Postdoctoral Researcher · Tyndall / UCC · Cork, Ireland
"I sit at the intersection of radio waves and AI — both invisible, both reshaping the world."
Dr. Nadeem Rather
AI · RF · Wireless Systems
I'm a postdoctoral researcher at Tyndall National Institute, University College Cork — one of Europe's leading ICT research centres. My work sits at a rare intersection: I design intelligent electromagnetic systems that don't just transmit signals, but understand them.
My PhD focused on AI-Enabled Chipless RFID Sensing — building battery-free, chip-free sensors that use deep learning to detect and decode radar signals. Before that, I designed antennas for CubeSats and distributed antenna systems for real-world RF deployments. I've moved between theory and hardware my entire career.
Today, I work on Reconfigurable Intelligent Surfaces, next-generation IoT sensing, and AI-driven wireless systems. The thread throughout: using AI to make invisible signals do things no human could engineer manually.
Designing IC-free, battery-free sensors that encode information directly in electromagnetic signatures. My PhD built AI systems to detect and decode these signals with radar.
Core ResearchApplying deep learning to RF problems — signal classification, channel estimation, anomaly detection. Making wireless infrastructure smarter without extra hardware.
AI + RFNext-generation wireless technology that turns passive walls into active signal controllers. A fundamental piece of how 6G networks will work.
Future NetworksFrom CubeSat antennas to distributed in-building systems. Deep hardware expertise that grounds my AI research in physical reality.
HardwareBuilding the sensing infrastructure that will connect billions of passive devices — no batteries, no chips, just physics and intelligence.
IoTUsing radar techniques for non-contact sensing and identification. Bridging defence-grade signal processing with everyday IoT applications.
RadarEvery product you've ever bought has a barcode. It's a 50-year-old technology that requires a human, a line of sight, and a scanner. Chipless RFID requires none of those things — and AI is what makes it finally possible at scale. Here's what the supply chain of 2030 actually looks like.
The next generation of wireless doesn't just add more towers. It turns your environment itself into a network. A plain-English guide to one of the most important technologies you've never heard of.
The most interesting AI problems in the next decade won't be in data centres. They'll be in the physical world — in antennas, sensors, and signals. The engineers who can bridge both worlds will be rare. And ruthlessly sought after.
Music and engineering share more than people think — both are about understanding systems, finding harmony in complexity, and knowing when to improvise.
Training a lens on the world teaches you to see light differently. After years of working with invisible electromagnetic waves, photography is my way of chasing the visible ones.
Before any antenna gets designed on a computer, it starts as a sketch. Drawing by hand keeps the thinking honest — you can't fake understanding with a pencil.
Whether you're a researcher, an industry partner, a journalist, or just someone curious about what AI-driven wireless systems can do — I'm always happy to talk. Reach out through any of the channels below.