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bouton Frais Mépris sofia rahiminejad antenna array gap Entendu de méditation Saison

International Journal of Microwave and Wireless Technologies: Volume 6 -  MEMSWAVE Symposium 2013 | Cambridge Core
International Journal of Microwave and Wireless Technologies: Volume 6 - MEMSWAVE Symposium 2013 | Cambridge Core

PDF) Millimeter-wave spatial splitting and combining for use in gap-waveguide-integrated  grid amplifiers and antenna arrays
PDF) Millimeter-wave spatial splitting and combining for use in gap-waveguide-integrated grid amplifiers and antenna arrays

PDF) Realizing a 140-GHz Gap Waveguide–Based Array Antenna by Low-Cost  Injection Molding and Micromachining
PDF) Realizing a 140-GHz Gap Waveguide–Based Array Antenna by Low-Cost Injection Molding and Micromachining

Micromachines | Free Full-Text | Dry Film Photoresist-Based  Microfabrication: A New Method to Fabricate Millimeter-Wave Waveguide  Components | HTML
Micromachines | Free Full-Text | Dry Film Photoresist-Based Microfabrication: A New Method to Fabricate Millimeter-Wave Waveguide Components | HTML

Sjoerd HAASL | Director Clinical Innovation Fellowships | PhD, Assoc Prof |  KTH Royal Institute of Technology, Stockholm | KTH | Department of Medical  Sensors, Signals and Systems (MSSS)
Sjoerd HAASL | Director Clinical Innovation Fellowships | PhD, Assoc Prof | KTH Royal Institute of Technology, Stockholm | KTH | Department of Medical Sensors, Signals and Systems (MSSS)

PDF) Millimeter-wave spatial splitting and combining for use in gap-waveguide-integrated  grid amplifiers and antenna arrays
PDF) Millimeter-wave spatial splitting and combining for use in gap-waveguide-integrated grid amplifiers and antenna arrays

illustrates the process: a) starting with an aluminum layer deposited... |  Download Scientific Diagram
illustrates the process: a) starting with an aluminum layer deposited... | Download Scientific Diagram

Realizing a 140 GHz Gap Waveguide–Based Array Antenna by Low-Cost Injection  Molding and Micromachining | SpringerLink
Realizing a 140 GHz Gap Waveguide–Based Array Antenna by Low-Cost Injection Molding and Micromachining | SpringerLink

Micromachines | Free Full-Text | Dry Film Photoresist-Based  Microfabrication: A New Method to Fabricate Millimeter-Wave Waveguide  Components | HTML
Micromachines | Free Full-Text | Dry Film Photoresist-Based Microfabrication: A New Method to Fabricate Millimeter-Wave Waveguide Components | HTML

Sofia RAHIMINEJAD | Posdoc | Doctor of Philosophy | California Institute of  Technology, CA | CIT | Jet Propulsion Laboratory
Sofia RAHIMINEJAD | Posdoc | Doctor of Philosophy | California Institute of Technology, CA | CIT | Jet Propulsion Laboratory

PDF) Design of Micromachined Ridge Gap Waveguides for Millimeter-Wave  Applications
PDF) Design of Micromachined Ridge Gap Waveguides for Millimeter-Wave Applications

Sofia Rahiminejad - Technologist - NASA Jet Propulsion Laboratory | LinkedIn
Sofia Rahiminejad - Technologist - NASA Jet Propulsion Laboratory | LinkedIn

Realizing a 140 GHz Gap Waveguide–Based Array Antenna by Low-Cost Injection  Molding and Micromachining | SpringerLink
Realizing a 140 GHz Gap Waveguide–Based Array Antenna by Low-Cost Injection Molding and Micromachining | SpringerLink

Chalmers Research: Sadia Farjana
Chalmers Research: Sadia Farjana

Micromachines | Free Full-Text | Dry Film Photoresist-Based  Microfabrication: A New Method to Fabricate Millimeter-Wave Waveguide  Components | HTML
Micromachines | Free Full-Text | Dry Film Photoresist-Based Microfabrication: A New Method to Fabricate Millimeter-Wave Waveguide Components | HTML

Sofia Rahiminejad - Technologist - NASA Jet Propulsion Laboratory | LinkedIn
Sofia Rahiminejad - Technologist - NASA Jet Propulsion Laboratory | LinkedIn

Sofia Rahiminejad - Technologist - NASA Jet Propulsion Laboratory | LinkedIn
Sofia Rahiminejad - Technologist - NASA Jet Propulsion Laboratory | LinkedIn

Dr. Sofia Rahiminejad | Science and Technology
Dr. Sofia Rahiminejad | Science and Technology

Realizing a 140 GHz Gap Waveguide–Based Array Antenna by Low-Cost Injection  Molding and Micromachining | SpringerLink
Realizing a 140 GHz Gap Waveguide–Based Array Antenna by Low-Cost Injection Molding and Micromachining | SpringerLink

Realizing a 140 GHz Gap Waveguide–Based Array Antenna by Low-Cost Injection  Molding and Micromachining | SpringerLink
Realizing a 140 GHz Gap Waveguide–Based Array Antenna by Low-Cost Injection Molding and Micromachining | SpringerLink

PDF) Ridge Gap Waveguide Based Liquid Crystal Phase Shifter
PDF) Ridge Gap Waveguide Based Liquid Crystal Phase Shifter

Sofia RAHIMINEJAD | Posdoc | Doctor of Philosophy | California Institute of  Technology, CA | CIT | Jet Propulsion Laboratory
Sofia RAHIMINEJAD | Posdoc | Doctor of Philosophy | California Institute of Technology, CA | CIT | Jet Propulsion Laboratory

Realizing a 140 GHz Gap Waveguide–Based Array Antenna by Low-Cost Injection  Molding and Micromachining | SpringerLink
Realizing a 140 GHz Gap Waveguide–Based Array Antenna by Low-Cost Injection Molding and Micromachining | SpringerLink

Thesis - Sofia Rahiminejad - pp1-24 | PDF | Metamaterial | Materials Science
Thesis - Sofia Rahiminejad - pp1-24 | PDF | Metamaterial | Materials Science

Eucap2017 ProgrammeBook | PDF | European Space Agency | Electronics
Eucap2017 ProgrammeBook | PDF | European Space Agency | Electronics

Microsystem technology for microwave applications at frequencies above 100  GHz - PDF Free Download
Microsystem technology for microwave applications at frequencies above 100 GHz - PDF Free Download

Sofia Rahiminejad - Technologist - NASA Jet Propulsion Laboratory | LinkedIn
Sofia Rahiminejad - Technologist - NASA Jet Propulsion Laboratory | LinkedIn