Mind Blowing! SpaceX performed Starship B16 Full Duration 9 Days After Flight 9 === 00:00:Intro 00:32: B16’s static fire test and its record 04:10: Starship’s strides in Florida 08:14: The failure of Japanese lunar landing attempt === #greatspacex#elonmusk#spacex#nasa#starship == Advertisers who want to place ads on our channel, please contact the email manager: [email protected] === SpaceX Starship SN Be the first to sponsor us Thank you. https://www.patreon.com/GreatspaceX?fan_landing=true === Mind Blowing! SpaceX performed Starship B16 Full Duration 9 Days After Flight 9 SpaceX has officially reached a major milestone on the road to Flight 10—and it comes with a record-breaking achievement. But that’s not all. Beyond just preparing for the next launch, Starship has also taken a significant step forward in shaping its future operations in Florida. Meanwhile, Japan's latest lunar lander has unfortunately failed during its landing attempt. We’ll break it all down in today’s episode of Great SpaceX.
It’s safe to say that Booster 16’s recent progress has become the center of attention. Following the excitement of Flight 9, many were eagerly awaiting a follow-up—something powerful enough to shake Starbase once again. That moment finally arrived, and it didn’t disappoint. Initial anticipation rose when the first static fire attempt encountered a few technical issues and was aborted. However, as mentioned before, there was always going to be a second chance—and SpaceX seized it. Mind Blowing! SpaceX performed Starship B16 Full Duration 9 Days After Flight 9 Leading up to the test, all the usual procedures were in place: system venting, propellant loading, and engine chilling. The fuel configuration remained consistent with prior tests, including a third of the methane tank and a full tank of liquid oxygen. A key signal that the test was imminent came when the water deluge system activated, flooding the pad with approximately 350,000 gallons of water. This helped reduce thermal and acoustic stress during ignition, protecting the launch pad infrastructure. With all systems go, the moment we’d been waiting for finally arrived. All 33 Raptor engines on Booster 16 ignited, delivering a staggering 7,000 tons of thrust. The static fire lasted around nine seconds—consistent with previous tests. Unlike some earlier firings that varied thrust mid-test to assess flexibility, this one seemed to focus on sustained output. It’s likely that SpaceX is already confident in the engines’ flexibility and instead wanted to push their endurance and stability. Mind Blowing! SpaceX performed Starship B16 Full Duration 9 Days After Flight 9 Following the test, there were no reports of anomalies or issues, signaling a successful outcome. This is a major step forward for SpaceX as it continues its preparation for Starship’s Flight 10. But beyond just a successful test, this event also marked a new record. The static fire of Booster 16 occurred just nine days after Flight 9—breaking the previous record held by Booster 13, which was tested 11 days after Flight 5. This quick turnaround surprised many, including long-time observers. After Flight 9, issues with the Booster Quick Disconnect system were noted, and it was expected that repairs and adjustments might take some time. Instead, SpaceX managed to address the problems and resume operations faster than anticipated, giving them a valuable head start on the next launch schedule. ---- We use images and content in accordance with the YouTube Fair Use copyright guidelines: https://www.youtube.com/intl/en/about/copyright/fair-use/ Any questions about copyright please send us via Gmail: [email protected] To be resolved, thank you.
SpaceX has officially reached a major
milestone on the road to Flight 10, and
it comes with a record-breaking
achievement. But that's not all. Beyond
just preparing for the next launch,
Starship has also taken a significant
step forward in shaping its future
operations in Florida. Meanwhile,
Japan's latest lunar lander has
unfortunately failed during its landing
attempt. We'll break it all down in
today's episode of Great SpaceX. It's
safe to say that B-16's recent progress
has become the center of attention.
Following the excitement of Flight 9,
many were eagerly awaiting a follow-up,
something powerful enough to shake
Starbase once again. That moment finally
arrived, and it didn't disappoint.
Initial anticipation rose when the first
static fire attempt encountered a few
technical issues and was aborted.
However, as mentioned before, there was
always going to be a second chance, and
SpaceX seized it. Leading up to the
test, all the usual procedures were in
place. System venting, propellant
loading, and engine chilling. The fuel
configuration remained consistent with
prior tests, including a third of the
methane tank and a full tank of liquid
oxygen. A key signal that the test was
imminent came when the water deluge
system activated, flooding the pad with
approximately 350,000 gallons of water.
This helped reduce thermal and acoustic
stress during ignition, protecting the
launchpad infrastructure. With all
systems go, the moment we'd been waiting
for finally arrived. All 33 Raptor
engines on booster 16 ignited,
delivering a staggering 7,000 tons of
thrust. The static fire lasted around 9
seconds, consistent with previous tests.
Unlike some earlier firings that varied
thrust mid test to assess flexibility,
this one seemed to focus on sustained
output. It's likely that SpaceX is
already confident in the engine's
flexibility and instead wanted to push
their endurance and stability. Following
the test, there were no reports of
anomalies or issues, signaling a
successful outcome. This is a major step
forward for SpaceX as it continues its
preparations for Starship's flight 10.
But beyond just a successful test, this
event also marked a new record. The
static fire of B16 occurred just 9 days
after flight 9, breaking the previous
record held by B13, which was tested 11
days after flight 5. This quick
turnaround surprised many, including
longtime observers. After flight 9,
issues with the booster quick disconnect
system were noted, and it was expected
that repairs and adjustments might take
some time. Instead, SpaceX managed to
address the problems and resume
operations faster than anticipated,
giving them a valuable head start on the
next launch schedule. It's still unclear
whether B16 will undergo any additional
tests such as single or dual engine
firings to simulate a future landing
scenario using just two engines, a
potential backup method for unexpected
flight anomalies. If such tests are
planned, they'll need to happen quickly.
A road closure is already in place for
June 7th from 5:00 a.m. to 9:00 a.m.
signaling that booster 16 is likely
already on route back to the mega bay by
the time you're watching this there. It
will undergo post- test inspections and
outfitting with critical systems
including the hotstaging ring and the
flight termination system. With B16 now
moving into its next phase, attention
shifts to ship 36. It's expected to
complete engine installation and head to
the Massie test site for static fire
testing in the near future. Testing for
S36 may be even more rigorous with
multiple static fires planned using
varying amounts of fuel and different
thrust levels. These tests will be
crucial in preparing the ship for tasks
such as relighting engines in space.
Once S36's testing is complete, it'll
return to Mega Bay 2 for further
inspection and final integration steps.
Throughout this process, SpaceX will
continue to monitor results, flag any
anomalies, and implement adjustments and
upgrades where needed. Every detail
counts in ensuring the mission's
success. So, what do you think? Will
Flight 10 launch this month? Let me know
with a yes or a no in the comment
section down below. And don't forget to
share your prediction. Then like the
video and subscribe to our channel to
stay uptodate on every chapter of
SpaceX's incredible journey. Now, let's
take a look further into the future.
Once Flight 10 achieves success, it'll
mark the beginning of a much stronger
chapter for Starship, and SpaceX is
already making key preparations to meet
the demands of that future. One of the
most exciting developments is a major
step forward in bringing Starship
operations to Florida. Recently, the US
Department of the Air Force released a
draft environmental impact statement
focused on repurposing launch complex 37
at Cape Pavveral Space Force Station to
support future Starship launches. LC37,
which formerly served as the launchpad
for the ULA Delta IV Heavy, has remained
inactive since the rocket's retirement
in 2023. This site is now being
considered as a dedicated Starship
launch platform, a move that could
drastically expand SpaceX's operational
footprint on the east coast. The draft
EIS outlines the potential for
transforming LC37 into a fully
operational Starship launch site. The
document is currently open for public
review through July 28th. According to
the draft, all environmental categories
are classified as having no significant
impact except for noise and vibration,
an expected outcome for a vehicle as
powerful as Starship. With these
results, the EIS appears on track for
approval. But beyond the paperwork, the
real highlight is the scale of what this
would mean for Starship's future. If the
plan is approved, LC37 could support up
to 76 Starship launches per year. This
includes 76 static fire tests for
Starship, another 76 for the Superheavy
booster, and a total of 152 landings, 76
each for the upper stage and booster.
Combine that with the previously
approved 44 annual missions from LC39A,
and you're looking at a total of 110
Starship flights per year, launching
from Florida alone. What's even more
significant is that LC37 is poised to
become the more capable of the two
launchpads. According to a comparison
chart included in the EIS, LC37 is the
only facility that meets all operational
requirements for highfrequency Starship
missions. LC39A falls short due to its
dual use. It also supports Falcon 9
launches, which limits its availability
and infrastructure flexibility. The EIS
also details plans for constructing new
support infrastructure at LC37,
including a new launch tower, fuel
storage and delivery systems, landing
zones, and other essential components.
This development points to a long-term
commitment and vision for Starship's
role in Florida's launch ecosystem.
Another standout element from the report
is the updated Starship design, likely
version 3. According to the data, this
nextg variant of Starship would stand
493 feet or 150 meters tall with super
heavy measuring 263 feet or 80 meters
tall and the upper stage the ship
reaching 230 or 70 m. Fuel capacity
would total 4,100 metric tonses for
Super Heavy and 2,650 metric tonses for
Starship. Notably, the booster would
feature 35 Raptor engines while Starship
itself would have nine engines.
Combined, they would generate 103
megatons or roughly 11,500 tons of
thrust from Superheavy and 28 megans or
about 3,100 tons from the upper stage.
These numbers show how Starship is
evolving not just in mission cadence,
but in scale, performance, and
capability. The shift to more engines
and greater thrust will be essential for
heavy lift tasks, lunar missions, Mars
cargo delivery, and more. Still, while
the goal of over 110 annual launches in
Florida is promising, it's important to
note that such a high flight rate won't
happen immediately. Even if the EIS is
approved soon, SpaceX will need time to
prepare, finalizing designs, securing
contractors, and beginning construction.
Until then, Starship launches will
continue from LC39A, where the launch
tower already exists and is currently
being upgraded with a new orbital launch
mount. The vision is bold. The
groundwork is being laid, and the
momentum is building. Starship's future
in Florida looks bright. Let's watch
closely as SpaceX opens the door to this
next chapter in space exploration. Now,
let's move on to an update on Japan's
latest lunar landing mission. After
months of space travel, Japan officially
launched its landing attempt with the
Resilience lander on the 5th of June.
Developed by the Japanese private
company iSpace, Resilience was aiming to
make a soft touchdown on the moon in the
Marriorus region, the so-called sea of
cold located on the near side of the
lunar surface. The targeted landing time
was 3:17 p.m. Eastern Daylight Savings
Time or 1917 GMT on June 5th, which
corresponds to 4:17 in the morning on
June 6th in Japan Standard Time.
Unfortunately, things didn't go as
planned. The lander appears to have
crashed into the moon, marking iSpace's
second failed attempt at achieving a
soft lunar landing. Telemetry from the
spacecraft was lost roughly 1 minute and
45 seconds before the scheduled
touchdown. Early data indicates that an
equipment malfunction, specifically an
issue with the laser rangefinder, may
have prevented the lander from
accurately gauging its altitude during
descent. The scenario was strikingly
similar to iSpace's first lunar mission
back in April of 2023. During that
attempt, the spacecraft also went dark
shortly before landing, and the mission
was ultimately declared unsuccessful. In
a post- landing press conference, iSpace
founder and CEO Teeshi Hakamada
addressed the media with disappointment
but transparency. We wanted to make
mission 2 a success, but unfortunately,
we were unable to land. Shortly after
the apparent failure, iSpace posted an
update on X. We are currently unable to
establish communication with the
resilience lander. Ispace engineers are
currently in the mission control center
attempting to communicate with the
lander. We will share an update via a
media release within the next few hours.
Later, a follow-up message provided more
detail. As a result, the lander was
unable to decelerate sufficiently to
reach the required speed for the planned
lunar landing. Based on these
circumstances, it is currently assumed
that the lander likely performed a hard
landing on the lunar surface. A hard
landing in this context means the
spacecraft struck the moon at a much
higher velocity than planned, most like
destroying or severely damaging it. In
such conditions, it is highly unlikely
that the spacecraft could survive to
carry out its scientific mission or
deploy its secondary payload, the
tenacious rover developed in
collaboration with the European Space
Agency. The final confirmation came in a
somber announcement from iSpace. As of
8:00 a.m. JST on Friday, June 6th, a
communication with the lander was not
expected to be restored. And we have
determined that it will be difficult to
complete mission 2 milestone success 9,
which confirms the lunar landing and
have decided to end mission 2. Despite
the outcome, this mission highlights
just how difficult lunar landings
continue to be. Since 2023, multiple
attempts by nations and private
organizations around the world have
ended in failure, underscoring the
immense challenges of operating in the
harsh lunar environment. However, every
setback brings with it new data and
insights. While this icepace mission did
not succeed in landing, it contributes
to the growing knowledge base required
for future missions. Both the Japan
Aerospace Exploration Agency and
international partners like NASA will
use these experiences to refine their
own strategies and systems. As the world
moves closer to sending humans back to
the moon in the coming years, especially
under programs like NASA's Aremis,
ensuring the reliability and safety of
lunar landers, whether robotic or crude,
remains a top priority. These early
efforts are laying the groundwork for
that future. Every mission, successful
or not, brings us one step closer. This
has been Kevin with Great SpaceX. Don't
forget to like the video and subscribe
if you haven't already to stay up to
date with yours truly on the latest
milestones in SpaceX's journey. Thank
you so much for watching and always
remember curiosity, imagination and
inspiration will follow you so long as
you keep looking up.