For decades, the satellite industry told rocket builders what they needed, and launch vehicle designers complied. But in 2026, that dynamic has turned on its head.
SpaceX’s Starship, a super-heavy-lift rocket capable of delivering more than 100 metric tons (220,000 pounds) to low-Earth orbit, is rewriting the rules of the launch business. Rather than engineers designing rockets around the constraints of satellite payloads, satellite manufacturers are now adapting their spacecraft to take advantage of what Starship offers.
It’s a reversal of a half-century of industry orthodoxy.
“Rocket designs have long engineered their vehicles to match trends in the satellite industry,” wrote Stephen Clark of Ars Technica. “They designed for their customers’ needs, or at least for what their customers were telling them they needed. But in 2026, a new era of abundant super-heavy-lift launch promises to unlock entirely new applications for satellites.”
The shift is most visible in the rise of flat-panel, stackable satellite architectures, flat-packed satellites specifically designed to be ejected through Starship’s side-mounted deployment door, a system SpaceX employees have nicknamed the “Pez dispenser.”
SpaceX will use this system to deploy its own next-generation Starlink V3 broadband satellites, carrying up to 60 per launch. The design allows each satellite to present a broad surface area toward Earth, and it eliminates the immediate need for a large payload fairing. The approach is already influencing the broader industry.
Muon Space, a satellite manufacturing startup, announced this month that it is developing a new high-power satellite platform called Condor-Ultra, specifically “optimized for stackable mass-deployment from SpaceX’s Starship.” The spacecraft will weigh about 1.5 metric tons (3,300 pounds) at launch and is designed to pass through the Pez dispenser door without requiring the fairing to open.
“It’s designed for stackable deployments through the opening without requiring the whole fairing to open,” Greg Smirin, president of Muon Space, told Ars Technica. “That’s sort of what we’re designing to, what us and other customers have an understanding of for [what SpaceX will offer in] the near term, in the sort of ’28 timeframe.”
Other companies are following suit. Apex has teased a larger version of its Comet satellite chassis called Comet XL, “optimized for Starship and the super-heavy launchers of the future.” Terran Orbital, the Lockheed Martin-owned satellite builder, markets a flat-packed design it calls Enterprise. Vast Satellite, a new initiative from the private space station company Vast, is also based on a flat-panel form factor “for high-density launch and batch deployment.”
But not everyone is convinced the flat-panel revolution will sweep the entire industry.
“I don’t think it’ll be the new industry norm,” John Rood, CEO of Momentus, told Ars Technica. “I think, for obvious reasons, given SpaceX’s heft, it’s something that will become a bigger and bigger part of the industry, but I don’t know if everything will transition to that.”
The economics driving the shift are staggering. A new report from the Aerospace Corporation suggests that a fully reusable Starship could bring launch costs down to as little as $67 per kilogram after nine reuse cycles, less than the cost of filling the gas tank of an SUV. For context, Falcon 9 currently launches at roughly a few thousand dollars per kilogram.
Karen Jones, the space economist who authored the Aerospace Corporation paper, told Ars that she initially set out to disprove Elon Musk’s claim that Starship could fly for as little as $10 million per mission. Instead, her modeling validated it.
“I actually thought I would basically disprove that, and on my first try, I got to $67 per kilogram after nine use cycles,” Jones said. “It’s based upon some significant assumptions in the paper, but it’s not something that’s completely crazy.”
The bandwidth implications are equally dramatic. According to Jones, a single Starship launch carrying 60 Starlink V3 satellites would deliver approximately 61,000 gigabits per second of capacity, compared to 2,600 gigabits per second from 27 V2 satellites on a Falcon 9, nearly 24 times the bandwidth per launch.
Of course, costs are not the same as prices. SpaceX currently charges commercial customers $74 million for a dedicated Falcon 9 launch, roughly five times its internal cost. Where Starship pricing will settle remains uncertain, and much depends on competition from Blue Origin’s New Glenn rocket and other emerging super-heavy-lift vehicles.
“Certainly, that’s what the industry wants to see, is two equal players,” Jones said. “It absolutely contributes to the economics in terms of price per kilogram.”
Not every mission will adopt the flat-panel form factor. Space telescopes, orbital tugs, and complex science payloads may still require traditional boxy designs launched inside conventional fairings. SpaceX is expected to eventually offer alternative deployment systems for customers whose satellites are not compatible with the Pez dispenser.
Nevertheless, the trend is unmistakable. For the first time in the commercial space age, the rocket is no longer chasing the satellite. The satellite is chasing the rocket.
Featured image: SpaceX Starship launches from Boca Chica, Texas, on April 20, 2023. Credit: Osunpokeh / Wikimedia Commons (CC BY-SA 4.0)