"SpaceX Shocked Industry with new Starship Method to Launch NASA Moon Mission after B18 Failure... === #techmap#techmaps#elonmusk#starshipspacex === Intro 0:00 The possible causes behind 0:49 Impacts 5:03 === 1) SOURCES OF THUMBNAIL: 2) SOURCES OF VIDEO AND IMAGES: LabPadre Space: https://twitter.com/LabPadre https://www.youtube.com/c/LabPadre Amy https://x.com/mymatrixplug WAI: https://www.youtube.com/@Whataboutit https://twitter.com/FelixSchlang Starship Gazer: https://twitter.com/StarshipGazer https://www.youtube.com/c/StarshipGazer Interstellar Gateway - IGW https://www.youtube.com/@InterstellarGateway/featured https://x.com/interstellargw Starbase Surfer : https://twitter.com/cnunezimages 3DDaniel: https://x.com/ThreeDeDaniel https://www.youtube.com/channel/UC1exLLvBo5xgFTsPBafk19g tobewobemusic https://x.com/tobewobemusic https://www.youtube.com/@tobEwobEmusic/videos Evan Karen: https://www.youtube.com/channel/UCDN1X8Fz1oAXX-rBcOWjzmg SLS (Space Launch System): https://x.com/ScottLikedSLS Ryan Hansen Space: https://twitter.com/RyanHansenSpace/ https://www.youtube.com/c/RyanHansenSpace === SpaceX Shocked Industry with new Starship Method to Launch NASA Moon Mission after B18 Failure... After wrapping up the testing phase for Starship’s Block 2 hardware, SpaceX didn’t waste a moment before rolling out the very first Block 3 unit to Massey’s for testing. This brand-new prototype, known as Booster 18, is set to power Flight 12 early next year. But things took an unexpected turn during B18’s very first cryogenic test in the early hours of November 21. Cameras caught a sudden burst of gas; something inside the booster appeared to explode. In today’s Techmap episode, we’ll break down exactly what happened, explore the possible causes behind this anomaly, and discuss what it means for the future of the Starship program. SpaceX Shocked Industry with new Starship Method to Launch NASA Moon Mission after B18 Failure... At the time of testing, Booster 18 was undergoing a gas system pressure test — a crucial step before moving on to cryogenic fueling, full pressure verification, and ultimately, a static fire of all 33 upgraded Raptor engines. However, during this particular test, things didn’t go as planned. Fortunately, no Raptor engines were installed, and there was no propellant on board. The system was only pressurized using nitrogen and oxygen to evaluate the integrity of the tanks and the Composite Overwrapped Pressure Vessels (COPVs). Sources have confirmed that B18 sustained serious damage: First – Liquid Oxygen Tank Rupture: The core of the incident was a ruptured Liquid Oxygen Tank. A large portion of the tank was blown out, leaving a gaping hole in the booster’s structure. SpaceX Shocked Industry with new Starship Method to Launch NASA Moon Mission after B18 Failure... Second – Structural Damage: Although the damage was significant, it wasn’t as catastrophic as the explosion of the Starship upper stage S36 back in June, which devastated the Massey test site. This time, the destruction appears mostly confined to Booster 18 itself. Third – Post-Incident Status: Interestingly, B18 didn’t immediately topple over. It’s believed that the booster remained upright, supported by its new, much larger Liquid Methane Transfer Tube — a structure roughly the same size as a Falcon 9 booster. Given the extent of the damage, B18 has been officially scrapped. With this setback, SpaceX currently has no completed Block 3 boosters ready for testing and will now shift focus to Booster 19. === Subcribe TechMap: http://tinyurl.com/3z5ysrtf"
After wrapping up the testing phase for Starship's Block 2 hardware, SpaceX didn't waste a moment
before rolling out the very first Block 3 unit to Massey's for testing. This brand new prototype
known as Booster 18 is set to power Flight 12 early next year. But things took an unexpected turn
during B18's very first cryogenic test in the early hours of November 21st.
Cameras caught a sudden burst of gas. Something inside the booster appeared to explode.
In today's TechMap episode, we'll break down exactly what happened, explore the possible
causes behind this anomaly, and discuss what it means for the future of the Starship program.
At the time of testing, Booster 18 was undergoing a gas system pressure test, a crucial step,
before moving on to cryogenic fueling full pressure verification and ultimately a static
fire of all 33 upgraded Raptor engines. However, during this particular test, things didn't go
as planned. Fortunately, no Raptor engines were installed and there was no propellant on board.
The system was only pressurized using nitrogen and oxygen to evaluate the integrity of the tanks
and the composite overwrapped pressure vessels' COPVs.
Sources have confirmed that B18 sustained serious damage.
First, liquid oxygen tank rupture. The core of the incident was a ruptured liquid oxygen tank.
A large portion of the tank was blown out, leaving a gaping hole in the booster's structure.
Second, structural damage. Although the damage was significant, it wasn't as
catastrophic as the explosion of the Starship upper stage S-36 back in June,
which devastated the Massey test site. This time the destruction appears mostly confined
to Booster 18 itself. Third, post-incident status. Interestingly, B18 didn't immediately topple over.
It's believed that the booster remained upright, supported by its new,
much larger liquid methane transfer tube, a structure roughly the same size as a Falcon 9
booster. Given the extent of the damage B18 has been officially scrapped, with this setback,
SpaceX currently has no completed Block III boosters ready for testing and will now shift
focus to Booster 19. The root cause of the failure is still unknown and SpaceX engineers
are investigating. But based on early observations, several theories have emerged.
Most popular, CoPV explosion. Photos of the aftermath suggest a CoPV located at the base
of one of the large Chinese may have exploded during the test. This could have caused a chain
reaction along the chain triggering the rest of the CoPVs to fail and ultimately rupturing the
liquid oxygen tank. This isn't the first time SpaceX has experienced a loss due to a CoPV issue
was destroyed in June 2025 during a static burn test for the same reason.
Another theory. Weld failure. Some speculate the problem might stem from a weld failure in the
tank wall. The complex welding required for the version 3 internals, like the massive downcomer,
could have introduced weak points. One observer suggested it may have been a bad weld,
possibly combined with thinner stainless steel or even a new alloy. Most likely,
it was a bad weld. Stretching that assumption a little more, maybe a bad weld combined with
a thinner gauge of stainless or maybe even a new alloy. Alternate theory. Test process error.
Others think this could have been a procedural issue, possibly an overpressure event. Some even
argue the opposite, that it looked more like a low-pressure collapse. The idea is that a stuck
valve during draining may have prevented gas from replacing the volume of liquid being removed,
causing the tank to deflate, potentially linked to the new quick disconnect systems.
In summary, Booster 18's failure was the result of a liquid oxygen tank rupture during a gas
pressure test. No engines, no fuel, just nitrogen and oxygen. The structural damage was so severe
that SpaceX decided to scrap the vehicle entirely. The leading theory points toward a COPV explosion
setting off a chain reaction, though welding or procedural errors remain possible causes.
So, what do you think really happened? What caused Booster 18's anomaly?
Share your thoughts down in the comments, I'd love to hear your take.
Thankfully, there were no reports of injuries SpaceX always enforces strict safety protocols
that keep personnel far from the test area during such high-risk procedures. Still,
the company now faces a tough dual challenge safely removing Booster 18 from the test stand
and making critical decisions about both the vehicle's fate and the future direction of the
Starship Block 3 program. For safety and cleanup challenges, engineers first need to assess what
structural integrity remains before attempting any removal operation. A few options, one is to let the
vehicle collapse naturally, which could be safer than trying to manually dismantle or topple it.
Another option is to use the LR11000 crane stationed at Massey's to carefully stabilize
and then lift the booster away. At present, we finally have the answer. Crews are cutting Booster
18 as they would if it were in Megabay, separating the liquid oxygen and methane tanks. Then a crane
is used to lift each part up. The Booster 18 test failure on November 21, 2025 marks a significant
blow to the Starship program. This wasn't just any booster, B18 was the very first Block 3
prototype representing a major technological leap meant to speed up development and improve
performance across the fleet. The immediate fallout is a delay to the next Starship mission
Flight 12, which was supposed to fly with B18 and Ship 39 in early 2026. With B18 now confirmed to
be beyond repair and slated for scrapping, the earliest possible launch date will slip by at
least two months, and realistically even longer. Despite this, SpaceX is still targeting Flight 12
in Q1 2026. The Starbase team plans to have the next Super Heavy booster stacked in December,
which puts it on pace with the test schedule planned for the first Starship version 3 vehicle
and associated ground systems. The loss of Booster 18 has created yet another hurdle this time
for SpaceX's brand new launch infrastructure, Pad 2. Without B18, as said, the company no longer
has a powered version 3 booster available to carry out the crucial commissioning tests at Pad 2.
These tests are essential for verifying that all of the pad's upgraded fueling and tank farm systems
work correctly under real operational conditions. Launch Pad 2, located at SpaceX's Starbase in Texas,
is a completely redesigned facility. It features new flame trenches and an expanded, more robust
tank farm designed to streamline Starship launch operations and support a higher flight cadence.
However, without a functional booster for these tests, the team can't validate the new fueling
systems a major bottleneck in getting the pad fully operational. The B18 failure also threatens
SpaceX's broader timeline for Starship development. The company's 2026 targets depend heavily on
maintaining rapid testing and frequent flights to mature both the vehicle and infrastructure.
Some of the key objectives now at risk include demonstrating booster landing and reuse,
achieving a successful upper stage tower catch next year, conducting operational Starlink
deployment missions, running NASA-related test campaigns, particularly the in-orbit refueling
demo planned for June 2026, which is crucial for keeping NASA's Artemis human landing system on
schedule. NASA's goal of landing astronauts on the moon in the second half of 2027 was already
considered ambitious. The B18 setback may push that timeline even further if SpaceX cannot recover
momentum quickly. Despite the setback, there is cautious optimism. Compared to the Starship
upper stage explosion at Massey's last June, which caused widespread infrastructure damage in this
case, the destruction was largely confined to booster 18 itself. Because Starbase is designed
for rapid production and iterative development, SpaceX may be able to recover faster than many
expect. Once engineers determine the root cause and adjust their processes, the path to resuming
tests and eventually launches could be relatively swift. The failure happened during a pressure test
meant to validate the design and manufacturing process, so a rupture while unfortunate was always
a possible outcome. After all, booster 18 is the very first Block III iteration, and testing these
early prototypes is how SpaceX identifies weaknesses and refines the design for future
builds. Interestingly, many in the space community are viewing this incident with cautious optimism.
They see it not as a major setback, but as a natural part of the iterative development process
that has defined SpaceX's success over the years, learning fast, fixing fast, and coming back even
stronger. I know this sounds like a cliche, but having these kinds of issues now makes the entire
program more reliable in the future. Ultimately, you know your design limits better than any other
company or rocket, and you improve from there. A few setbacks prompt you to achieve the best and
most efficient design possible sooner. 56 people were killed in 1954 because they didn't know
squarish windows were a bad idea on passenger airplanes. Calm down with the the sky is falling
BS. Ah, they are still in dev and testing. This is not an operational rocket. It's the biggest
rocket ever, and it's being developed to be fully reusable, and they are developing it using a very
public iterative approach. We also have absolutely little information to tell us whether this was a
major issue or a minor issue, potentially even a test process issue. Just because something is very
visible doesn't mean it's inherently more complex or harder than something you might never have seen
from the outside in of a public observer. We all knew before today that this was a major new
variation with massive fuel plumbing changes that needed to be checked out. Many expected bumps along
the way with V3 just hopefully less than V2. If all that was impacted from this test was damage to
a booster, and the issue is easily identified and fixed, it will be limited in impact or delay.
I would have loved to have seen a clean campaign from testing to fully successful flight, but
certainly not too concerned about the overall program. They built that like five months. The
next one will be done in a month. This is what rapid iteration looks like. Believe me when I say
Starship is inevitable. They have parts for another half-dozen boosters immediately in line
behind this one. Once Starship hits its stride in a few years, this bump in the road won't even be remembered.