China Aerospace Science and Technology Corp (CASC) successfully recovered the first stage of its Long March-10B rocket on July 10, 2026 [1].

This achievement marks a significant shift in the global space race as China implements reusable technology to lower launch costs and increase the frequency of missions. By reducing the need to build new boosters for every flight, CASC aims to compete more effectively in the emerging space-access market [3, 5].

The recovery took place at sea on a floating platform located off the coast of China [4]. To secure the vehicle, CASC utilized a net-based capture system consisting of a cross-grid of wires [3]. This method allows the rocket to be caught and stabilized upon descent, preventing the booster from being lost to the ocean [4].

This development mirrors the efforts of SpaceX, which uses a different mechanical approach to reuse its hardware. SpaceX employs a pair of mechanical arms known as "chopsticks" to catch boosters [2]. These arms operate from a drone ship positioned in the Atlantic Ocean near Cape Canaveral, Florida [4].

While both nations are pursuing reusability, their engineering paths diverge. The Chinese system relies on a flexible, wide-area net to intercept the falling stage, whereas the SpaceX system uses precise mechanical gripping to secure the rocket. This divergence highlights different philosophies in aerospace engineering, with one favoring a wide-capture net and the other favoring a targeted mechanical grasp [2, 3].

CASC's successful test of the Long March-10B [2] demonstrates that the agency has moved beyond theoretical models to operational recovery. The move is intended to increase launch cadence, allowing for more rapid deployment of satellites and crewed missions as China expands its lunar and orbital ambitions [3, 5].

CASC successfully recovered the first stage of its Long March-10B rocket on July 10, 2026.

The successful recovery of the Long March-10B indicates that China is rapidly closing the technical gap with the US in reusable launch vehicle technology. While SpaceX currently leads in commercial cadence, CASC's adoption of a net-based system provides a viable alternative for booster recovery. This competition will likely drive down the cost of orbiting payloads globally and accelerate the timeline for permanent lunar bases and deeper space exploration.