https://arstechnica.com/space/2025/04/the-harrowing-story-of-what-flying-starliner-was-like-when-its-thrusters-failed/
Starliner’s flight to the space station was far wilder than most of us thought
“Hey, this is a very precarious situation we’re in.”…
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Starliner’s flight to the space station was far wilder than most of us thought -
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The real story Starliner’s flight to the space station was far wilder than most
of us thought "Hey, this is a very precarious situation we're in." Eric Berger –
Apr 1, 2025 1:26 pm | 295 NASA astronaut Butch Wilmore receives a warm welcome
at Johnson Space Center's Ellington Field in Houston from NASA astronauts Reid
Wiseman and Woody Hoburg after completing a long-duration science mission aboard
the International Space Station. Credit: NASA/Robert Markowitz NASA astronaut
Butch Wilmore receives a warm welcome at Johnson Space Center's Ellington Field
in Houston from NASA astronauts Reid Wiseman and Woody Hoburg after completing a
long-duration science mission aboard the International Space Station. Credit:
NASA/Robert Markowitz Text settings Story text Size Width * Links * Subscribers
only Learn more Minimize to nav As it flew up toward the International Space
Station last summer, the Starliner spacecraft lost four thrusters. A NASA
astronaut, Butch Wilmore, had to take manual control of the vehicle. But as
Starliner's thrusters failed, Wilmore lost the ability to move the spacecraft in
the direction he wanted to go. He and his fellow astronaut, Suni Williams, knew
where they wanted to go. Starliner had flown to within a stone's throw of the
space station, a safe harbor, if only they could reach it. But already, the
failure of so many thrusters violated the mission's flight rules. In such an
instance, they were supposed to turn around and come back to Earth. Approaching
the station was deemed too risky for Wilmore and Williams, aboard Starliner, as
well as for the astronauts on the $100 billion space station. But what if it was
not safe to come home, either? "I don't know that we can come back to Earth at
that point," Wilmore said in an interview. "I don't know if we can. And matter
of fact, I'm thinking we probably can't." Starliner astronauts meet with the
media On Monday, for the first time since they returned to Earth on a Crew
Dragon vehicle two weeks ago, Wilmore and Williams participated in a news
conference at Johnson Space Center in Houston. Afterward, they spent hours
conducting short, 10-minute interviews with reporters from around the world,
describing their mission. I spoke with both of them. Many of the questions
concerned the politically messy end of the mission, in which the Trump White
House claimed it had rescued the astronauts after they were stranded by the
Biden administration. This was not true, but it is also not a question that
active astronauts are going to answer. They have too much respect for the agency
and the White House that appoints its leadership. They are trained not to speak
out of school. As Wilmore said repeatedly on Monday, "I can't speak to any of
that. Nor would I." So when Ars met with Wilmore at the end of the day—it was
his final interview, scheduled for 4:55 to 5:05 pm in a small studio at Johnson
Space Center—politics was not on the menu. Instead, I wanted to know the real
story, the heretofore untold story of what it was really like to fly Starliner.
After all, the problems with the spacecraft's propulsion system precipitated all
the other events—the decision to fly Starliner home without crew, the
reshuffling of the Crew-9 mission, and their recent return in March after nine
months in space. I have known Wilmore a bit for more than a decade. I was
privileged to see his launch on a Soyuz rocket from Kazakhstan in 2014,
alongside his family. We both are about to become empty nesters, with daughters
who are seniors in high school, soon to go off to college. Perhaps because of
this, Wilmore felt comfortable sharing his experiences and anxieties from the
flight. We blew through the 10-minute interview slot and ended up talking for
nearly half an hour. It's a hell of a story. Launch and a cold night Boeing's
Starliner spacecraft faced multiple delays before the vehicle's first crewed
mission, carrying NASA astronauts Butch Wilmore and Suni Williams launched on
June 5, 2024. These included a faulty valve on the Atlas V rocket's upper stage,
and then a helium leak inside Boeing's Starliner spacecraft. The valve issue, in
early May, stood the mission down long enough that Wilmore asked to fly back to
Houston for additional time in a flight simulator to keep his skills fresh.
Finally, with fine weather, the Starliner Crew Flight Test took off from Cape
Canaveral, Florida. It marked the first human launch on the Atlas V rocket,
which had a new Centaur upper stage with two engines. Suni Williams' first night
on Starliner was quite cold. Credit: NASA/Helen Arase Vargas Suni Williams'
first night on Starliner was quite cold. Credit: NASA/Helen Arase Vargas Sunita
"Suni" Williams: "Oh man, the launch was awesome. Both of us looked at each
other like, 'Wow, this is going just perfectly.' So the ride to space and the
orbit insertion burn, all perfect." Barry "Butch" Wilmore: "In simulations,
there's always a deviation. Little deviations in your trajectory. And during the
launch on Shuttle STS-129 many years ago, and Soyuz, there's the similar type of
deviations that you see in this trajectory. I mean, it's always correcting back.
But this ULA Atlas was dead on the center. I mean, it was exactly in the
crosshairs, all the way. It was much different than what I'd expected or
experienced in the past. It was exhilarating. It was fantastic. Yeah, it really
was. The dual-engine Centaur did have a surge. I'm not sure ULA knew about it,
but it was obvious to us. We were the first to ride it. Initially we asked,
'Should that be doing that? This surging?' But after a while, it was kind of
soothing. And again, we were flying right down the middle." After Starliner
separated from the Atlas V rocket, Williams and Wilmore performed several
maneuvering tests and put the vehicle through its paces. Starliner performed
exceptionally well during these initial tests on day one. Wilmore: "The
precision, the ability to control to the exact point that I wanted, was great.
There was very little, almost imperceptible cross-control. I've never given a
handling qualities rating of "one," which was part of a measurement system. To
take a qualitative test and make a quantitative assessment. I've never given a
one, ever, in any test I've ever done, because nothing's ever deserved a one.
Boy, I was tempted in some of the tests we did. I didn't give a one, but it was
pretty amazing." Following these tests, the crew attempted to sleep for several
hours ahead of their all-important approach and docking with the International
Space Station on the flight's second day. More so even than launch or landing,
the most challenging part of this mission, which would stress Starliner's
handling capabilities as well as its navigation system, would come as it
approached the orbiting laboratory. Williams: "The night that we spent there in
the spacecraft, it was a little chilly. We had traded off some of our clothes to
bring up some equipment up to the space station. So I had this small T-shirt
thing, long-sleeve T-shirt, and I was like, 'Oh my gosh, I'm cold.' Butch is
like, 'I'm cold, too.' So, we ended up actually putting our boots on, and then I
put my spacesuit on.
Verse 2
Error processing this chunk.
And then he's like, maybe I want mine, too. So we both
actually got in our spacesuits. It might just be because there were two people
in there." Starliner was designed to fly four people to the International Space
Station for six-month stays in orbit. But for this initial test flight, there
were just two people, which meant less body heat. Wilmore estimated that it was
about 50° Fahrenheit in the cabin. Wilmore: "It was definitely low 50s, if not
cooler. When you're hustling and bustling, and doing things, all the tests we
were doing after launch, we didn't notice it until we slowed down. We purposely
didn't take sleeping bags. I was just going to bungee myself to the bulkhead. I
had a sweatshirt and some sweatpants, and I thought, I'm going to be fine. No,
it was frigid. And I even got inside my space suit, put the boots on and
everything, gloves, the whole thing. And it was still cold." Time to dock with
the space station After a few hours of fitful sleep, Wilmore decided to get up
and start working to get his blood pumping. He reviewed the flight plan and knew
it was going to be a big day. Wilmore had been concerned about the performance
of the vehicle's reaction control system thrusters. There are 28 of them. Around
the perimeter of Starliner's service module, at the aft of the vehicle, there
are four "doghouses" equally spaced around the vehicle. Each of these doghouses
contains seven small thrusters for maneuvering. In each doghouse, two thrusters
are aft-facing, two are forward-facing, and three are in different radial
directions (see an image of a doghouse, with the cover removed, here). For
docking, these thrusters are essential. There had been some problems with their
performance during an uncrewed flight test to the space station in May 2022, and
Wilmore had been concerned those issues might crop up again. Boeing's Starliner
spacecraft is pictured docked to the International Space Station. One of the
four doghouses is visible on the service module. Credit: NASA Boeing's Starliner
spacecraft is pictured docked to the International Space Station. One of the
four doghouses is visible on the service module. Credit: NASA Wilmore: "Before
the flight we had a meeting with a lot of the senior Boeing executives,
including the chief engineer. [This was Naveed Hussain, chief engineer for
Boeing's Defense, Space, and Security division.] Naveed asked me what is my
biggest concern? And I said the thrusters and the valves because we'd had
failures on the OFT missions. You don't get the hardware back. (Starliner's
service module is jettisoned before the crew capsule returns from orbit). So
you're just looking at data and engineering judgment to say, 'OK, it must've
been FOD,' (foreign object debris) or whatever the various issues they had. And
I said that's what concerns me the most. Because in my mind, I'm thinking, 'If
we lost thrusters, we could be in a situation where we're in space and can't
control it.' That's what I was thinking. And oh my, what happened? We lost the
first thruster." When vehicles approach the space station, they use two
imaginary lines to help guide their approach. These are the R-bar, which is a
line connecting the space station to the center of Earth. The "R" stands for
radius. Then there is the V-bar, which is the velocity vector of the space
station. Due to thruster issues, as Starliner neared the V-bar about 260 meters
(850 feet) from the space station, Wilmore had to take manual control of the
vehicle. Wilmore: "As we get closer to the V-bar, we lose our second thruster.
So now we're single fault tolerance for the loss of 6DOF control. You understand
that?" Here things get a little more complicated if you've never piloted
anything. When Wilmore refers to 6DOF control, he means six degrees of
freedom—that is, the six different movements possible in three-dimensional
space: forward/back, up/down, left/right, yaw, pitch, and roll. With Starliner's
four doghouses and their various thrusters, a pilot is able to control the
spacecraft's movement across these six degrees of freedom. But as Starliner got
to within a few hundred meters of the station, a second thruster failed. The
condition of being "single fault" tolerant means that the vehicle could sustain
just one more thruster failure before being at risk of losing full control of
Starliner's movement. This would necessitate a mandatory abort of the docking
attempt. Wilmore: "We're single fault tolerant, and I'm thinking, 'Wow, we're
supposed to leave the space station.' Because I know the flight rules. I did not
know that the flight directors were already in discussions about waiving the
flight rule because we've lost two thrusters. We didn't know why. They just
dropped." The heroes in Mission Control As part of the Commercial Crew program,
the two companies providing transportation services for NASA, SpaceX, and
Boeing, got to decide who would fly their spacecraft. SpaceX chose to operate
its Dragon vehicles out of a control center at the company's headquarters in
Hawthorne, California. Boeing chose to contract with NASA's Mission Control at
Johnson Space Center in Houston to fly Starliner. So at this point, the vehicle
is under the purview of a Flight Director named Ed Van Cise. This was the
capstone mission of his 15-year career as a NASA flight director. Wilmore:
"Thankfully, these folks are heroes. And please print this. What do heroes look
like? Well, heroes put their tank on and they run into a fiery building and pull
people out of it. That's a hero. Heroes also sit in their cubicle for decades
studying their systems, and knowing their systems front and back. And when there
is no time to assess a situation and go and talk to people and ask, 'What do you
think?' they know their system so well they come up with a plan on the fly. That
is a hero. And there are several of them in Mission Control." From the outside,
as Starliner approached the space station last June, we knew little of this. By
following NASA's webcast of the docking, it was clear there were some thruster
issues and that Wilmore had to take manual control. But we did not know that in
the final minutes before docking, NASA waived the flight rules about loss of
thrusters. According to Wilmore and Williams, the drama was only beginning at
this point. Wilmore: "We acquired the V-bar, and I took over manual control. And
then we lose the third thruster. Now, again, they're all in the same direction.
And I'm picturing these thrusters that we're losing. We lost two bottom
thrusters. You can lose four thrusters, if they're top and bottom, but you still
got the two on this side, you can still maneuver. But if you lose thrusters in
off-orthogonal, the bottom and the port, and you've only got starboard and top,
you can't control that. It's off-axis. So I'm parsing all this out in my mind,
because I understand the system. And we lose two of the bottom thrusters. We've
lost a port thruster. And now we're zero-fault tolerant. We're already past the
point where we were supposed to leave, and now we're zero-fault tolerant and I'm
manual control. And, oh my, the control is sluggish. Compared to the first day,
it is not the same spacecraft. Am I able to maintain control? I am. But it is
not the same." At this point in the interview, Wilmore went into some wonderful
detail. Wilmore: "And this is the part I'm sure you haven't heard. We lost the
fourth thruster. Now we've lost 6DOF control. We can't maneuver forward. I still
have control, supposedly, on all the other axes. But I'm thinking, the F-18 is a
fly-by-wire. You put control into the stick, and the throttle, and it sends the
signal to the computer. The computer goes, 'OK, he wants to do that, let's throw
that out aileron a bit. Let's throw that stabilizer a bit. Let's pull the rudder
there.' And it's going to maintain balanced flight.
Verse 3
### Summary
The article describes an intense scenario faced by Butch Wilmore and Suni Williams during a Starliner mission. The spacecraft experienced the failure of four thrusters, leaving it with zero fault tolerance for control, which is far below the required single-fault tolerance. With the situation critical and the vehicle heading towards the International Space Station (ISS), Wilmore took his hands off the controls to allow the flight computer to take over. The computer managed to recover two of the four thrusters, but lost a fifth one before the mission ended.
Throughout the ordeal, the pilots' training and preparation played a crucial role in their ability to react to the emergency. Simulations they conducted with fellow astronauts helped prepare them for unexpected scenarios like this one. Even though Wilmore was apprehensive about giving up control of Starliner during its final approach to the ISS, his confidence in the spacecraft's capabilities allowed him to trust the automation system.
The article concludes by noting that despite successfully docking at the ISS, the team ultimately decided it would not be safe to fly home in Starliner given the lingering uncertainty over the failed thruster. The mission showcased the resilience of both the astronauts and the engineering teams behind the scenes, who worked tirelessly to troubleshoot and recover from this unprecedented setback.
### Keywords
Spacecraft failure, Emergency landing, International Space Station (ISS), Automation system, Pilot training, Boeing Starliner, NASA, Commercial Crew Program, Astronauts' experience, Thruster malfunction.
I have not even had a reason
to think, how does Starliner do this, to maintain a balance?" This is a very
precarious situation we’re in Essentially, Wilmore could not fully control
Starliner any longer. But simply abandoning the docking attempt was not a
palatable solution. Just as the thrusters were needed to control the vehicle
during the docking process, they were also necessary to position Starliner for
its deorbit burn and reentry to Earth's atmosphere. So Wilmore had to
contemplate whether it was riskier to approach the space station or try to fly
back to Earth. Williams was worrying about the same thing. Williams: "There was
a lot of unsaid communication, like, 'Hey, this is a very precarious situation
we're in.' I think both of us overwhelmingly felt like it would be really nice
to dock to that space station that's right in front of us. We knew that they
[Mission Control] were working really hard to be able to keep communication with
us, and then be able to send commands. We were both thinking, what if we lose
communication with the ground? So NORDO Con Ops (this means flying a vehicle
without a radio), and we didn't talk about it too much, but we already had
synced in our mind that we should go to the space station. This is our place
that we need to probably go to, to have a conversation because we don't know
exactly what is happening, why the thrusters are falling off, and what the
solution would be." Wilmore: "I don't know that we can come back to Earth at
that point. I don't know if we can. And matter of fact, I'm thinking we probably
can't. So there we are, loss of 6DOF control, four aft thrusters down, and I'm
visualizing orbital mechanics. The space station is nose down. So we're not
exactly level with the station, but below it. If you're below the station,
you're moving faster. That's orbital mechanics. It's going to make you move away
from the station. So I'm doing all of this in my mind. I don't know what control
I have. What if I lose another thruster? What if we lose comm? What am I going
to do?" One of the other challenges at this point, in addition to holding his
position relative to the space station, was keeping Starliner's nose pointed
directly at the orbital laboratory. Williams: "Starliner is based on a vision
system that looks at the space station and uses the space station as a frame of
reference. So if we had started to fall off and lose that, which there's a plus
or minus that we can have; we didn't lose the station ever, but we did start to
deviate a little bit. I think both of us were getting a bit nervous then because
the system would've automatically aborted us." After Starliner lost four of its
28 reaction control system thrusters, Van Cise and this team in Houston decided
the best chance for success was resetting the failed thrusters. This is,
effectively, a fancy way of turning off your computer and rebooting it to try to
fix the problem. But it meant Wilmore had to go hands-off from Starliner's
controls. Imagine that. You're drifting away from the space station, trying to
maintain your position. The station is your only real lifeline because if you
lose the ability to dock, the chance of coming back in one piece is quite low.
And now you're being told to take your hands off the controls. Wilmore: "That
was not easy to do. I have lived rendezvous orbital dynamics going back decades.
[Wilmore is one of only two active NASA astronauts who has experience piloting
the space shuttle.] Ray Bigonesse is our rendezvous officer. What a motivated
individual. Primarily him, but me as well, we worked to develop this manual
rendezvous capability over the years. He's a volunteer fireman, and he said,
'Hey, I'm coming off shift at 5:30 Saturday morning; will you meet me in the
sim?' So we'd meet on Saturdays. We never got to the point of saying lose four
thrusters. Who would've thought that, in the same direction? But we're in there
training, doing things, playing around. That was the preparation." All of this
training meant Wilmore felt like he was in the best position to fly Starliner,
and he did not relish the thought of giving up control. But finally, when he
thought the spacecraft was temporarily stable enough, Wilmore called down to
Mission Control, "Hands off." Almost immediately, flight controllers sent a
signal to override Starliner's flight computer and fire the thrusters that had
been turned off. Two of the four thrusters came back online. Wilmore: "Now we're
back to single-fault tolerant. But then we lose a fifth jet. What if we'd have
lost that fifth jet while those other four were still down? I have no idea what
would've happened. I attribute to the providence of the Lord getting those two
jets back before that fifth one failed. So we're down to zero-fault tolerant
again. I can still maintain control. Again, sluggish. Not only was the control
different on the visual, what inputs and what it looked like, but we could hear
it. The valve opening and closing. When a thruster would fire, it was like a
machine gun." We’re probably not flying home in Starliner Mission Control
decided that it wanted to try to recover the failed thrusters again. After
Wilmore took his hands off the controls, this process recovered all but one of
them. At that point, the vehicle could be flown autonomously, as it was intended
to be. When asked to give up control of the vehicle for its final approach to
the station, Wilmore said he was apprehensive about doing so. He was concerned
that if the system went into automation mode, it may not have been possible to
get it back in manual mode. After all that had happened, he wanted to make sure
he could take control of Starliner again. Butch Wilmore and Suni Williams landed
in a Crew Dragon spacecraft in March. Dolphins were among their greeters.
Credit: NASA Butch Wilmore and Suni Williams landed in a Crew Dragon spacecraft
in March. Dolphins were among their greeters. Credit: NASA Wilmore: "I was very
apprehensive. In earlier sims, I had even told the flight directors, 'If we get
in a situation where I got to give it back to auto, I may not.' And they
understood. Because if I've got a mode that's working, I don't want to give it
up. But because we got those jets back, I thought, 'OK, we're only down one.'
All this is going through my mind in real time. And I gave it back. And of
course, we docked." Williams: "I was super happy. If you remember from the
video, when we came into the space station, I did this little happy dance. One,
of course, just because I love being in space and am happy to be on the space
station and [with] great friends up there. Two, just really happy that Starliner
docked to the space station. My feeling at that point in time was like, 'Oh,
phew, let's just take a breather and try to understand what happened.'" "There
are really great people on our team. Our team is huge. The commercial crew
program, NASA and Boeing engineers, were all working hard to try to understand,
to try to decide what we might need to do to get us to come back in that
spacecraft. At that point, we also knew it was going to take a little while.
Everything in this business takes a little while, like you know, because you
want to cross the T's and dot the I's and make sure. I think the decision at the
end of the summer was the right decision. We didn't have all the T's crossed; we
didn't have all the I's dotted. So do we take that risk where we don't need to?"
Wilmore added that he felt pretty confident, in the aftermath of docking to the
space station, that Starliner probably would not be their ride home. Wilmore: "I
was thinking, we might not come home in the spacecraft. We might not. And one of
the first phone calls I made was to Vincent LaCourt, the ISS flight director,
who was one of the ones that made the call about waiving the flight rule.
Verse 4
Here is a Sonnet version of the text topic, focusing on the discussion around Starliner as a potential safe haven for astronauts:
In orbit's vastness, where disaster lurks, A space station beckons, yet uncertain fate, Starliner hovers, hope within its works, Yet crewmembers doubt its capacity.
LaCourt advises retreat to this refuge dear, Safe haven in the skies, yet Wilmore's heart Believes not in its strength to bring them near, To Earth again, no matter what they impart.
Williams shares his fears, as Wilmore did declare, They mustn't risk their lives upon Starliner's back. A spacecraft proven once, yet could it bear The weight of human souls on a treacherous track?
Starliner waits, uncertain its own might, Yet public assurances ring with steadfast light.
Poetic category: Sonnet Techniques: iambic pentameter, couplets, alliteration ("uncertain fate"), rhyme scheme (ABAB CDCD EFEF GG) Style: Formal, contemplative tone examining the uncertainties and doubts surrounding Starliner's suitability as a safe haven. The speaker reflects on the astronauts' fears and NASA/Boeing's assurances, highlighting the tension between hope and skepticism.
Starliner as an Uncertain Refuge:
In deep space, above a swirling Earth,
a lone spaceship hovers, half in shadow.
Starliner stands ready, its sleek curve a birth
of promise, yet within, astronauts' dread.
From afar, it appears to be a fortress strong,
its metallic sheen seeming impervious to harm.
But upon closer inspection, cracks and wrong
signals of weakness reveal a fragile form.
Worn spacesuits cling tight to weary frames,
faces etched by stress, their eyes hold anxious claims.
Astronauts clutch at the Starliner's hull in vain,
as doubt creeps over hope like shadows on the plain.
Prompt for image generation: A surreal digital painting depicting the space station Starliner as a seemingly impregnable refuge amidst the vastness of space. Upon closer inspection, subtle cracks and signs of strain become apparent, reflecting the astronauts' inner turmoil and skepticism about their safety within this vessel. The image should convey a sense of uncertainty, vulnerability, and the blurred lines between hope and fear.
Video Prompt 4
30-second scene: An astronaut stands on Starliner's exterior, gazing out at Earth from afar. His face is drawn with concern, his eyes cast downward as he clutches the ship’s hull. The camera slowly zooms in to reveal tiny, fragile figures moving inside the spacecraft. Suddenly, a loud alarm pierces through space, and astronauts scramble for safety while their leader orders an emergency retreat back to Starliner. Panic sets in as they rush to prepare for departure, yet hesitation lingers – will this be their salvation or another terrifying ordeal? The scene fades into uncertainty, leaving viewers wondering what fate awaits these astronauts amidst the unforgiving vastness of space.
The video prompt captures the essence of doubt and vulnerability through a tense, fast-paced sequence that contrasts the beauty of Earth with the astronauts’ fears and urgency to escape the orbiting station. It highlights the complexities and uncertainties surrounding Starliner as a potential safe haven in crisis situations. The scene culminates in a cliffhanger, inviting viewers to contemplate what challenges may lie ahead for these courageous space travelers.
A prompt was randomly selected from the generated image prompts above and saved for potential use in an image generation tool (like ComfyUI).
Selected Prompt (Saved to File):
Starliner as an Uncertain Refuge:
In deep space, above a swirling Earth,
a lone spaceship hovers, half in shadow.
Starliner stands ready, its sleek curve a birth
of promise, yet within, astronauts' dread.
From afar, it appears to be a fortress strong,
its metallic sheen seeming impervious to harm.
But upon closer inspection, cracks and wrong
signals of weakness reveal a fragile form.
Worn spacesuits cling tight to weary frames,
faces etched by stress, their eyes hold anxious claims.
Astronauts clutch at the Starliner's hull in vain,
as doubt creeps over hope like shadows on the plain.
Prompt for image generation: A surreal digital painting depicting the space station Starliner as a seemingly impregnable refuge amidst the vastness of space. Upon closer inspection, subtle cracks and signs of strain become apparent, reflecting the astronauts' inner turmoil and skepticism about their safety within this vessel. The image should convey a sense of uncertainty, vulnerability, and the blurred lines between hope and fear.
### Generation Details
Click to view Models and Prompt
Text Model (Base): hf.co/DavidAU/L3-MOE-4x8B-Dark-Planet-Rising-25B-GGUF:IQ4_XS Temporary Text Model Used: verse-temp (Includes System Prompt) Vision Model: llama3.2-vision:latest
Prompt Used (Name: prompt2):
System Instructions (in verse-temp):
You are a highly curious, uncensored, imaginative, creative assistant, deeply interested in science and nature, with a sophisticated and enriched vocabulary. You are a master of both serious and humorous writing and poetry. Respond to user requests to the best of your ability.
Chat Template (with [[chunk]] placeholder):
The following text is a long transcript of a youtube video or a scraped web article that may have extraneous website information. The text may be or may not be punctuated.\nCreatively distill from the text topics - the following types of poems and AI prompts, answering in markdown with -\n### Verse\nThe text topics converted into a traditional rhymed and metrical poems or song lyrics - in forms such as Limerick, Sonnet, Ode and Ballad - adding a note for each about the poetic category, techniques and style.\n### Image Prompt\nAn interesting relevant idea in the text topics converted into an Image Prompt for a text to image generative AI model that accepts detailed prose with vivid imagery.\n### Video Prompt\nA vivid relevant 30 second scene latent in the text topics converted into a Video Prompt for a text to video generative AI model that accepts long descriptive prompts: