tayf

Engineering the Electromagnetic Interface to Life.

tayf — Arabic for spectrum

TAYF — a framework spanning electromagnetic physics, communication theory, sensing, physics-based models, AI, and closed-loop therapeutics across living and physical systems.

Why TAYF?

Nature already communicates through physics.
Cells exchange signals.
Proteins change conformation.
Neurons transmit information.
Wireless systems propagate electromagnetic waves.

Today, these disciplines remain largely disconnected. TAYF aims to unite them.

By combining physics, bioelectromagnetics, communication theory, and artificial intelligence, TAYF aims to develop electromagnetic technologies capable of sensing, understanding, and eventually interacting with living systems across scales.

→ Read more about me

about

I am a postdoctoral fellow in the Ultrabroadband Nanonetworking Laboratory at the Institute for Intelligent Networked Systems at Northeastern University, working with Josep Jornet as my advisor.

My path took me from Abu Dhabi to Toronto to Boston.

Abu Dhabi

Khalifa University

Toronto

University of Toronto

Boston

Northeastern University

My fascination with the nanoscale began during my senior undergraduate year as I developed a deeper understanding of communication systems. During my Ph.D., one question kept returning:

Can electromagnetic waves communicate with biology — not just carry information between devices, but directly interact with proteins and living systems?

Exploring that question led me into the world of bioelectromagnetics. What began as an investigation of terahertz interactions with individual proteins gradually evolved into a broader pursuit spanning sensing, actuation, communication, and intelligence across biological and engineered systems.

TAYF is the culmination of that journey — a research vision dedicated to engineering an electromagnetic interface to life. Read more about TAYF →

Along the way, this work has been recognized by MIT Technology Review's Innovators Under 35 and IEEE ComSoc's N2Women Rising Stars program.

terahertz comms & sensing nano-bio channel modeling 6G wireless networks
→ See my full academic path

education

Education

Sept. 2018 – Sept. 2023

Ph.D. in Electrical and Computer Engineering

University of Toronto, Toronto, Canada

Thesis: Controlling Molecular Interactions Using Terahertz Electromagnetic Signals

Advisors: Raviraj Adve and Andrew Eckford

Committee: Costas Sarris, Willy Wong, Ervin Sejdic, Sasitharan Balasubramaniam

★ Governor General Gold Medal Award Nomination

Sept. 2015 – May 2017

M.Sc. in Electrical and Computer Engineering (Highest Honors)

Khalifa University, Abu Dhabi, UAE

Advisor: Raed Shubair

Sept. 2011 – June 2015

B.Sc. in Telecommunication Engineering (Highest Honors)

Khalifa University, Sharjah, UAE

research

Current Research Projects

THz Intra-body Communication, Sensing, and Actuation

terahertz intra-body sensing & actuation
Focus
Physical-layer and propagation modeling for wireless nanonetworks operating inside biological tissue: THz channel characterization, wave–tissue interaction modeling, signal processing, and information-theoretic analysis of intra-body links.
Impact
Establishes the engineering foundations for implantable nanoscale wireless devices capable of real-time sensing and actuation at the molecular level, with applications in continuous health telemetry, closed-loop therapeutics, and future 6G body-area networks.

Near-field Wavefront Engineering: Communication and Sensing

near-field structured beams ISAC
Focus
Exploits near-field electromagnetic effects to unlock spatial degrees of freedom beyond far-field limits, enabling high-capacity THz links and super-resolved sensing.
Impact
Advances a system-level near-field THz framework applicable to dense wireless infrastructure (AI factories, intra-datacenter links) and sub-millimetre sensing, directly enabling the distributed ISAC architectures targeted by NSF and DEVCOM programmes.

In collaboration with Brown University and Rice University (United States)

EM Wave Propagation in Hydrogel-based Neural Tissue Scaffolds

hydrogel neural tissue structured illumination
Focus
Investigates electromagnetic wave propagation through riboflavin-crosslinked hydrogel media as a system-level design problem, characterizing how structured illumination shapes the resulting scaffold properties.
Impact
Establishes structured illumination as an engineering-controlled propagation variable, enabling reproducible scaffolds for neural tissue modeling and new routes for EM-based characterization of engineered biological media.

In collaboration with the University of Essex (United Kingdom)

Bacterial Intelligence and Biofilm-based Biocomputing

biofilm biocomputing 6G mMTC
Focus
Characterizes EM wave propagation through biofilms and harnesses bacterial collective signal-processing for biocomputing and non-invasive infection sensing, integrating gene regulatory neural network models with 6G mMTC system design.
Impact
Expands molecular communication theory to living computational substrates, with relevance to biocomputing architectures, EM-based detection of antimicrobial-resistant biofilms, and bio-inspired intelligence for 6G network control.

In collaboration with the University of Nebraska–Lincoln (United States)

publications

2026 Publications

The complete, continually updated record is on Google Scholar.

  • J
    Sensing the Near-Field at Terahertz Frequencies: Structured Beams as the Missing Half of ISAC

    H. Elayan, A. Comas, C. Spindel, K. Mutai, E. Knightly, D. Mittleman, J. M. Jornet · submitted to IEEE Communications Magazine

  • J
    Nano-Bio Systems for Intra-Body Sensing, Actuation, and Communication in the Terahertz Band and Beyond

    K. Skos, H. Elayan, S. Elmaadawy, P. Kulakowski, J. M. Jornet · IEEE Communications Surveys & Tutorials, vol. 28, pp. 6354–6383, 2026

  • J
    Integrating Biological Intelligence into 6G mMTC Systems using Gene Regulatory Neural Networks

    H. Elayan, S. Somathilak, J. M. Jornet, S. Balasubramaniam · npj Wireless Technology, 2026 (accepted)

  • C
    Modeling Airy Beam Propagation for Intra-body Nanoscale Communication

    H. Elayan, J. Jornet · IEEE ICC 2026, Glasgow, Scotland

→ full publication list on Google Scholar

honors

Selected Honors, Grants & Awards

  • 2026

    Selected as an IEEE Antennas and Propagation Society Young Professional Ambassador

  • 2025

    Selected as a Rising Star for the Women in Engineering Workshop in the Asia Dean Forum

  • 2025

    Recipient of the Mojgan Daneshmand Grant, IEEE Antennas and Propagation Society

  • 2024

    Selected as an N2Women Rising Star in Networking and Communications by IEEE ComSoc

  • 2023

    Selected as Innovators Under 35 MENA Award recipient, MIT Technology Review Arabia

  • 2022

    Selected as an EECS Rising Star, The University of Texas at Austin

  • 2022

    Appointed Junior Fellow, Massey College, University of Toronto

  • 2022

    Mitacs Globalink Research Award — $6,000

  • 2021

    Research Expansion Grant, Photonics Innovation Center, University of Toronto — $10,000

  • 2020

    IEEE Toronto Section Appreciation of Service Award

Selected Fellowships

  • 2024

    NSERC Postdoctoral Fellowship — $70,000 × 2

  • 2019

    Ontario Graduate Scholarship for excellence in graduate studies, awarded twice (two consecutive cycles)

  • 2018

    The Edward Rogers Scholarship, University of Toronto — Full funding

  • 2011–15

    Khalifa University Scholarship, BSc and MSc in Electrical Engineering — Full funding

teaching

Teaching

Courses Taught

University of Toronto — Lecturer, Sept. 2018 – Sept. 2023

  • Detection and Estimation Theory (ECE1521)
  • Probability and Statistics (ECE 286)

Khalifa University — Teaching Assistant & Lab Instructor, Sept. 2015 – 2017

  • Engineering Design and Innovation (ENGR 111)
  • Digital Communication (ECCE 362)
  • Communication Systems (ECCE 360)
  • Signal Processing (ECCE 302)
  • Applied Electromagnetics (ECCE 320)
graduate level · in preparation

Terahertz Communication Systems: Theory, Modeling, and Applications

A graduate course covering the theoretical and engineering foundations of THz wireless systems: channel modeling (molecular absorption, scattering, near- and far-field propagation), signal processing and information theory for THz links, antenna and aperture systems, structured beams, ISAC frameworks, and applications in body-area nanonetworks and 6G infrastructure. Prerequisites: communication theory and electromagnetic fields.

academic service

Service & Outreach

  • Session Chair, IEEE International Microwave and Antenna Symposium (IMAS), Jeddah, 2026.
  • TPC Co-Chair, 13th ACM International Conference on Nanoscale Computing and Communication, St. John's, Canada, September 2026.
  • Student Design Competition Chair, IEEE Wireless Power Technology Conference and Expo, Halifax, Nova Scotia, June 2026.
  • Session Chair, IEEE International Conference on Communications, Satellite and Space Communications track — Beamforming and Physical Layer Design, Glasgow, May 2026.
  • Track Chair for Signal Processing in Wireless Communication, IEEE Vehicular Technology Conference, Chengdu, China, October 2025.
  • Session Chair, IEEE EuCAP — Propagation for Body Network and Bio Applications, Stockholm, March 2025.
  • Guest Editor, special issue on Interconnecting Molecular and Terahertz Communications for Future 6G/7G Networks, IEEE Transactions on Molecular, Biological, and Multi-Scale Communications, 2025.
  • TPC member: IEEE CCNC (Las Vegas, Jan. 2025), IEEE MILCOM (Washington, Oct. 2024), IEEE GLOBECOM (Cape Town, Dec. 2024).
  • TPC Co-Chair, 11th ACM International Conference on Nanoscale Computing and Communication, Milan, Italy, October 2024.
  • Panel Organizer, "Nanonetworking: Quo Vadis?", IEEE ICC, Denver, USA, June 2024.
  • Participant, Mathematical Models in Biology: From Information Theory to Thermodynamics, Banff International Research Station, August 2022.
  • Chair, IEEE Toronto Section ComSoc Chapter — including the IEEE Inter-Society Distinguished Lecturer Day (2025), IEEE Toronto ComSoc Distinguished Lectures, the "Moving the Dial" Women in STEM panel for International Women in Engineering Day, and the IEEE Toronto 5G Summit.
  • Reviewer: IEEE TMBMC, IEEE TWC, IEEE TNB, IEEE VT.

Invited Talks & Podcasts

Press Coverage

MIT Technology Review Arabia · University of Toronto News

contact

Get in touch

For research, collaborations, or reviewing, reach me at h.mohammad@northeastern.edu, or connect via the links in the sidebar.

© Hadeel Elayan