[00:02] orbit, then we would actually have that gate and have the FAA let us go to orbit >> Yes, you heard that right. We're already talking about Starship flight 14 even before flight 13 has launched. Why? Because everything Starship is set to
[00:18] attempt on the next flight is really just groundwork for an even bigger, more critical mission on flight 14. This will mark the first time SpaceX's Starship achieves something previously thought impossible. And it'll put China to
[00:31] shame, especially after they just barely managed to land a rocket booster. So, when exactly is flight 14 launching and why should you actually care? Let's break it down. Before we dive into flight 14, I want to say thank you,
[00:45] genuinely, to everyone who's been watching and subscribing. And I'm going to repay that with something worth your time. One last thing about flight 13 that you don't want to miss. On the afternoon of July 14th, with the flight
[00:58] 13 launch window closing in fast, the doors of Mega Bay 1 swung open and booster 20 rolled out. A crew moved it straight to launch pad 2 to get stacked with ship 40. But, here's where it gets fun. At the exact same time, the doors
[01:12] of Mega Bay 2 opened and Starship gazers cameras caught the team loading ship 40's payload bay with 20 real Starlink V3 satellites one by one into what is essentially a giant Pez dispenser bolted onto a rocket. I'm not making that up.
[01:28] That's literally how SpaceX describes it. And honestly, watching a crew spaceship that's about to leave the planet never gets old. Ship 40 is expected to be fully stacked at the launch pad sometime on July 15th ahead
[01:43] of the launch window opening on the 16th. The teams just keep working, synchronized on schedule like a pit crew for the world's biggest race car. And that's just the flight 13 crew. The flight 14 team is already deep in their
[01:56] own grind and honestly their workload is even heavier. even heavier. Ship 41, the third block three, Starship Alize has been stacked since late May. By late June it had already completed
[02:08] cryogenic proof testing at Massy. That's where they flood the stainless steel tanks with super cold liquid and crank up the pressure simulating the actual loads of holding liquid methane and oxygen. Ship 41 passed. Now it's almost
[02:22] certainly getting its engines installed as we speak. Here's why that matters. If you look at Ship 40's timeline, SpaceX went from cryo test to engines installed to static fire in about 20 days. If Ship 41 follows the same pace, and there's no
[02:37] reason it wouldn't, we're looking at a static fire somewhere around July 22nd or 23rd. Meanwhile, Booster 21 is growing fast. Stacking kicked off around main sections were already coming together. The booster frame is now
[02:52] nearly complete over in Mega Bay 1. Next up is its own cryo proof test at Massy, likely a few days after Ship 41 static fire. But either way it should wrap up before the end of July setting up a static fire in early August, which
[03:06] brings us to the number everyone's been trying to figure out. When does Flight 14 actually launch? Based on the hardware progress, the testing timeline, and how previous flights have paced out, my best estimate, shared by a lot of
[03:20] people in the community, is net August 20th. That's not a confirmed date. But given everything we're seeing on the ground right now, it's not a wild guess either. And here's where it gets interesting. SpaceX COO Gwynne Shotwell
[03:34] has been pretty clear about where Flight 14 is headed. According to her, Flight 13 is essentially a repeat of Flight 12. Same mission structure, fix what broke, prove what works. But Flight 14 changes the equation entirely with one single
[03:50] decision point. If the vehicle is healthy enough and the FAA signs off, ship will keep burning and go for orbit. That's it. One gate. But everything on the other side of it is different. On every previous flight, ship reached near
[04:04] orbital velocity, but was always on a trajectory that curved back into the atmosphere. The moment the engines cut off, it was already committed to coming down. That was intentional, a safety net. If Starship lost control after
[04:17] engine cut off, it would reenter on its own instead of becoming a giant uncontrolled object in orbit. Flight 14 could be the first time SpaceX crosses that line. After separating from booster 21, ship 41 will burn its three
[04:32] sea-level Raptors and three Raptor Vacuums through the end of ascent. Near the top of that burn, the flight computer will run a rapid health check. Engines, tank pressures, power, guidance, thermal state. If everything
[04:46] clears the criteria, ship 41 completes orbital injection. above the atmosphere, and just like that, it becomes a spacecraft actually circling Earth. From that moment, it
[04:59] won't fall on its own anymore. To come home, ship 41 has to actively choose to. So, where does it go? And where does it come down? Launching from Starbase, Starship heads east or southeast to ride Earth's rotation and stay clear of
[05:14] populated land. After hot staging, booster 21 turns back toward Texas, while ship 41 keeps accelerating out over the Atlantic. A trajectory close to SpaceX's original orbital plan would take it across Africa, the Indian Ocean,
[05:29] Southeast Asia, and into the central Pacific, which is where Hawaii comes in. Hawaii sits west of Texas on a map, but Starship can't simply fly west over Mexico and the continental US. It has to go east. So, to reach waters near
[05:45] Hawaii, ship 41 would need to fly nearly one full lap around the planet. Back in 2021, SpaceX described an orbital flight lasting around 90 minutes, ending with a soft ocean landing roughly 100 km off the northwest
[06:00] coast of Kauai. That kind of trajectory could return for flight 14, though the exact location and timing will depend on whatever orbital parameters the FAA approves. More recent environmental documents still include the Hawaii and
[06:14] central North Pacific region, but expanded into an enormous area. NOAA requires any Starship landing zone to stay at least 100 miles from Hawaii and stay at least 100 miles from Hawaii and 150 miles from the Papahānaumokuākea
[06:28] Marine National Monument. So, landing near Hawaii doesn't mean ship 41 is dropping into Waikiki. The actual splashdown point is likely somewhere in the middle of the ocean, hundreds of kilometers from any island, far enough
[06:41] to reduce risk to people, shipping lanes, and sensitive marine ecosystems. But before any of that, what does ship 41 actually do while it's up there? First, confirm the orbital insertion held. After engine cut-off, attitude
[06:56] control has to stabilize the vehicle, maintain communications, and manage propellant in near zero gravity. Methane and oxygen don't pool at the bottom of the tank anymore. They drift, bubble, shift around. Before SpaceX can fire the
[07:11] settled back to the right end of the tank with stable pressure and a clean feed to the turbo pump. It sounds like a footnote, it isn't. If SpaceX can't manage propellant in orbit, Starship
[07:23] can't deorbit, can't refuel in space, can't go to the moon. Next could be payload deployment. Flight 13 carries 20 real Starlink V3s, but on a suborbital arc, they'll reenter within minutes. Flight 14 is the first chance to prove
[07:38] Starship can deliver payload to a useful orbit. SpaceX hasn't announced what ship 41 is carrying, but a live Starlink batch would be the obvious choice. And if that happens, it won't be a demonstration anymore. It'll be Starship
[07:52] doing the actual job it was built to do, putting massive satellites into orbit at a scale Falcon 9 simply can't match. Then comes the test that decides everything, Raptor relight for the deorbit burn. This burn drops the
[08:05] perigee back into the atmosphere. The moment it's done, ship 41 is locked onto a re-entry corridor toward the Pacific. And there's no changing the destination. brutal in a way none of the previous flights have been. Higher velocity means
[08:21] more energy to shed, longer plasma exposure, and significantly more thermal load on the heat shield. One cracked tile, one gap, and superheated gas finds its way to bare steel. The flaps have to keep working through the plasma.
[08:35] Guidance has to keep a massive vehicle belly skimming through the atmosphere with almost no margin for error. That's why ship 41 almost certainly won't be coming back to Mechazilla on flight 14. SpaceX hasn't even attempted to catch
[08:48] ship on a suborbital flight yet. It makes no sense to attempt orbital injection, a deorbit burn, and orbital re-entry for the first time, and then try to bring the vehicle home to a tower sitting next to the production facility.
[09:01] The realistic scenario is ship 41 doing the belly flop, the flip, and the everything works, it decelerates to near zero just above the surface, touches down vertically, and tips over. SpaceX
[09:14] may lose the vehicle, but what they gain is more valuable, proof that a Starship coming back from orbit can hit the right zone, survive to the end, and accurately simulate the profile needed for a tower catch.
[09:28] Pacific, booster 21 could create the most emotional moment of flight 14. Right back in Texas. And it all depends on what Booster 20 does first. Flight 12
[09:40] showed Booster 19 running into trouble right after hot staging. The flip went wrong, heat got to the propulsion system, and five Raptors couldn't relight during the boost back burn. That chain of failures left the booster with
[09:52] no path to a controlled landing. Flight 13 is the make or break test. If Booster 20 separates clean, flips the right direction, lights enough engines, holds through boost back, and decelerates precisely over the water, SpaceX will
[10:06] have the evidence it needs that V3 architecture is ready to come home to the tower. And Booster 21 would be the first one to try. V3 swaps the old four-fin configuration for three larger, stronger fins mounted lower to reduce
[10:20] heat exposure during hot staging. The catch points are built directly into the fins. Raptor 3 is more powerful and simpler, letting SpaceX strip away layers of engine base shielding that older boosters needed. But no design
[10:34] document proves a catch, only the flight does. The last time Mechazilla successfully caught a Super Heavy was Flight 8, March 6th, 2025. If Flight 14 lifts off around August 20th, 2026, that's 532 days, 17 months, and 14 days
[10:52] since a booster last settled into those arms. And this time, it won't be V2 hardware walking back in. This could be the first catch of a V3 booster. Three new fins, 33 Raptor 3 engines, and a design that's supposed to be more
[11:06] powerful, more reliable, and more reusable than anything that came before it. A successful catch would prove that the new generation doesn't just lift heavier payloads. It can come back to exactly where it started. It opens the
[11:19] door to booster reuse, higher cadence, and eventually the hardest target of all, catching Starship itself. That's why Flight 14 matters as much as it does. Ship 41 probably isn't coming back
[11:32] to Starbase, and honestly, we shouldn't expect it to. But if booster 21 returns to mecha-zilla while ship 41 completes orbital injection, deploys payload, re-lights its raptor, survives orbital re-entry, and comes down controlled in
[11:48] the Pacific, SpaceX will have proven both halves of the system on a single flight. One stage comes home. One stage proves it can go to orbit and find its own way back. Flight 14 isn't full reusability, but it might be the flight
[12:02] that makes full reusability stop feeling like a distant promise. After nearly 3 years of testing, explosions, redesigns, and trying again, Starship might finally be crossing the line from enormous test rocket to the
[12:16] orbital transport vehicle SpaceX promised from day one.