Next-gen networks, spectrum, and the infrastructure connecting everything.
The FCC is opening up vital mid-band frequencies for satellite-to-phone networks, clearing the path to eliminate cellular dead zones across the country.
Standard AI models assume stable data distributions and endless compute. In the sub-millisecond, terahertz chaos of 6G, those classical rules completely fall apart.
In a live stadium trial, Samsung and Verizon proved 5G networks can double as high-resolution radar, tracking crowds and objects without dedicated sensors.
As 6G specifications codify neural networks directly into radio interfaces, telecom carriers face an existential reckoning with hyperscalers over edge compute.
As a million spectators packed the Han River, KT carved out dedicated 5G slices for first responders and drone feeds—turning telecom theory into public safety.
As enterprise AI demands real-time processing, the 5G edge cloud infrastructure market is tracking a $13B surge. Here is who dominates the new compute stack.
While consumers shrug off 5G, telecom giants and nation-states are pouring billions into 6G. The catch? The next cellular standard isn't built for your phone.
Carriers promised flawless 4K streaming and instant cloud gaming anywhere. We break down the real-world latency, throttling, and spectrum bottlenecks.
Lockheed Martin and Verizon are turning commercial 5G infrastructure into bistatic radar networks, tracking rogue drones using ambient cellular radio reflections.
Terahertz wireless promises terabit speeds, but dielectric signal loss remains a massive hurdle. Enter natural silk fibroin, the ultimate 6G waveguide material.
Deploying 5G across icy wilderness isn't just about speed—it is a matter of life, death, and extreme engineering. Here is how modern networks conquer the frost.
5G was sold to consumers as faster phones, and mostly underwhelmed. The place it's actually paying off is somewhere most people never see: the factory floor.
