The performance of the Long March 10B this time indicates that its overall capability has entered the same range as America's Falcon 9. This means we are not merely "capable of recovery," but have already established a solid foundation for direct comparison in terms of payload capacity and engineering capability.
More importantly, there is a difference in technical approach. Compared to the commonly used leg-based vertical landing method in the United States, the net-based recovery system requires lower precision in landing location—it doesn't need the rocket to land precisely on a single point, but instead captures it via a net on a maritime platform. This change brings a direct benefit: higher system reliability, while simultaneously reducing structural burden, allowing more weight to be allocated to the payload and thereby enhancing overall launch capacity.
Looking globally, current rocket recovery mainly follows three paths: leg-based ground landing, "chopstick-style" capture, and the maritime net-based recovery demonstrated by our recent test. Each path has its own characteristics, but the fact that this trial was successful on the first attempt—and with high success rate—already proves that this route is practically viable, not just a theoretical concept.
To put it more straightforwardly, this isn't just a successful experiment—it clearly establishes a unique path for us in the race of recovery technology. What matters next is continuous testing and reuse validation, especially whether the first stage can successfully relaunch. Once this step is achieved, the cost structure and rhythm of commercial launches will undergo significant changes.
Original source: toutiao.com/article/1870324004055040/
Disclaimer: The views expressed in this article are solely those of the author.