China’s LandSpace Achieves Reusable Rocket Landing, but SpaceX Retains Decisive Edge

Key Points

The second time was almost the charm for China’s domestic launch industry. On August 19, LandSpace successfully launched its Zhu Que-3 rocket on its second major attempt to test “reusable” rocket hardware. The vehicle successfully reached orbital velocity, delivered a customer’s satellite into space, and then guided its first stage back to a vertical landing on the landing pad. While the physical execution closely mirrored the operational profile of SpaceX’s Falcon 9, the mission revealed critical differences in execution and long-term viability.

Image source: The Motley Fool.

Close, but No Cigar

Despite the successful landing, the vehicle suffered from residual propellant ignition after touchdown, igniting a fire on the pad. The heat generated was severe enough to melt one of the landing legs, ultimately causing the booster to topple over several hours after landing. LandSpace, which had aimed to build a fresh booster for Flight 3 and refurbish the landed stage for a fourth flight, will now need to re-engineer its post-landing protocols to manage residual fires safely.

Yet, landing a giant orbital-class booster vertically remains a monumental engineering achievement. LandSpace has successfully proven the core enabling technologies of reusability, bringing China into a very select group of nations and private enterprises capable of controlled vertical descents.

Measuring the Competitive Gap

The milestone highlights how close Beijing-based LandSpace has come to replicating SpaceX’s Falcon 9, but substantial performance gaps remain. Under its current design, Zhu Que-3 is planned to be upgraded to a length of 76.6 meters with more powerful TQ-12B and TQ-15B engines, offering a maximum payload capacity of 18.3 metric tons to Low Earth Orbit (LEO). Meanwhile, SpaceX’s heavily upgraded Falcon 9 maintains a lead of 22.8 metric tons—roughly a 25% payload advantage over LandSpace’s target, not to mention a decade of accumulated operational reliability in landing and reusing boosters multiple times.

Other competitors are also pursuing similar trajectories. In the United States, Blue Origin recently demonstrated sea-landings with its New Glenn rocket, while Rocket Lab is progressing toward the debut of its medium-lift Neutron rocket, designed to carry approximately 13 metric tons to LEO. However, SpaceX’s dominance in launch economics, payload volume, and rapid reflight cycles remains unmatched.

SpaceX Is Already Looking to the Future

The question for investors is not whether competitors like LandSpace can eventually replicate the Falcon 9 blueprint, but rather whether they can compete with the next generation of spacecraft. SpaceX has already signaled that Falcon 9 is approaching the end of its lifecycle, with all focus shifting to the massive, fully reusable Starship system. Following a major test flight utilizing the V3 variants of both the Super Heavy booster and Ship, SpaceX is finalizing the tower-catching mechanics needed for complete, rapid reuse.

Once Starship is flying reliably several times per week, it makes sense to shift super scarce SpaceX engineering and production resources to Starship to get launch rate to several times per day, which means winding down Falcon

— Elon Musk (@elonmusk) August 22, 2026

With Starship designed to lift over 100 metric tons to orbit, SpaceX is designing a transport system that will entirely outclass the current crop of medium-to-heavy lift rockets. Once Starship reaches operational status and flies reliably, SpaceX plans to transition entirely away from Falcon, pivoting to a near-daily launch cadence.

By the time LandSpace, Blue Origin, and other global contenders successfully bridge the gap to Falcon 9, SpaceX will have already transitioned to a completely different tier of space logistics with Starship, securing a decisive technological and orbital edge for the foreseeable future.

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