I am Mohammadreza Rohaninezhad researcher in metamaterials, transparent antennas, and THz absorbers, inventor of the world's first liquid-dielectric mutual-coupling reduction method, and Core Network engineer at NAK. From RIS and 6G to full-duplex MIMO, my work lives where electromagnetics meets what comes next.
Design and analysis of metamaterial absorbers for terahertz applications — the subject of my PhD thesis and ongoing lab work.
Optically transparent antennas on solar-cell substrates, electromagnetic band gap structures, and frequency selective surfaces.
Multiphysics simulation of wave scattering in complex media, RCS and RCS reduction, and metasurface-based propagation control.
Reconfigurable intelligent surfaces and metasurface-assisted links as building blocks of sixth-generation networks.
Array antenna design, mutual-coupling suppression, and full-duplex relay architectures for high-capacity wireless systems.
Author of an IntechOpen book on Free Space Optics technologies in the B5G and 6G era — advances, perspectives, applications.
CS Core planning and optimization across live operator environments — Nokia DX200/IPA2800 circuit-switched core.
Chief Research Consultant & Supervising Advisor in antenna and metasurface studies, providing senior‑level scientific guidance, academic supervision, and research consultation. Experienced in mentoring authors, supporting technical papers, and offering high‑level insights for advanced electromagnetic research projects.
Future technologies: 6G roadmapping, reconfigurable intelligent surfaces, metasurface and antenna design.
Specialized in interference mitigation and radio network monitoring.
Electromagnetic wave scattering in complex media, metasurface applications, FSS, RCS reduction, EBG, THz metamaterial absorbers, and array antennas — simulated in CST, MATLAB, and COMSOL.
Thesis: “Design and Analysis of Metamaterial Absorbers for Terahertz Applications.”
Thesis: “Reducing Mutual Coupling in Array Antennas with Liquid Dielectric.”
arXiv:2610.25655v2 Announce Type: replace Abstract: Tight-binding photonics bridges condensed-matter physics and optics, providing a powerful framework for engineering band structures and topological phases with light. For photons, however, the vacuum is gapless,…
rss.arxiv.org EXPORT.ARXIVarXiv:2610.28876v1 Announce Type: new Abstract: Grating-coupler arrays are used to couple free-space light into photonic chips, but the space required for tapers and routing waveguides limits their optical fill factor. Microlens arrays…
rss.arxiv.org EXPORT.ARXIVarXiv:2609.14853v2 Announce Type: replace Abstract: This paper uses the ERA5 weather dataset to assess the impact of the wind on an equatorial space elevator. An analytical formulation establishes that the effect of…
rss.arxiv.org90 total citations across these papers · Google Scholar →
A new class of decoupling for antenna arrays, using a liquid dielectric medium to suppress mutual coupling between elements.
★ WORLD-FIRST METHODA liquid-dielectric radiator architecture enabling beam steering through physical beam rotation in the array.
Ranked in the top 15% of Institute of Physics reviewers (2025), Peer Review Excellence training graduate, and recipient of the IOP Outstanding Reviewer Award.
Recognising researchers who have delivered exceptional peer review reports over in 2025. The awards highlight the essential contribution reviewers make in upholding the quality, integrity and rigour of published research.
The answer starts in 2026: design adaptability into 6G so the system can rise to challenges we cannot yet foresee What you…
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Autonomous networks must move beyond self-healing to coordinate decisions across RAN, transport, core and cloud, argues Droma’s Payal Kindiger, with trust, governance…
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From the newsletter (October 21; sign-up or follow if you want it sooner): Nvidia and Nokia are pushing telcos to turn their…
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