On July 10, 2026, China's state-owned aerospace company successfully launched and recovered the first stage of its Long March 10B rocket—a global first in net-capture recovery technology. According to reports, the booster separated from the upper stage after 6 minutes and vertically returned to a sea platform using a net-capture mechanism, contrasting with SpaceX's propulsive landing approach that began in 2015. China aims to complete re-flight testing by year-end and enter small-batch regular launch operations within 3–5 years.
China's Net-Capture Recovery: A Global First
On July 10, 2026, China National Space Administration successfully achieved what it claims to be a historic milestone. According to the Chinese state-owned aerospace giant, the Long March 10B rocket underwent "the world's first reusable launch vehicle net-capture recovery," marking China's entry into the reusable rocket era.
The recovery sequence unfolded as follows: after liftoff from Wenchang Space Launch Site in Hainan Province, the first stage separated from the upper stage just 6 minutes into flight, then vertically descended to a sea-based recovery platform, where it was captured by a specialized net system. This net-capture approach represents a fundamentally different technical pathway from the propulsive landing methodology pioneered by SpaceX.
The "Navigator" Platform: Custom-Built Recovery Infrastructure
The sea-based recovery platform, named the "Navigator," is itself a technological achievement. It is described as the world's first dedicated sea platform for rocket net-capture recovery. According to reports, the platform was constructed by Guangzhou's China State Shipbuilding Corporation International and the Chinese Academy of Sciences' Institute of Deep-Sea Science and Engineering. Construction began in April 2025, and the platform completed sea trials in February 2026—just five months before the successful recovery operation.
Performance Specifications: 16-Ton LEO Capacity
The Long March 10B is a two-stage liquid-fueled vehicle with a 5-meter diameter structure. The rocket stands approximately 63 meters tall and has a launch weight of around 760 metric tons. It uses liquid oxygen kerosene for the first stage and liquid oxygen methane for the second stage as propellants.
In reusable configuration, the Long March 10B achieves a near-Earth orbit (LEO) payload capacity of 16 metric tons. This performance level places it in the same class as SpaceX's Falcon 9 rocket, according to available assessments. Experts note that the reusable configuration will substantially reduce per-launch costs while maintaining sufficient capacity for low-orbit satellite constellation deployment and large-scale commercial launches.
Reusable Technology: Contrasting Approaches with SpaceX
SpaceX achieved its own recovery milestone significantly earlier. According to reporting by Voice of America cited in press accounts, SpaceX successfully recovered the Falcon 9's first-stage booster as early as December 2015—more than a decade before China's 2026 achievement. The American company's approach relies on controlled engine burns to slow the booster and guide it to a landing pad or drone ship.
China's net-capture method represents an alternative engineering solution. Rather than relying on precision propulsive landing, the system uses a large net to physically catch the returning booster, reducing the velocity control requirements and potentially simplifying ground infrastructure compared to traditional landing pad approaches.
Development Timeline and Commercialization
The research and development team, led by the China Academy of Launch Vehicle Technology under China National Space Administration, has outlined near-term and medium-term goals. The team expects to complete the first re-flight test of the recovered first stage by the end of 2026. Industry analysts widely predict that within 3 to 5 years, China's reusable rocket program will transition from experimental phases into small-batch, routine operational launches.
What This Means
China's successful net-capture recovery demonstrates that multiple technical pathways to rocket reusability are viable. While SpaceX's decade-long head start in operational reusability remains significant, China's emergence with a functionally different approach—supported by purpose-built sea-based infrastructure—expands the technological options available to spacefaring nations. The stated timeline to small-batch operations within 3–5 years, if achieved, would establish China as the second nation operating a reusable rocket system at commercial scale. The economic implications depend on whether the net-capture method can match or exceed the cost-per-launch efficiency of propulsive landing systems in practice.