Picture a radio wave moving at the speed of light from a spacecraft circling 340 miles above Texas.
It arrives in microseconds. Then it hits a rule written in the 1990s. That rule decides how much power the signal can carry, and for three decades the answer has been: not much.
Now that answer is changing. The dollar figure attached to the change is not small.
So what actually held the signal back, and why is it so hard to fix a rule that old?
Why those old power limits quietly strangled satellite broadband capacity
The mechanism is simpler than it sounds. Every satellite link runs on a slice of radio spectrum, and the amount of data that slice can carry depends heavily on how much signal power the satellite is permitted to use.
The FCC’s rules drew from a decades-old framework for how Geostationary Orbit and Non-Geostationary Orbit systems share spectrum, an EPFD framework developed in the late 1990s. Those rules capped the signal power between satellites and ground equipment, preventing newer LEO constellations from delivering higher speeds. Their purpose was to prevent non-geostationary satellites from washing out the signals of older, fixed geostationary ones parked above the equator.
Modern satellites carry antennas that can steer beams with precision, switch frequencies dynamically and avoid interference in ways their 1990s predecessors could not imagine. The new performance-based framework takes account of the improved spectrum-sharing possibilities that modern satellite technology has brought, including through use of adaptive coding and modulation. Under it, non-geostationary operators can negotiate voluntary interference protections rather than comply with fixed power ceilings. But the old rules never kept pace. Operators were effectively flying a sports car at school-zone speeds, constrained not by physics but by policy.
What more than 1,000 megahertz of new spectrum actually looks like from the ground
Spectrum is invisible, but its scarcity is very visible to anyone who has watched a video freeze mid-air over the Atlantic or lost a satellite connection in a mountain valley. The FCC has scheduled a September 30 vote on rules that would unlock more than 1,000 MHz of spectrum in the 12 GHz and 42 GHz bands for home satellite broadband connectivity, in-flight connectivity and on-ship connectivity.
The order would expand satellite access to the 12.7, 13.25 GHz band, providing 550 MHz, and the 42.0, 42.5 GHz band, providing another 500 MHz. The 12.7 GHz band sits adjacent to spectrum already heavily used by satellite systems in the Ku band, meaning operators could slot new capacity alongside existing infrastructure rather than rebuilding from scratch.
The FCC described the 42 GHz allocation as largely undeveloped territory and carrying the higher data-rate potential that next-generation constellations are designed to exploit. The 42 GHz band is that newer frontier. More capacity without more rockets is a fundamentally different cost structure.
Where the $2 billion figure comes from and what the regulators measured
Federal regulators adopted April 30, 2026 an order that its chairman said could improve capacity for low-Earth orbit satellite broadband by seven times. FCC Chairman Brendan Carr announced that the change could unlock more than $2 billion in economic benefits for the American people and up to sevenfold more capacity for space-based broadband services.
The vote was 3-0, with Chairman Brendan Carr and Commissioners Anna Gomez and Scott Trusty approving the Report and Order. The FCC voted to replace the Equivalent Power Flux Density framework, a regulatory regime developed in the late 1990s, with modern, performance-based protection criteria governing how geostationary orbit and non-geostationary orbit satellite systems share spectrum. The agency said the changes could increase satellite broadband capacity by up to 700 percent using the same number of satellites.
Read alongside the chip sales records reshaping the broader wireless hardware market, this spectrum shift sits at the intersection of two of the fastest-moving trends in communications infrastructure. Geostationary satellite companies such as Viasat, SES, and DirecTV oppose the idea, contending that increasing the power would create interference with their fleets. That opposition can reshape the technical conditions attached to any final order, sometimes narrowing permitted power levels in ways that trim the headline capacity gains.
Where the gains do not arrive automatically and what still has to happen
A regulatory permission is not a service. The April 30 order is adopted, but its full benefits depend on implementation. The FCC’s separate September 30 vote on the spectrum abundance order covering the 12 GHz and 42 GHz bands is the next gate, intended to support even faster satellite broadband.
Final technical rules will determine which services can use the newly opened bands, how existing users receive protection, and how quickly operators can deploy compatible equipment. Ground terminals that can receive signals in those bands do not yet exist at commercial scale. That deployment gap has historically run to several years in the satellite industry.
The 42 GHz band faces real propagation challenges. Rain and atmospheric moisture absorb signals more aggressively at higher frequencies, which means the band that looks most promising on a spectrum chart may deliver less reliable performance in the wet climates where broadband gaps tend to be deepest. The economics will depend almost entirely on how cheaply that problem can be solved at the terminal level.
This is the same kind of hardware cost pressure that has driven rapid development across other parts of the wireless supply chain, and the software infrastructure being built to distribute workloads across mixed hardware stacks may eventually play a role in managing satellite network loads as well.
What the overhaul means for anyone who connects from somewhere unusual
The practical beneficiaries of this rule change are not the people who already have fiber or cable. They are the passenger on a transatlantic flight watching a movie without buffering, the fishing crew 200 miles offshore filing catch data in real time, and the family in a rural county where the only internet option has always been slow.
Low Earth orbit constellations have expanded rapidly in recent years, and as of 2026, sending a payload to low Earth orbit costs about $3,000 per kilogram on a reused SpaceX Falcon 9, down from roughly $54,000 per kilogram on the Space Shuttle, a drop of more than 90 percent in two decades. Cheaper launches built the infrastructure. Cheaper spectrum access is the next layer that turns that infrastructure into a broadband product competitive with terrestrial alternatives.
The $2 billion figure is a ceiling estimate under optimistic assumptions. The real outcome depends on how interference disputes are resolved, how quickly terminal hardware arrives and whether the 42 GHz propagation problem yields to engineering. What is not in dispute is that the 1990s framework was never designed for constellations of thousands of low-flying satellites, and rewriting it was overdue. The September 30 vote on spectrum abundance will show how far the next chapter of that rewrite goes.
