LONDON, July 10 — It began with a single booster landing in 2015, a moment many in the space industry thought might remain a stunt. Nearly eleven years on, the picture could not be more different. Reusable rocket technology is no longer a novelty; it is the central battleground of the global launch market, and the competitive landscape is shifting in ways that would have seemed unlikely just a few years ago.
The numbers tell a stark story of who leads. SpaceX, the company that first proved vertical landing of an orbital booster was practical, has now logged over 200 booster recoveries and routinely flies the same hardware multiple times.
That is a level of operational maturity no other organisation on Earth has yet matched. For the rest of the world, the question has become not whether to pursue reusability, but how fast they can catch up.
The long march of progress
China has quietly moved itself into a clear second position. The successful recovery of the Long March 10B places Beijing ahead of Europe, Russia, and India in the race to field an operational reusable orbital rocket. It is a significant milestone, though the source material is careful to note that China still trails SpaceX considerably in terms of flight heritage and the overall maturity of its reusability programme.
The distinction matters: recovering a booster once is a demonstration; doing it routinely, across dozens of missions, is an industrial capability. Other major players are at very different stages.
Blue Origin, the American company founded by Jeff Bezos, has long operated the New Shepard suborbital vehicle, which first flew in 2015 — the same year as SpaceX’s first Falcon 9 landing. New Shepard has proven the company can land a rocket, but it operates at a much lower energy regime than orbital flight. The company’s answer is New Glenn, a large orbital rocket expected to debut in 2025, which will be its first serious test of orbital-class reusability.
Europe is working on Themis, a reusable demonstrator being developed by ArianeGroup. First hop tests for that vehicle are planned for 2025, which would put Europe several years behind the leaders even if those tests go perfectly.
Russia’s Roscosmos has the Amur rocket on the drawing board, a methane-fueled reusable vehicle with a first flight target of 2028. India’s ISRO tested a scaled-down prototype called the RLV-TD back in 2016 and has plans for a full-scale reusable rocket by 2030.
What drives the competition
The motivation behind all this activity is straightforward, and it is economic. The goal is to reduce the cost of putting a kilogram of payload into orbit from thousands of dollars to hundreds. That is not an incremental improvement; it is a fundamental shift in what is possible.
At hundreds of dollars per kilogram, missions that were once prohibitively expensive — large-scale satellite constellations, regular resupply of orbital stations, perhaps even early commercial space stations — become viable. More launches, more frequently, at lower cost: that is the prize.
The mechanism by which reusability achieves this is simple in concept, though fiendishly difficult in practice. A conventional rocket is essentially thrown away after a single use. The engines, the tanks, the avionics — all of it is expended.
Building a rocket that can fly back to Earth, land, and be refuelled and reflown means the high upfront cost of manufacturing that hardware can be spread across many missions. The more times a booster flies, the cheaper each flight becomes.
Where things stand now
As of mid-2026, the global order in reusable orbital rockets is clear. SpaceX remains the undisputed leader, with a decade of operational experience and a fleet of flight-proven boosters. China has emerged as the strongest challenger, with a successful recovery under its belt and a clear trajectory.
Europe, Russia, and India are all working hard but remain in the development and testing phases, with operational reusability still years away. What researchers and industry observers are watching closely now is whether any of the challengers can close the experience gap.
Flight heritage is not something that can be bought or rushed; it is accumulated, mission by mission, landing by landing. The Long March 10B recovery is intriguing precisely because it suggests China may be willing to iterate quickly, learning from each flight in a way that mirrors SpaceX’s own early development cycle. The next few years will be telling.
If New Glenn flies in 2025 and begins landing boosters regularly, the picture changes. If Themis hops successfully and Europe scales up quickly, the gap narrows.
If Amur reaches its 2028 target, Russia re-enters the conversation. But for now, the landscape is defined by one clear leader, one emerging competitor, and a pack of determined followers all chasing the same goal: making space access cheap enough to change what humanity can do beyond the atmosphere.
