China achieves world’s 1st net-based rocket stage recovery today

China has achieved a historic milestone in reusable spaceflight by successfully conducting the world’s first net-based recovery of an orbital-class rocket’s first stage. The breakthrough came during the maiden flight of the Long March 10B rocket, when its first-stage booster executed a controlled vertical descent and was captured by a specially designed offshore recovery platform using a suspended wire-net system in the South China Sea. The mission marks China’s first successful recovery of an orbital-class rocket booster and introduces a new approach to rocket reusability that differs from the landing-leg method pioneered by SpaceX.

The achievement represents a major step in China’s efforts to develop reusable launch vehicles for future satellite deployments, commercial space missions, and crewed lunar exploration. By recovering and potentially reusing first-stage boosters, China aims to significantly reduce launch costs while increasing launch frequency, a capability regarded as critical for building large satellite constellations and supporting long-term space ambitions.

Long March 10B Makes History

The Long March 10B lifted off from the Hainan Commercial Space Launch Site and successfully delivered its payload into orbit before beginning the booster recovery demonstration.

Mission highlights include:

• First successful net-based recovery of an orbital-class rocket booster.
• China’s first controlled recovery of a launch vehicle’s first stage.
• Maiden flight of the Long March 10B.
• Booster performed a powered vertical return.
• Recovery completed on a specialized offshore platform.
• Successful orbital mission alongside the recovery demonstration.

The booster was recovered roughly six minutes after stage separation, demonstrating precise guidance, navigation, and landing capabilities.

How the Net-Based Recovery Works

Unlike conventional reusable rockets that land on deployable legs, China’s system uses a specially engineered offshore recovery platform equipped with tensioned wires forming a large capture net.

The recovery process involved:

• Controlled vertical descent of the booster.
• Precision guidance toward the offshore platform.
• Landing hooks mounted on the rocket.
• Capture by the suspended wire network.
• Stabilization of the recovered stage without a traditional ground landing.

This approach eliminates the need for heavy landing legs, potentially allowing the rocket to carry more payload while simplifying parts of the recovery system.

Why Reusable Rockets Matter

Recovering and reusing rocket stages is one of the most important developments in modern spaceflight.

Reusable launch systems can:

• Reduce launch costs.
• Increase launch frequency.
• Shorten refurbishment time.
• Improve commercial competitiveness.
• Support large satellite constellations.
• Enable more ambitious lunar and deep-space missions.

SpaceX demonstrated the commercial viability of reusable boosters through propulsive landings, while China’s net-based approach explores an alternative engineering solution.

Part of China’s Lunar Ambitions

The Long March 10 family plays a central role in China’s future space program.

The rocket is expected to support:

• Crewed lunar missions before 2030.
• Deployment of large satellite constellations.
• Commercial launch services.
• Future reusable launch operations.
• Expansion of China’s space infrastructure.

Developers plan to conduct another recovery flight before the end of 2026 as they continue validating the technology.

How It Compares With SpaceX

Although both systems pursue rocket reusability, their recovery methods differ significantly.

SpaceX Falcon 9:

• Lands vertically on deployable landing legs.
• Uses autonomous droneships or ground landing pads.
• Proven through hundreds of successful recoveries.

China’s Long March 10B:

• Lands vertically using powered descent.
• Uses landing hooks and a suspended wire-net capture system.
• Eliminates the need for landing legs.
• Successfully demonstrated for the first time on an orbital-class booster.

Whether the net-based method proves more economical or operationally efficient will depend on future reuse demonstrations.

What Investors and the Industry Will Watch

The next phase of development will focus on:

• Refurbishment time for recovered boosters.
• Repeat recovery success.
• First booster reflight.
• Commercial launch adoption.
• Manufacturing cost reductions.
• Expansion of reusable launch capabilities.

Successful reuse—not just recovery—will ultimately determine the commercial value of the technology.

Outlook

China’s successful net-based recovery of the Long March 10B first stage marks a significant milestone in reusable launch technology. By becoming the first country to recover an orbital-class rocket booster using a wire-net capture system, China has introduced a new engineering approach that could complement existing reusable launch methods.

As China accelerates its commercial space program and prepares for future lunar missions, reusable rockets are expected to play a central role in lowering launch costs and increasing mission cadence. The success of future booster reflights and additional recovery missions will determine whether the net-based system becomes a viable long-term alternative in the global race for reusable space transportation.