SpaceX still NO Plan to Catch Super Heavy after Two Starship V3 Launches, why? Is this a Setback?

There will be no ship catch attempt on flight 14. So what does that mean for the super heavy booster? Right now, two possibilities remain. But increasingly, the no catch scenario looks like the most likely outcome. So what changed? Why is SpaceX seemingly backing away from a tower catch? And if the ship isn't being caught, could the booster still make it into the tower? Let's break down the clues in today's episode. But before we begin, let me know what you think. Will SpaceX attempt a booster catch on flight 14 or play it safe and focus entirely on the mission? We are now in the final days before Starship flight 14. This could be one of the most important flights in Starship's development so far. For the first time, Super Heavy and ship are expected to work together on a mission designed to reach orbit. But what happens after that? A ship catch has already been ruled out for this first orbital attempt. That leaves the Super Heavy booster as the obvious candidate. Yet even after 2 V3 flights, 5 Starship flights and more than a year and a half since the last booster catch on flight 8 on March 6th of 2025, we may still not see a catch attempt on flight 14. And to be clear, SpaceX hasn't officially announced that. But based on the evidence so far, a no-catch scenario increasingly looks more likely. Why might that be? There were actually several reasons to believe SpaceX might attempt to catch B-21. First, when SpaceX ruled out a ship catch, it didn't specifically rule out catching the booster. Second, with only one operational launch tower, prioritizing the ship's orbital mission could leave the booster as the logical candidate for recovery. And catching the booster first would make sense as a stepping stone toward eventually catching the ship. Then came an important clue. An FCC document for flight 14 appeared to indicate a booster landing attempt at the launch site. More recently, the chopsticks and landing rails have also shown continuous movements, suggesting SpaceX is actively exercising the tower systems. Put together, those clues made a booster catch seem entirely possible. But there's one major problem. The last two V3 flights. On flight 12, B-19 suffered an engine failure shortly after liftoff. After separation, the flip became unstable and only one engine successfully relit for the landing burn. The booster couldn't generate enough thrust and ultimately impacted the ocean. Then came flight 13. B-20 performed better during ascent and boost back, but the landing sequence again suffered from insufficient engine relights. Once again, the booster failed to slow down enough for a controlled landing and was destroyed on impact. Both flights exposed a critical weakness. Raptor 3's restart and landing burn reliability still wasn't where SpaceX needed it to be. And that's a serious problem for a tower catch. A catch requires the booster to arrive at precisely the right position, velocity, and orientation, with the correct engines producing exactly the right amount of thrust at exactly the right moment. A failed splashdown destroys a booster. A failed tower approach could damage the Mechazilla launch tower or OLM and potentially shut down the entire pad. So, SpaceX may now have a simpler priority. Prove the booster can land reliably before trying to catch it. That's where flight 14 comes in. Instead of risking B-21 against the tower, SpaceX could use the mission to test whether the changes made after flights 12 and 13 have actually solved the underlying problems. A successful controlled splashdown would provide something extremely valuable. Confidence. The catch hardware may already be ready. The chopsticks may be ready. The tower may be ready. But none of that matters if the booster can't reliably arrive at the right place, the right speed, with the right engines operating. So, despite the earlier close, the two V-3 failures may ultimately be the deciding factor. Flight 14 could therefore be less about creating the biggest spectacle and more about proving that Super Heavy can finally come home safely. If B-21 succeeds, the path toward another booster catch becomes much clearer. The catch may be delayed, but it certainly doesn't have to be abandoned. It could simply be waiting for the moment when SpaceX has enough confidence to take the next step. Now, the big question is, is this actually a setback for SpaceX? There are plenty of mixed opinions about that, but personally, I don't think it is. In aerospace engineering, choosing caution over spectacle isn't a step backward. And if SpaceX already has warning signs from the previous V-3 flights, forcing a booster catch simply to satisfy expectations would make very little sense. The cost wouldn't be limited to losing one booster. A failed catch could potentially damage the launch tower or the OLM, disrupting the infrastructure SpaceX needs for an increasingly aggressive launch cadence. It could also trigger lengthy investigations, repairs, redesigns, and additional testing. In other words, chasing a spectacular moment too early could end up costing SpaceX far more time than simply waiting for the hardware to be ready. That's the key point. SpaceX isn't trying to win a popularity contest, it's trying to build a reusable transportation system that can eventually support missions to the moon and Mars. That means, technical reliability has to come before the next viral video. A controlled water landing may not be nearly as exciting as watching Mechazilla grab a giant booster out of the sky, but it can provide something much more valuable, data. Every successful landing gives engineers another opportunity to study the engines, the relight sequence, guidance, flight control systems, and the vehicle's behavior during the final moments of descent. That information can then be used to reduce the remaining uncertainty. And when the time finally comes to attempt another booster catch, it won't have to be a gamble. It can be the result of hundreds of engineering decisions backed by real flight data. That's especially important when you consider what's waiting for Starship SpaceX is working toward increasingly demanding lunar missions with Artemis 3 currently targeting mid-2027 and two human landing missions planned for 2028. Those timelines put enormous pressure on the program, but moving too quickly and suffering a major failure could create delays that are far more damaging than taking a little extra time now. That's why I think Flight 14 should be viewed differently. It doesn't have to deliver the most awe-inspiring catch we've ever seen. It needs to prove that Starship can perform the next step reliably. And if B-21 can complete its mission and execute a successful controlled splashdown, SpaceX will have something extremely viable heading into the next flight. More confidence, more data, and potentially a much stronger foundation for the catch attempt we've all been waiting for. So yes, Flight 14 probably won't feature a booster catch, but that doesn't mean we're moving away from the catch. It could actually mean we're getting closer to it. If SpaceX uses Flight 14 to successfully validate the improvements made after Flights 12 and 13, then the booster catch could become a realistic objective for a future mission. And if everything else falls into place, we could even start talking about catching both stages. That may sound ambitious, but remember how quickly Starship's development can move once SpaceX has the data it needs. The company is already accelerating preparations for future vehicles, and the possibility of launching Starships every one to two months is becoming increasingly important. That means we may not have to wait very long for the next major breakthrough. Flight 14 could be the test that proves Starship is ready for the next level, and Flight 15 could be where things get really interesting. For now, the catch may have to wait, but sometimes the fastest way to reach a breakthrough is knowing exactly when not to rush it. But one way or another, SpaceX's push toward rocket reusability remains one of the most inspiring developments in the space industry. But SpaceX is no longer alone in the race it helped create. Around the world, more companies are now trying to land, recover, and reuse their rockets, and that competition is getting serious. The most obvious challenger is Blue Origin with New Glenn. Its first stage uses seven methane-burning BE-4 engines and is designed to land vertically on the recovery vessel Jaclyn in the Atlantic. Blue Origin has now landed the booster twice and reused one of those boosters with a long-term goal of achieving at least 25 flights from the same vehicle. That level of reusability could eventually support a much higher launch cadence while driving down the cost of each mission. And with Blue Origin also involved in NASA's Artemis program, New Glenn could become an important part of the next generation of lunar missions. Then there's Rocket Lab, which is taking a very different approach. Its Electron booster uses a parachute to return toward the ocean where it can be recovered and refurbished. Rocket Lab has already reused Rutherford engines recovered from previous flights, but its bigger bet is Neutron. The rocket is being designed around a carbon composite structure and an integrated fairing called the Hungry Hippo, eliminating the need to recover and reinstall a separate fairing. Its first stage is also designed for a propulsive landing, either back at the launch site or on a recovery platform. It's a very different philosophy from Falcon 9, and that's exactly what makes Neutron interesting. Then there's China. Landspace's Zhuge 3 has also taken a major step toward reusable launch after its methane-powered booster successfully performed a landing following a payload mission. Landspace is targeting up to 20 reuse cycles for the booster as it works to reduce launch costs for domestic and international customers. China is also experimenting with other recovery concepts including cable-based systems, and Stokes Space is taking the concept even further with Nova, a fully reusable vehicle designed to recover both stages using technologies including an actively cooled upper stage heat shield. So, the basic philosophy behind Starship is no longer unique to SpaceX. Build a rocket, launch it, recover it, refuel it, fly it again. The methods differ. Parachutes, propulsive landings, catching systems, and entirely new recovery architectures, but the objective is the same. Make spaceflight more reusable, more frequent, and eventually, much cheaper. And that's important because these companies aren't just simply copying SpaceX. They're developing their own solutions to the hardest problems in rocket recovery. Everyone wants a piece of the reusable launch market, and everyone wants to challenge SpaceX's dominance. But SpaceX still has one enormous advantage. Experience. Falcon 9 and Falcon Heavy have demonstrated reusable launch operations on a scale no other company has matched. SpaceX has accumulated hundreds of booster landings and repeatedly reduced the time needed to prepare previously flown hardware for another mission. And then there's Starship. Super Heavy and Ship are designed to take reusability even further. Instead of recovering only the first stage, SpaceX wants to recover both stages. Instead of landing the booster on a conventional pad, it wants to catch it with the launch tower. And eventually, the same philosophy could apply to the Ship. No operational system has demonstrated that capability yet. That's why Flight 14 remains so important. Flight 14 may not deliver the dramatic booster catch we've been waiting for, but it can still move Starship closer to that goal. Because every Starship flight is another step toward a future where rockets don't disappear after launch. They come home, they get prepared, and they fly again. Thanks for watching, and I'll see you in the next video.