The Polar Coverage Problem: Why the Arctic Is LEO's Most Expensive Real Estate
Serving high latitudes requires fundamentally different orbital designs—and Canada just wrote a $1.6 billion check to prove it.
Serving high latitudes requires fundamentally different orbital designs—and Canada just wrote a $1.6 billion check to prove it.
Starlink performs thousands of collision avoidance maneuvers each month as low Earth orbit becomes so congested that satellites must dodge debris almost daily.
Launching satellites is getting easier. Building the ground infrastructure to connect them to the internet is not.
As SpaceX’s earliest Starlink satellites reach end-of-life, the hidden operating cost of mega-constellations is becoming visible — and Solar Cycle 25 made the math harder than anyone planned.
Building a megaconstellation requires an industrial base that doesn’t fully exist yet — and the RF semiconductor supply chain is the bottleneck most operators aren’t talking about publicly.
Low Earth orbit constellations are displacing legacy GEO-based inflight Wi-Fi at speed, and the competition between Starlink and Amazon Leo for airline contracts is becoming a genuine two-horse race.
The FCC’s April 2026 overhaul of satellite spectrum-sharing rules scrapped a 1990s framework that was systematically suppressing the capacity of every LEO constellation flying today.
The single biggest barrier to scaling LEO broadband has never been rockets or spectrum — it is the cost of putting a flat-panel phased-array antenna on every rooftop.
SpaceX and Amazon are fighting at the FCC over orbital insertion altitudes—a dispute that looks like a safety argument but is equally about spectrum priority and competitive positioning.
Telesat’s decision to dedicate a slice of every Lightspeed satellite to military Ka-band isn’t just a business pivot — it exposes a structural problem facing any LEO operator that lacks a tech giant’s balance sheet or its own launch vehicle.