SpaceX's Starship Recovered SHOCKED China...Here's what Elon Musk did!

SpaceX just pulled a wrecked Starship booster out of the ocean, and China should be paying close attention. Booster 13, thought to be lost to the sea, has been recovered, and it's packed with secrets. Secrets that China's Starship clones might never get their hands on. But while China races to replicate SpaceX's success, Booster 13's return might just throw a wrench in their imitation game. What does this wreck reveal about Starship's evolution? And why is this a silent blow to China's bold ambitions? Strap in, and in today's TechMap episode, we're diving into the tech, the tension, and the truth behind SpaceX's latest sea recovery, and why it matters more than you think. It has been 8 months since Starship Flight 6, and on July 20, Elon Musk announced on X that Booster 13, the hardware from Flight 6, had been recovered from the sea. Flight 6 can be considered a notably successful test flight. On November 19, 2024, at 4 p.m. Central Standard Time, both Booster 13 and Ship 31 launched from Pad A. The stack appeared to lift off the pad more quickly than previous flights, likely because SpaceX operated their Raptor 2 engines at full thrust instead of the prior 90% level. Booster 13 ascended flawlessly with all 33 engines functioning. At stage separation, the command Go for Catch was given. Following separation, Ship 31 ignited all six engines and proceeded towards space. After the boost-backburn shutdown, SpaceX issued a Booster Offshore Divert call, indicating an issue with either the booster or the tower, which led to aborting the catch attempt. Booster 13 then executed a soft landing in the water, but tipped over post-touchdown, resulting in the methane tank exploding upon contact with the water. Following the booster's destruction in the Gulf of Mexico, Ship 31 continued into its coast phase, traveling through the night. At the expected time, it performed an in-space relight using a single sea-level Raptor for approximately one second. Afterward, the vehicle entered re-entry, experiencing burn-through on at least one forward flap. Nonetheless, despite using the older-style heat shield, Ship 31 survived re-entry and softly splashed down in the Indian Ocean. Elon Musk commented, Well, the fairing did blow up when the ship fell over after landing in the water, as expected. Booster 13's post-landing explosion triggered widespread speculation. Imagery indicated the booster's upper section was heavily damaged, while the lower part appeared largely intact and briefly remained afloat before submerging. The explosion's cause has been debated. Some speculate the flight termination system may have been triggered, but the controlled descent suggests SpaceX intended to recover the booster for analysis. This theory is further supported by the use of a pre-designated landing zone, which implies there was no immediate need for self-destruction. Alternatively, the explosion could have resulted from structural failure during water impact, potentially breaching the fuel tank and causing a rupture and explosion. Despite the damage, intact components of Booster 13, particularly its engine systems, remain valuable for analysis. This prompted SpaceX to dispatch recovery vessels to retrieve them, similar to what was done for Booster 11 from Flight 4. At this point, some may question why SpaceX often recovers Starship booster components from the ocean several months after splashdown, rather than within a few weeks. For instance, Booster 11's engine section was launched on June 6, 2024, but wasn't salvaged until late September 2024. Similarly, Booster 12's hot staging ring launched on October 13, 2024, and was recovered on October 22, 2024. The primary reason lies in the complexity and logistics of offshore salvage operations. To begin with, the location of the splashdown plays a significant role. Boosters frequently land or aboard in the Gulf of Mexico, and can sometimes drift into Mexican territorial waters. This requires coordination with multiple agencies, obtaining permissions, and managing cross-border logistics before salvage vessels can safely proceed. The recovery process demands specialized vessels like the lift boat LBJILL. This type of vessel must be mobilized, navigated to the site, and stabilized above the debris using extendable legs to extract the booster from the water and secure it on board. These vessels are not on permanent standby for every flight. They're deployed as needed based on operational schedules. Weather and ocean conditions are another critical factor. Marine operations depend heavily on favorable weather and calm seas, which can delay recovery efforts by days or even weeks. Before initiating recovery, SpaceX conducts a thorough review of flight telemetry and splashdown data to plan logistics and reduce risks to both the hardware and the recovery team. Another key aspect is resource prioritization. SpaceX channels its primary resources into preparing boosters for reuse and maintaining launch infrastructure. Given that current Starship recovery efforts are focused more on retrieving components for analysis and refurbishment rather than immediate relaunch, the emphasis is on careful recovery rather than speed. That said, SpaceX does aim to reduce turnaround time and move toward faster recovery processes in the future. However, for now, sea recoveries remain intricate marine salvage missions that, due to their scale and operational demands, naturally extend over months instead of weeks. Moreover, speedy recovery helps reduce the effects of seawater exposure. And there's an added incentive preventing rivals from gaining access to proprietary technology. Anyway, if you love this deep dive, smash that like button, hit subscribe, and ring the bell. We're aiming for 150,000 subscribers and we need you to get there. China has gained a reputation for emulating SpaceX's technology, particularly the Starship rocket. A notable example is the Long March 9, seen as China's response to the world's super-heavy launch vehicles, mirroring ambitions that rival those of SpaceX's Starship. This rocket is being developed by the China Aerospace Science and Technology Corporation and is central to China's plans for future crewed lunar missions, Mars sample returns, and deep space exploration. As a result, it incorporates many features reminiscent of Starship. One key similarity is the adoption of methane-based propulsion. China has recognized the advantages of methane-fueled systems, including improved efficiency, reusability, and the potential for in-situ resource utilization, ISRU, on Mars. Both stages of the Long March 9 use YF215 engines fueled by methane and liquid oxygen. The first stage employs 30 YF215 engines, capable of producing 13 million pounds of thrust, close to the 16,500,000 pounds generated by Starship's booster versions 1 and 2. Measuring 374 feet, 114 meters in height, the Long March 9 is designed to deliver at least 150 tons of payload to low Earth orbit. By comparison, Starship, the largest and most powerful rocket ever built, stands about 400 feet, 122 meters tall, and offers a similar LEO payload capacity. With the Long March 9, China has effectively developed a powerful rocket with impressive payload capabilities. The vehicle is expected to come in at least three variants, one of which will be fully reusable, similar to Starship. The parallels continue with the Long March 9's upper stage, which features maneuvering flaps placed similarly to those on Starship's upper stage. However, there is one major distinction between the two mega-rockets. The Long March 9 is not slated to fly until 2033, whereas Starship has already conducted nine test launches, with the tenth planned for August 4. SpaceX aims to have Starship operational by mid-2027, in time for NASA's Artemis 3 mission to the Moon. Starship is set to serve as the crewed lunar lander for Artemis 3, transporting astronauts to and from the lunar surface, pending successful development. In addition to the Long March 9, China has also advanced the Landspace Zhuk-2 series. This rocket is also powered by methane and, in 2023, became the first methane-fueled rocket to reach orbit globally. However, there are some notable differences. Built by the Beijing-based startup Landspace, the Zhuk-2 is a medium-lift orbital launch vehicle. It weighs 216 tons at liftoff and uses four TQ-12 methalox engines in the first stage, each providing 67 tons of thrust. In mid-May 2025, an upgraded version called Zhuk-2E launched six satellites from Site-96 at the Jiuquan Satellite Launch Center in China. Zhuk-2E can carry 6,000 kilograms to a 200-kilometer low-Earth orbit or 4,000 kilograms to a 500-kilometer sun synchronous orbit. Compared to the original Zhuk-2, the two E-version features enhanced TQ-12A engines on the first stage with improved thrust and specific impulse, as well as a new TQ-15A engine with a movable nozzle on the second stage. To date, Landspace's rocket has launched five times, with only one recorded failure. Clearly, under a pro-imitation policy promoted by the Beijing government, CASC and Landspace are not the only Chinese companies replicating SpaceX's technology. On November 2, 2023, the eight-year-old company iSpace successfully conducted a hop test with its Hyperbola-2 test vehicle at the Jiuquan Satellite Launch Center. Similar to SpaceX's rockets, the small Hyperbola-2 features vertical landing, reusability, and four landing legs. Additionally, iSpace adopted methane and liquid oxygen propulsion instead of the solid fuel used in earlier prototypes, reflecting a shift inspired by SpaceX's Starship. The company's upcoming rocket, Hyperbola-3, is also following this trend. Aiming for its first low-Earth orbit flight in 2025, the launch is still pending. Currently, iSpace is focusing on developing a reusable first stage and plans to demonstrate recovery and reuse in 2026. By 2030, Hyperbola-3 is expected to support up to 25 launches per year. Standing 70 meters tall, the same height as Falcon 9 and Falcon Heavy, Hyperbola-3 has a variant called Hyperbola-3B, which will use a payload compartment similar in design to Falcon Heavy's and is capable of delivering up to 15 tons to low-Earth orbit. Another example is the company SpaceEpoch, whose rocket is constructed from stainless steel and closely resembles SpaceX's Starship. It also uses a combination of liquid oxygen and methane as fuel. There's also a suborbital vehicle developed by Cass Space that mimics Blue Origin's New Shepard. Its crew capsule named ZK bears a striking resemblance to SpaceX's Dragon capsule in exterior design. In addition to rockets and spacecraft, China has also engineered a booster catch tower inspired by SpaceX's Mechazilla, designed to catch and recover rocket boosters. In November 2024, Chinese rocket startup Cosmolia announced it had raised over 100 million yuan around $14 million to develop its Yuakeyan reusable rocket and recovery system. They showcased a prototype of their Mechazilla-style catch tower in a YouTube video. That video also reveals that the Chinese rocket is nearly identical to SpaceX's version. Clearly, China is making its own strides. In addition to Landspace and Cask, other startups such as Cass Space, Galactic Energy, Space, Cosmoleap, and Space Pioneer have all achieved orbital launches. China's momentum has prompted it to set an ambitious target. By 2030, it aims to send two rockets to the moon, one carrying a lander and the other transporting astronauts. Should we be concerned about Chinese technology imitating others? To a certain degree, yes. Unless China actually employs a patented or copyrighted product, their actions remain questionable.