beamform and to perform beam steering and beam switching.

Feed structure for a metamaterial antenna system

Examples disclosed herein relate to an intelligent metamaterial radar. The radar has an Intelligent Metamaterial ('iMTM') antenna module to radiate a transmission signal with a dynamically controllable iMTM antenna in a plurality of directions based on a controlled reactance and generate radar data capturing a surrounding environment. The radar also has an iMTM interface module to detect and identify a target in the surrounding environment from the radar data and to control the iMTM antenna module.

Intelligent metamaterial radar having a dynamically controllable antenna

Examples disclosed herein relate to a smart infrastructure sensing and communication system. The system includes a resonant structure formed of an array of resonant cells and attached to a glass of a smart infrastructure. The resonant structure generates a radio frequency ('RF') signal that is shaped and steered by the array. A controller is in communication with the resonant structure to receive the RF signal.

Process for the preparation of chlorite salts by the controlled reaction of chlorine dioxide with a reducing agent under reduced pressure to form chlorous acid. The chlorous acid is reacted with an aqueous solution of base to form the desired chlorite salt. The process is rapid, economical and is conducted in a generator which is significantly smaller than equipment currently used for production of chlorite salts.

Preparation of chlorite

Process for the preparation of saturated aqueous solution of chlorite salts by the controlled reaction of chlorine dioxide with a reducing agent under reduced pressure to form chlorous acid. The chlorous acid is reacted with an aqueous solution of base to form an aqueous solution chlorite salt and the aqueous solution is recycled through the process. The process is rapid, economical and is conducted in a generator which is significantly smaller than equipment currently used for production of chlorite salts.

Growing community of inventors

Davis, CA, United States of America

Yan Wang