China is Not Backing Down in the Space Race

The Specs Tell the Story

The Long March-10B isn’t a vanity project. It’s a medium-lift workhorse designed for one thing: getting payloads to orbit cheaply and often. In its reusable configuration, it can deliver ~16 tonnes to low Earth orbit. The first stage clusters seven YF-100K engines producing a combined vacuum thrust of nearly 9,772 kN. The second stage runs on a YF-219 methalox engine, a technological upgrade that signals China is thinking beyond kerosene.

But the real innovation is the recovery system. By putting the landing hardware on the ship instead of the rocket, nets, cables, hydraulic dampers, rail-mounted dollies to adjust the capture zone. China shifted the weight penalty from the booster to the ground. No landing legs. No grid fins eating into payload mass. The booster is lighter, which means it can carry more. That’s not just clever engineering. That’s a deliberate economic choice.

And here’s the kicker: CASC has already announced plans to refly that same booster before the end of 2026. We’re about to get real-world data on refurbishment costs, turnaround time, and whether the net-capture model actually pencils out. The Chinese aren’t waiting for permission. They’re iterating.

The Economics of Not Throwing Away Rocket Ships

SpaceX proved that reusability isn’t a gimmick, it’s the only way the math works at scale. Industry estimates put the cost of refurbishing a flown Falcon 9 booster at roughly 10% of building a new one. Reusing a booster ten times saves approximately $46 million per launch compared to flying expendable. That’s how SpaceX drove the cost per kilogram to LEO from the industry standard of $10,000 down to roughly $2,500–$3,000. That’s how they captured over 60% of the global commercial launch market.

China knows this. Their expendable Long March rockets still cost around $6,900 per kilogram on the Lijian-1, with hopes of getting down to $4,140 on future models. That’s not competitive. But the Long March-10B’s net-capture system, combined with China’s domestic supply chain advantages, state-backed manufacturing, and a commercial sector that’s been opened to private investment since the 2014 “Document 60” reforms is designed to close that gap. The Chinese aren’t trying to beat SpaceX on engineering elegance. They’re trying to beat them on unit economics at scale. And they’re building the factory capacity to do it.

The Constellation War Is the Real War

This is where the infrastructure argument comes into focus. SpaceX has already launched over 11,700 Starlink satellites, with roughly 10,700 active in orbit as of mid-2026. That’s 59% to 69% of every active satellite on the planet. Starlink is a global communications network that generates revenue, supports military communications, and gives SpaceX a guaranteed launch customer that keeps its cadence high and its costs low.

China’s answer is Qianfan “Thousand Sails”, a constellation of over 15,000 satellites planned by 2030, developed by Shanghai Spacecom Satellite Technology (SSST) with backing from the Shanghai Municipal Government and the Chinese Academy of Sciences. Deployment began in August 2024 using Long March 6A and Long March 8 rockets. The first-phase target is 648 satellites. SSST has already built an automated production line in Shanghai capable of cranking out over 300 satellites per year.

There’s also Guowang the “national network,  a separate, parallel constellation effort. China is not putting all its orbital eggs in one basket. The math is challenging: you cannot deploy 15,000 satellites on expendable rockets. It’s economically impossible. Reusability isn’t a luxury for China’s constellation ambitions, it’s a prerequisite. The Long March-10B recovery wasn’t a science experiment. It was a supply chain decision.

National Security and the Counterspace Shadow

Let’s not pretend this is about internet access for rural villages. The People’s Liberation Army has organized its space capabilities under an Aerospace Force reporting directly to the Central Military Commission. China views space as a warfighting domain. As of early 2026, the PLA operates over 510 intelligence, surveillance, and reconnaissance satellites, enough to provide persistent tracking of U.S. naval carriers and expeditionary forces anywhere on the planet.

The counterspace picture is equally sobering. China hasn’t conducted a destructive ASAT test since 2007 (the one that created that debris field everyone remembers), but it hasn’t stopped developing the capability. The 2026 Global Counterspace Capabilities Report from the Secure World Foundation documents Chinese development of:

• Direct-ascent ASAT missiles with potential reach up to 30,000 km
• Co-orbital systems demonstrated through advanced rendezvous and proximity operations, including the SJ-21 satellite’s 2022 maneuver to move a derelict BeiDou satellite to a graveyard orbit
• Ground-based lasers capable of disrupting or damaging satellite sensors
• Electronic warfare jammers targeting protected military SATCOM frequencies
• A reusable spaceplane program that has already launched four vehicles

This isn’t hypothetical. These are documented capabilities with named programs, test dates, and intelligence assessments. The U.S. Space Force’s own fact sheet on space threats lists China as a near-peer competitor across every domain of counterspace warfare.

This Is About Infrastructure, Not Prestige

The Apollo-era space race was about national pride. Two superpowers spent enormous sums to prove they could do the other one better. The flags are still on the Moon, but nobody’s living there. This race is different. What China is building and what SpaceX has already built, is scalable orbital infrastructure. Reusable rockets are the railroads. Satellite constellations are the power grid. The nation that controls low Earth orbit controls the data, the communications, the navigation, and the surveillance that the 21st-century global economy runs on.

China’s strategy is methodical: build the rockets, build the factories, build the constellations, build the lunar infrastructure (they’re planning a crewed landing before 2030 and the International Lunar Research Station with partners), and build the counterspace capabilities to protect it all. Every piece connects to every other piece. The Long March-10B isn’t a standalone achievement. It’s a node in a system. Meanwhile, back in the United States, our political system is so thoroughly captured by donor interests that we can barely keep the government funded, let alone mount a coherent response to a strategic competitor that’s executing a multi-decade plan without flipping every four years. If you want to understand why America struggles to compete on this level, follow the money.

SpaceX is the exception, not the rule. Elon Musk built a company that happens to be American, but the U.S. government didn’t plan it, didn’t coordinate it, and can’t replicate it. China’s government, by contrast, is running a centrally planned, state-funded, multi-generational industrial strategy that treats space access the way the U.S. used to treat interstate highways.