Titan: Saturn’s Mysterious Moon of Methane and Possibilities

In this captivating episode of Cosmos in a Pod, host Amitesh guides us through the wonders of Titan, Saturn’s largest moon and one of the most intriguing places in our solar system. With its thick orange atmosphere, methane rivers, and a hidden ocean beneath its icy crust, Titan is unlike any world we’ve explored.

Episode Highlights:

• A World of Methane: Learn about Titan’s unique geography, where liquid methane carves out rivers and seas under a nitrogen-rich atmosphere.
• Titan’s Hidden Ocean: Beneath its icy surface lies a vast ocean, potentially harbouring conditions suitable for microbial life.
• NASA’s Huygens Probe: Relive the historic 2005 landing that revealed Titan’s alien yet Earth-like surface features.
• Dragonfly Mission: Discover how this ambitious octocopter mission will search for signs of life and study Titan’s organic chemistry.
• The Possibility of Life: Could Titan’s methane seas or subsurface ocean support exotic life forms? Explore the scientific theories.

FAQs Answered:

• Why does Titan’s atmosphere appear orange?
• What makes Titan’s methane cycle similar to Earth’s water cycle?
• Could Titan’s hidden ocean be a haven for life?

Titan is a frozen world brimming with potential, offering glimpses into the chemistry of life and the processes that shaped our solar system. Whether it’s through its methane lakes, cryovolcanoes, or the upcoming Dragonfly mission, Titan continues to fuel our imaginations.

Enjoyed the episode? Don’t forget to subscribe, share, and leave a review. Have questions or suggestions for future episodes? Reach out—we’d love to hear from you! 🌌✨

Episode Transcript

(00:00):
Okay, so get this right.

(00:01):
Rain, rivers, seas even, but not water,
liquid methane all under this like thick orange haze,
hundreds of degrees below freezing.
I mean, it sounds like science fiction, aren't it?
It really does, but that is Titan,
Saturn's largest moon just completely redefines,
I think, what we think is possible.
Okay, so that's where we're doing a deep dive

(00:22):
on Titan today.
Welcome to Cosmos in a Pod, Space and Astronomy series.
So Titan, bigger than Mercury, it has methane rain.
I mean, that's gotta be just the tip of the iceberg, right?
Oh yeah, Titan is like, you know,
a strange mirror to Earth, right?
It has weather systems, erosion, it even has dunes,
but with a titanium twist.
Hydrocarbon sand dunes.

(00:43):
Yeah. Okay, I'm listening.
What have we actually learned about Titan so far?
Well, I mean, our understanding of Titan,
it really leaped forward with the Cassini-Huygens mission.
You remember back in 2005,
the Huygens probe landed on Titan?
Oh yeah, yeah, those images were incredible.
What did Huygens actually find down there?
So the landscape, it was, I mean,
surprisingly Earth-like in a way, you know?

(01:04):
There were these rounded pebbles,
clearly shaped by flowing liquid,
and the ground was this methane-rich,
kind of like a wet sand or a snow.
It really drove home the fact that liquid methane
plays the role of water on Titan.
Wow, okay, but liquid methane.
Yeah.
That's gotta be insanely cold temperatures.
What's it like up in Titan's atmosphere?

(01:26):
So Titan's atmosphere is incredibly dense,
mostly nitrogen, a good amount of methane,
and it's so dense, it creates something
called an anti-greenhouse effect.
Wait, anti-greenhouse?
So the atmosphere is making it colder, not warmer.
Exactly, so the haze in the atmosphere
reflects sunlight back into space,
and that prevents the surface from warming up.
It's the opposite of what we see, you know,
here on Earth with greenhouse gases.

(01:47):
That's fascinating.
So we have this freezing world, methane rain,
an atmosphere that's actively making it colder.
I mean, what else makes Titan so special?
One word, layers.
So underneath that hazy orange exterior,
Titan, it has this fascinating structure.
Okay, let's peel back those layers.
What's Titan made of?

(02:08):
Okay, so at the heart of it all is a core silicon compounds,
about 3,400 kilometers wide.
Then comes the real shocker, a subsurface ocean.
I mean, we're talking hundreds of kilometers deep,
and it's not water.
No water.
What is in this massive ocean?
It's a mixture of ammonia, methane, and salts.

(02:29):
It's this really unique cocktail that keeps it liquid,
despite the incredibly low temperatures.
And on top of this ocean, a crust about 100 kilometers thick,
made of water ice and methane hydrate.
Hold on, crust of ice over a giant ocean.
Are we talking like solid ice here?
Well, not entirely.
So the crust is fractured,
likely due to the immense tidal forces from Saturn.

(02:52):
And these fractures, you know,
this is where things get really interesting.
Interesting.
What's happening at these fractures?
This is where we see evidence of cryovolcanoes,
essentially volcanoes that erupt with ice
instead of molten rock.
Cryovolcanoes.
So instead of lava, they spew ice.
What kind of ice are we talking about here?
Not your typical ice cubes.
It's a mix of frozen compounds, you know,
methane ice, ammonia ice.

(03:13):
Imagine like a giant slushie erupting from the ground.
That's a wild image.
Where can we actually find these cryovolcanoes on Titan?
One of the most prominent is Dumons.
It's this massive cryovolcano.
Towers 1.5 kilometers high.
Show signs of, you know, past activity
with what looks like frozen lava flows.
Frozen lava flows.

(03:34):
Okay, that's cool.
Are there any other cryovolcanoes worth mentioning?
Oh, definitely.
There's Sotirpterra.
It's a massive depression.
It plunges two kilometers deep.
Scientists think it's the caldera
or the mouth of a gigantic cryovolcano.
So Titan's landscape is actively being shaped
by these cryovolcanic eruptions.
But how do these eruptions even happen?

(03:54):
What's causing them?
So the prevailing theory is that Saturn's gravitational pull
is squeezing and stretching Titan's interior.
And this creates this intense pressure
that forces these icy materials up to the surface.
You know, it's like a cosmic stress ball being squeezed.
So we've got these icy volcanoes dotting the landscape.
What else have we discovered about the surface of Titan?

(04:16):
So Titan's surface, it's like this mosaic
of diverse features.
We see vast plains, towering mountains,
deep canyons, even dune fields.
Dune fields.
Now I'm picturing something out of like, you know, dune,
but with a titanium twist.
You're not far off.
So instead of sand, these dunes are formed
by hydrocarbon particles,
likely a mix of methane and ethane ice.

(04:38):
Hydrocarbon dunes.
It's amazing to think that something we typically associate
with fuel is shaping the landscape on Titan.
It really highlights how diverse and unexpected
the universe can be.
And speaking of unexpected,
there's this region on Titan called Xanadu.
Xanadu, okay.
That's a name that sparks curiosity.
What's the story behind this region?

(04:58):
So initially scientists thought Xanadu
was this massive frozen methane sea,
because it appeared incredibly bright
compared to the surrounding areas.
But further observations revealed something
much more intriguing.
Okay, not a frozen sea.
What is it then?
So Xanadu, it is this vast lowland,
but it's far from flat.

(05:19):
It's marked by mountains, valleys,
and what look like drainage channels,
all etched into this surprisingly rugged terrain.
Drainage channels.
Right.
Like rivers, but we've already talked about methane rivers.
But what would be flowing through these channels in Xanadu?
Yeah, that's a great question.
And it's one that scientists are still trying to unravel.

(05:40):
It's possible these channels were carved
by flows of liquid methane in the past.
But the exact nature of these flows
and their composition, it remains a mystery.
So another piece of the Titan puzzle to solve.
Yeah.
What other intriguing areas are there on Titan?
Well, there's a deery.
It's this bright, rugged region.

(06:00):
It stands out against the darker plains that surround it.
What makes a deery so stand out?
It's marked by a complex network of channels
and what appear to be caves,
all likely sculpted by liquid methane over time.
It's incredible that liquid methane
is shaping the landscape of an entire world.
It really is.
And speaking of worlds being shaped,
there's another region that sounds like
it's straight out of a novel, Shangri-La.

(06:22):
Shangri-La.
That definitely evokes a sense of mystery.
What makes this region on Titan so special?
So it's this vast, dark plain.
Was initially mistaken for a giant methane sea.
But as we learned more,
Shangri-La turned out to be even more interesting.
Okay, I'm on the edge of my seat.

(06:43):
What's the real story of Shangri-La?
So while it's not a sea anymore,
it does hold clues to Titan's watery past.
So scattered across its dark plains
are these lighter colored hills.
What are these hills?
Think of them as the ghosts of ancient islands.
So scientists believe that they were once part
of this vast methane sea
that has long since evaporated or drained away.

(07:07):
It's a glimpse into a Titan that looked very different
than it does today.
So we're looking at the remnants of ancient seas on Titan.
That's mind blowing.
It is.
It really speaks to the dynamic nature of Titan's surface,
constantly changing over time.
And speaking of dynamic,
we can't forget about those methane seas
that we touched upon earlier.
What's the latest on those?

(07:28):
So the methane seas are truly
some of the most striking features on Titan.
Kraken Mare, the largest.
It's actually bigger than
North America's Great Lakes combined.
Wait, bigger than the Great Lakes?
That's enormous.
What else do we know about Kraken Mare?
So it's filled with this liquid methane and ethane.
It's so deep, we haven't even been able
to fully measure its depth.
There's even evidence of waves on its surface.

(07:48):
Waves on a methane sea.
Now that's a sight I'd love to see.
Are there any other notable seas on Titan?
Well, there's Ligea Mare.
It's another large sea near Titan's North Pole,
about three times the size of Lake Baikal,
the deepest lake on Earth.
So we've got these vast deep seas
of liquid hydrocarbons, complete with waves,

(08:10):
possibly even tides.
I mean, is there anything else
that makes these seas so unique?
Well, they seem to be connected by this network of channels,
almost like rivers flowing into and out of the seas.
So there's like a whole hydrological cycle on Titan,
but with methane instead of water.
That's incredible.

(08:30):
It really is.
And it's one of the things that makes Titan
such a fascinating world to study.
It sounds like Titan is a world
that's constantly pushing the boundaries
of what we thought was possible.
What other surprises has this moon thrown our way?
Well, one of the most baffling discoveries
was the appearance and disappearance
of this bright spot on Ligea Mare.

(08:53):
A bright spot.
What was it?
That's the million dollar question.
So it appeared suddenly, grew to a considerable size,
and then vanished just as quickly.
Scientists are still debating what it could have been.
So another Titanian mystery.
What are some of the leading theories
about this elusive bright spot?
So some speculate it was this massive cluster of bubbles

(09:13):
rising from the depths of the sea.
Others think it could have been a floating ice formation,
or maybe a temporary change in the surface composition
of the sea.
A sea of methane with floating ice and giant bubbles.
Sounds like a surreal painting.
It does, doesn't it?
And it's a testament to how much we still
have to learn about this incredible world.

(09:35):
It's clear that Titan is a place of mind-boggling diversity
and complexity.
But beyond just being interesting,
well, why should we care about Titan?
What can it teach us about our own place in the universe?
That's a great question.
So studying Titan, it can provide insights
into the early Earth.
How so?
How can a freezing moon with methane seas

(09:57):
tell us about the early Earth?
So Titan's atmosphere.
It's rich in organic molecules, the building blocks of life.
And some scientists believe that Titan's methane seas
could mimic the conditions of early Earth
where life first arose.
It's like having a time machine to peek into our own planet's
past.
That's a really powerful thought.
But even if Titan doesn't directly

(10:19):
hold the key to life's origins, it's still a fascinating place
to study, right?
Absolutely.
It's this natural laboratory for studying
atmospheric chemistry, planetary geology,
and even the potential for life and environments
drastically different from our own.
It really broadens our perspective
on what's possible in the universe.
So we've got this moon, methane seas,

(10:40):
karo volcanoes, hydrocarbon dunes,
possible subsurface ocean.
It's a lot to take in.
What's next for our exploration of Titan?
Are there any upcoming missions planned?
There is one very exciting mission in development,
NASA's Dragonfly.
Dragonfly.
That name rings a bell.
Tell me more about this mission.
OK, so Dragonfly is a game changer

(11:02):
because it's not just a lander or an orbiter.
It's a drone, an octocopter, designed
to fly across Titan's surface.
We're talking a flying laboratory
hopping from one fascinating location to the next.
Wait, a drone on Titan?
That's incredible.
What will Dragonfly be able to do?
So it will explore multiple sites covering more ground
than any previous mission.

(11:23):
It'll be equipped with cameras, a mass spectrometer,
and a whole suite of instruments to study Titan's atmosphere,
surface, and even a subsurface.
This all sounds incredible.
But when is this mission scheduled to launch?
So the launch is set for 2027.
The anticipation is definitely building
within the scientific community as we

(11:43):
wait for Dragonfly to send back all that data it collects.
I can't wait to see what Dragonfly uncovers.
Well, I think we've covered a lot of ground
in this first part of our deep dive into Titan.
Join us for part two, where we'll
go even deeper into the mysteries of this alien world.
And we'll discuss the potential for life on Titan.
Welcome back to our deep dive into Titan.

(12:04):
Last time, we were exploring its incredible landscape,
from cryovolcanoes to hydrocarbon dunes,
and even touched on that potential subsurface ocean.
Yeah.
It's amazing to think about a world so different from our own
yet with features that feel strangely familiar.
But we left off on a cliffhanger.
What about life on Titan?

(12:24):
That's the million dollar question, isn't it?
Could life exist on a world so cold and so alien?
Exactly.
We were talking about NASA's Dragonfly mission,
a drone set to explore Titan.
How will it help answer that question?
Well, Dragonfly represents, I think, a giant leap forward
in how we study other worlds.

(12:45):
It's not just an orbiter observing from a distance.
We're talking about a mobile laboratory on the surface.
It's mind boggling to imagine this high tech drone flitting
across Titan's landscapes.
What are scientists hoping Dragonfly will discover?
Well, one of the primary goals is
to study Titan's organic chemistry in detail.

(13:06):
We know its atmosphere is this rich soup of organic molecules.
But Dragonfly will be able to analyze those molecules
directly on the surface.
So it's not just about identifying what's there.
It's about understanding that complex chemistry taking place
on Titan.
Precisely.
So Dragonfly is equipped with a mass spectrometer, which
is like a molecular detective.

(13:27):
It can identify different molecules by their mass
and tell us about their composition.
This helps us piece together how those molecules formed
and whether they could be precursors to life.
That's fascinating.
So Dragonfly is going to paint a clearer
picture of the chemical building blocks on Titan.
But how will it help us in the search for actual life?

(13:50):
So while Dragonfly isn't specifically
designed to find life, it will be looking
for what we call biosignatures.
Biosignatures.
Remind me, what are those again?
They're essentially chemical fingerprints
that could indicate the presence of past or present life.
Think of it like this.
If you find a footprint in the sand,
you know someone walked there, even if you
don't see the person.

(14:11):
OK, that makes sense.
So what kinds of biosignatures will Dragonfly
be looking for on Titan?
It'll be searching for specific molecules and isotopic ratios
that are characteristic of biological processes.
For example, by analyzing the ratio
of different isotopes of carbon, we
can determine if the carbon came from a biological or non-biological

(14:34):
source.
So even if Dragonfly doesn't find actual microbes
or alien creatures, it could still
find evidence that life might exist or once existed
on Titan.
Exactly.
And even if it doesn't find clear biosignatures,
that information is still valuable.
It helps us refine our understanding
of what conditions are needed for life to arise,

(14:55):
both on Titan and elsewhere in the universe.
It sounds like Dragonfly is going
to be a treasure trove of information about Titan,
regardless of what it finds.
But what are some of the most exciting discoveries
it could make?
Well, imagine if Dragonfly finds evidence
of complex organic molecules like amino acids.
Those are the building blocks of proteins,
essential for life as we know it.

(15:15):
I mean, that would be a major breakthrough.
That would be huge.
What else could Dragonfly uncover?
Another exciting possibility is finding evidence of liquid water
beneath the surface.
We know there's a subsurface ocean.
But what if Dragonfly finds evidence of liquid water
closer to the surface?
Perhaps aquifers or even small lakes

(15:36):
heated by geothermal activity?
Why would that be so significant?
Because liquid water is considered essential for life
as we know it.
Finding it closer to the surface increases
the chances of finding life, even if it's microbial life,
hidden deep underground.
Sounds like Dragonfly has the potential
to rewrite our understanding of Titan,
the possibility of life beyond Earth, and maybe even

(16:00):
our place in the universe.
You're absolutely right.
Dragonfly isn't just a mission to Titan.
It's a mission to explore the very limits of what we
understand about life itself.
It's incredible to think it all started
with this fascination for this hazy orange moon orbiting
Saturn.
What a testament to human curiosity and our drive
to explore.

(16:20):
It truly is Titan.
Once a distant point of light in our telescopes
is now revealing itself to be this world
of incredible complexity and potential,
a world that might hold the key to some of the biggest
questions we have about life in the universe.
I can't wait to see what Dragonfly discovers.
But in the meantime, let's continue

(16:41):
exploring what we already know about Titan.
We've discussed its landscape and what
lies beneath the surface.
What about the weather?
What's it like to experience a day on Titan?
Well, get ready for something completely different.
Forget about sunny days and blue skies.
OK, no sunshine.
So what does the sky look like on Titan?
Imagine perpetual twilight.
Titan's thick atmosphere filters out most of the sunlight,

(17:04):
casting a dim orange glow over the landscape.
Always dusk.
That's a little eerie.
But cool.
And how cold are we talking?
The average temperature hovers around negative 179 degrees
Celsius.
But despite the cold and dimness,
Titan has dynamic weather patterns.
We've talked about the methane rain.
What's a methane rainstorm like on Titan?

(17:26):
Picture rain falling incredibly slowly,
almost like a drizzle that goes on for days.
And instead of water, it's liquid methane
falling from the sky.
Methane rain for days.
I guess you'd have to pack some patience
if you lived on Titan.
What about wind?
Are there strong winds?
So Titan does experience winds, but they're not
as powerful as those on Earth.

(17:48):
However, even these gentler winds
can transport hydrocarbon sand and shape the dunes,
playing a key role in sculpting the landscape.
It's amazing that winds driven by the distant sun
are shaping a world so far away.
What other weather phenomena occur on Titan?
Well, we've observed evidence of clouds,
but not the kind we're used to.

(18:08):
These clouds aren't made of water vapor.
They're composed of methane and other hydrocarbons.
Hydrocarbon clouds.
Sounds like something out of a science fiction novel.
They can vary in appearance, but some
have this wispy, almost ethereal quality.
Others appear as dark, brooding masses hanging low in the sky.
It sounds like a truly alien skyscape.

(18:30):
What about storms?
Does Titan experience storms?
Yes.
We've seen evidence of dust storms
that can kick up massive amounts of hydrocarbon sand
and blanket vast areas of Titan's surface.
So we've got methane rain, hydrocarbon clouds, dust storms,
and a perpetual tie light.
It's a bizarre but captivating world.

(18:50):
What about the overall climate?
Is it as extreme as the weather suggests?
Well, surprisingly, Titan's climate
is quite stable despite the dynamic weather.
It experiences seasons just like Earth,
but they're much longer.
How long are the seasons on Titan?
So each season lasts for about seven Earth years.
Seven Earth years per season.

(19:10):
That's incredible.
What are the seasonal changes like on Titan?
Well, the most noticeable changes
are in the polar regions.
So during Titan's long winter, the poles
are plunged into darkness and experience increased methane
rain and cloud cover.
But when spring arrives, sunlight returns
and the methane clouds dissipate, revealing the surface.

(19:32):
It's amazing that this moon, so far from the sun,
experiences such dramatic seasonal shifts.
It really shows how interconnected our solar system
is and the far reaching influence of the sun.
Absolutely.
Titan's weather and climate are a testament
to the complex interplay of forces
that shape our solar system.
Well, it seems like every time we

(19:53):
learn something new about Titan, it raises even more questions.
It's truly a world of endless possibilities.
That's the beauty of scientific exploration.
It's about venturing into the unknown,
embracing the unexpected, and allowing ourselves
to be humbled by the vastness and complexity of the universe.
And Titan, with its alien landscapes,

(20:14):
potential for exotic life and endless mysteries,
it stands as a beacon inviting us
to push the boundaries of our knowledge and imagination.
And on that note, I think it's time
to wrap up part two of our deep dive into Titan.
We've covered a lot of ground, from its bizarre weather
to the tantalizing possibilities of life.
Join us for part three, where we'll

(20:35):
explore the implications of what we've learned about Titan
for our understanding of life in the universe.
Welcome back to the deep dive.
We've been on quite a journey exploring
the mysteries of Titan, from its methane rain and cryovolcanoes
to the possibility of life swimming in a subsurface ocean
or even in its hydrocarbon lakes.

(20:55):
Yeah, it's a world that truly captures the imagination,
pushing us to rethink what we know about planets
and the potential for life beyond Earth.
Exactly.
And that's what I'd like to explore
in this final part of our deep dive.
We've talked about Titan as an individual world,
but how does it fit into the bigger
picture of our solar system?
Well, Titan holds a very unique position in our solar system.

(21:18):
It's the only moon we know of with a dense atmosphere.
And that atmosphere is strikingly
similar in composition to early Earth's.
So studying Titan's atmosphere could be like looking back
in time, billions of years, to when Earth was in its infancy.
Precisely.
It's like having a time machine that
allows us to glimpse the conditions that

(21:39):
may have existed on our own planet
before life as we know it arose.
That's an incredible thought.
So Titan could hold clues to the origins of life,
not just on Titan itself, but potentially on Earth as well.
It's a fascinating possibility by studying
the chemical reactions happening in Titan's atmosphere,
we can gain insights into the processes that

(22:00):
might have led to the formation of life's building
blocks on early Earth.
It's amazing to think that a moon orbiting Saturn
could be so important for understanding our own planet's
history.
What else can Titan teach us about the broader solar system?
Well, Titan also provides a valuable point of comparison
for studying other moons and planets.

(22:22):
For example, understanding the processes
that shape Titan's surface helps us
gain insights into the geology of other icy worlds
in the outer solar system.
So Titan is like a Rosetta Stone,
helping us decipher the stories of other celestial bodies.
What are some of the key similarities and differences
between Titan and other icy worlds?

(22:42):
Well, one key similarity is the presence
of a subsurface ocean.
We believe that many icy moons, like Europa, Enceladus,
and Ganymede also harbor vast oceans beneath their icy shells.
And these subsurface oceans are thought to be potential havens
for life, right?
Exactly.
They could offer the liquid water, energy sources,

(23:03):
and chemical building blocks needed for life as we know it.
So Titan, while unique, is also part
of a larger family of icy worlds that might harbor life.
What are some of the key differences between Titan
and these other moons?
Well, the most obvious difference
is Titan's dense atmosphere.
None of the other icy moons have atmospheres as thick
or as complex as Titan's.

(23:25):
And that atmosphere is what drives Titan's unique weather
patterns and creates those incredible surface features,
right?
Absolutely.
The methane rain, the hydrocarbon lakes and seas,
the dunes, I mean, these are all features we don't
see on other icy moons.
So Titan stands out even among its icy siblings.
But that's what makes it so fascinating, right?
Its uniqueness allows us to explore a whole different set

(23:47):
of planetary conditions and possibilities.
Precisely.
Titan expands our understanding of the sheer diversity
of worlds that exist not just in our solar system,
but potentially across the universe.
And speaking of the universe, what
does Titan tell us about the possibility of life
existing beyond Earth?
Well, Titan challenges our preconceived notions

(24:08):
about what constitutes a habitable environment.
We used to think that life could only
exist on planets that are very similar to Earth,
with liquid water on the surface and a temperate climate.
But Titan shows us that life could potentially
exist in environments that are drastically different,
with liquid methane as a solvent and temperatures hundreds

(24:28):
of degrees below freezing.
Exactly.
And if life can exist on Titan, then it
could potentially exist on countless other worlds
that we might have previously dismissed as uninhabitable.
So Titan is not just expanding our understanding
of our own solar system.
It's broadening our perspective on the possibility of life
throughout the cosmos.

(24:49):
It's a humbling realization to think
that our own planet and our own form of life
might be just one tiny example in a universe
teeming with possibilities.
Absolutely.
It makes the search for life beyond Earth
even more exciting and meaningful.
Indeed.
Each new discovery, each tantalizing clue

(25:10):
brings us one step closer to answering that age old
question, are we alone?
And Titan, with its alien beauty, its hidden secrets,
and its potential for harboring life,
unlike anything we've ever seen, is leading the way
in that quest.
Titan has shown us that the universe is
far more strange and wonderful than we ever imagined.
It beckons us to keep exploring, to keep asking questions,

(25:32):
and to never stop marveling at the boundless creativity
of the cosmos.
It's been an incredible journey exploring Titan with you.
From its methane rain to its potential for life,
Titan has captured our imaginations
and challenged our assumptions about what's
possible in the universe.
And this is just the beginning.
With missions like Dragonfly on the horizon,

(25:55):
we're on the verge of even more groundbreaking discoveries
that will reshape our understanding
of this incredible world and our place in the cosmos.
Thank you for joining us on this deep dive into Titan
on Cosmos in a Pod.
Be sure to follow and subscribe to Cosmos in a Pod
and our YouTube channel for more captivating explorations
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