LIFE BEYOND II: The Museum of Alien Life (4K)
-
2:03 - 2:06(Narrator)
To have any hope of finding alien life, -
2:06 - 2:07we have to know what to look for.
-
2:12 - 2:14But where do we begin?
-
2:15 - 2:19How do we narrow down a
seemingly infinite set of possibilities? -
2:27 - 2:29There's one thing we know for sure:
-
2:31 - 2:33nature will have to play by her own rules.
-
2:37 - 2:40No matter how strange alien life might be,
-
2:40 - 2:44it's going to be limited by the same
physical and chemical laws -
2:44 - 2:45that we are.
-
2:52 - 2:53On top of this,
-
2:53 - 2:56each alien environment will further limit
-
2:56 - 2:58what kinds of lifeforms can evolve there.
-
3:07 - 3:10Despite these natural boundaries,
the possibilities -
3:10 - 3:12are staggering to imagine.
-
3:14 - 3:16Trillions of planets,
-
3:16 - 3:18each a unique cauldron of chemicals
-
3:18 - 3:21undergoing their own complex evolution.
-
3:28 - 3:30To guide our thinking,
-
3:30 - 3:34this museum of alien life
will be divided into two exhibits: -
3:36 - 3:37life as we know it,
-
3:37 - 3:41home to beings
with biochemistries like ours; -
3:42 - 3:44and life as we don't know it,
-
3:44 - 3:47home to beings that challenge our concept
-
3:47 - 3:48of life itself.
-
3:54 - 3:57Before we venture too far into
the unknown, -
3:57 - 3:59we have to ask ourselves:
-
4:00 - 4:01what if alien life
-
4:01 - 4:03is more like us than we think?
-
4:15 - 4:17If there's one feature that unites us
-
4:17 - 4:20with the other specimens in this museum,
-
4:20 - 4:21it's carbon.
-
4:25 - 4:27(Nick Lane)
Carbon is ubiquitous, -
4:27 - 4:30it's one of the most common
elements in the universe, -
4:30 - 4:33and it's very good at forming
large, stable molecules. -
4:37 - 4:39(Narrator)
Carbon has the rare ability to form -
4:39 - 4:42four-way bonds
with other elements, -
4:42 - 4:43and to bind to itself
-
4:43 - 4:45in long, stable chains,
-
4:46 - 4:50enabling the formation of
huge complex molecules. -
4:56 - 4:59This versatility makes carbon
the centerpiece -
4:59 - 5:01in the molecular machinery of life.
-
5:03 - 5:06And the same carbon compounds
that we use -
5:06 - 5:08have been found far from Earth,
-
5:09 - 5:10clinging to meteorites,
-
5:12 - 5:14and floating in far-off clouds
-
5:14 - 5:16of cosmic dust.
-
5:18 - 5:20The building blocks of life,
-
5:21 - 5:24drifting like snow through the universe.
-
5:30 - 5:32And if alien life has selected
-
5:32 - 5:35other carbon compounds for their
biochemistry, -
5:36 - 5:37they will have plenty to choose from.
-
5:42 - 5:44Scientists recently identified
-
5:44 - 5:48over a million possible alternatives
to DNA— -
5:48 - 5:50all carbon-based.
-
5:58 - 5:59If we ever discover
-
5:59 - 6:01other carbon-based lifeforms,
-
6:01 - 6:04we would be fundamentally related.
-
6:08 - 6:10They would be our cosmic brethren.
-
6:13 - 6:15But would they look anything like us?
-
6:20 - 6:22If they hail from Earth-like planets,
-
6:23 - 6:25we could share even more in common
-
6:25 - 6:27than just our biochemistry.
-
6:30 - 6:32(Jonathan Losos)
What would life be like on other planets, -
6:32 - 6:33if it is evolved?
-
6:33 - 6:35Would it be like
-
6:35 - 6:36the world today here on Earth,
-
6:37 - 6:39or would it be completely different?
-
6:40 - 6:42There are those who argue that,
-
6:42 - 6:45from the argument of convergent evolution,
-
6:45 - 6:48if conditions on other planets are
similar to here, -
6:48 - 6:50then we would see very similar life forms—
-
6:55 - 6:58animal- and plant-like organisms
that look very familiar. -
7:12 - 7:14(Narrator)
On Earth, certain features like -
7:14 - 7:17eyesight, echolocation, and flight
-
7:17 - 7:19have evolved multiple times independently
-
7:19 - 7:21in different species.
-
7:24 - 7:26This process of convergent evolution
-
7:26 - 7:29could extend to alien planets like Earth,
-
7:29 - 7:32where creatures face similar environmental
pressures. -
7:35 - 7:37It's no guarantee,
-
7:37 - 7:38but there could be
-
7:38 - 7:41certain universalities of life.
-
7:44 - 7:49The greatest hits of evolution
on repeat across the universe. -
7:58 - 8:01Each feature would be attuned
to its local environment. -
8:03 - 8:04Dimly lit planets
-
8:04 - 8:08would produce huge eyes to suck in
extra light, -
8:08 - 8:10like nocturnal mammals.
-
8:14 - 8:17(Jonathan Losos)
Some people have gone so far as to say -
8:17 - 8:19that human-type organisms,
-
8:19 - 8:19humanoids,
-
8:19 - 8:21will occur on other planets.
-
8:26 - 8:27The existence of other
-
8:27 - 8:30humanlike organisms seems unlikely,
-
8:30 - 8:33given the long, convoluted
chain of events -
8:33 - 8:34that produced us.
-
8:35 - 8:36But we can't rule it out.
-
8:41 - 8:44If just one in every
hundred trillion Earth-like planets -
8:44 - 8:46produced a humanlike form,
-
8:46 - 8:47there could still be
-
8:47 - 8:50thousands of creatures like us out there.
-
9:10 - 9:11Convergent evolution
-
9:11 - 9:14is also rampant in plant life,
-
9:14 - 9:18and C₄ photosynthesis has arisen
independently -
9:18 - 9:19over 40 times.
-
9:22 - 9:24Would alien plants look like ours
-
9:24 - 9:25or something else entirely?
-
9:37 - 9:39On Earth, plants appear green
-
9:39 - 9:41because they absorb the other wavelengths
-
9:41 - 9:43in the Sun's light spectrum.
-
9:45 - 9:48But stars come in many colors,
-
9:52 - 9:55and alien plants would evolve
different pigments -
9:55 - 9:57to adapt to their sun's unique spectrum.
-
10:04 - 10:06Plants feeding off hotter stars
-
10:06 - 10:08could appear redder,
-
10:08 - 10:10by absorbing their energy-rich
-
10:10 - 10:11bluer light.
-
10:20 - 10:22Around dim red dwarf stars,
-
10:22 - 10:24vegetation could appear black,
-
10:25 - 10:26adapted to absorb
-
10:26 - 10:28all visible wavelengths of light.
-
10:45 - 10:46Earth itself
-
10:46 - 10:48may have once appeared purple,
-
10:48 - 10:50due a pigment called retinal
-
10:50 - 10:52that was an early precursor
to chlorophyll. -
10:55 - 10:58Some think that
retinal's molecular simplicity -
10:58 - 11:01could make it a more universal pigment.
-
11:04 - 11:05If so,
-
11:05 - 11:07we may find that purple
-
11:08 - 11:10is life's favorite color.
-
11:20 - 11:22But the color of alien vegetation
-
11:22 - 11:24is more than just a curiosity—
-
11:26 - 11:27it's chemical information
-
11:27 - 11:29that can be seen from lightyears away.
-
11:34 - 11:37Earth plants leave a signature "bump"
-
11:37 - 11:39in the light reflected off our planet.
-
11:40 - 11:43Finding a similar signal
from another world -
11:43 - 11:45could point the way to alien vegetation.
-
11:50 - 11:52Perhaps this will be
-
11:52 - 11:54our first glimpse at alien life:
-
11:55 - 11:58a vibrant hue cast by a distant world.
-
12:21 - 12:22(Caleb Scharf)
What happens when you change -
12:22 - 12:23the day length of a planet?
-
12:23 - 12:24What happens when you change
-
12:24 - 12:26the tilt of a planet?
-
12:26 - 12:27What happens when you change
-
12:27 - 12:28the shape of the orbit?
-
12:28 - 12:29What happens when you change
-
12:29 - 12:31the gravity of a planet?
-
12:34 - 12:37(Narrator)
Planets with long, elliptical orbits -
12:37 - 12:40would see drastic seasons.
-
12:41 - 12:42There could be worlds
-
12:42 - 12:45that appear dead for thousands of years,
-
12:45 - 12:48then suddenly spring to life.
-
13:02 - 13:05Most of the rocky planets
discovered so far -
13:05 - 13:07have been massive "super-Earths".
-
13:13 - 13:16How would life evolve on these worlds?
-
13:19 - 13:20In the seas,
-
13:20 - 13:22gravity may not matter much at all.
-
13:29 - 13:31(Unnamed)
A high-gravity planet -
13:31 - 13:32isn't high-gravity all over.
-
13:34 - 13:36If you're in the sea
and that's where all life starts, -
13:36 - 13:38there's very nearly no gravity
-
13:38 - 13:41'cause you're much the same density
as the stuff around you. -
13:43 - 13:46It's when the animals come out on land,
-
13:46 - 13:47that they feel the gravity.
-
13:52 - 13:54(Narrator)
High g-forces would necessitate -
13:54 - 13:56large bones and muscle mass
-
13:56 - 13:58in complex life on land.
-
14:00 - 14:01They would also demand
-
14:01 - 14:03a more robust circulatory system.
-
14:05 - 14:07And plant life could be stunted
-
14:07 - 14:09by the energy cost of carrying nutrients
-
14:09 - 14:11under stronger gravity.
-
14:17 - 14:19Low-gravity planets
-
14:19 - 14:22would more easily
lose their atmospheres to space, -
14:22 - 14:23and lack a magnetic field
-
14:23 - 14:25to protect from cosmic rays.
-
14:36 - 14:38But smaller worlds could be home
-
14:38 - 14:39to secret oases:
-
14:46 - 14:48huge cave systems
-
14:48 - 14:50that provide hideouts for life.
-
15:27 - 15:29The smallest possible habitable planets
-
15:29 - 15:32are estimated at 2.5%
-
15:32 - 15:33Earth's mass.
-
15:35 - 15:38If surface life does evolve
on these worlds, -
15:39 - 15:41it could be a sight to behold.
-
15:45 - 15:47Plant life could grow to towering heights,
-
15:47 - 15:50able to carry nutrients higher
in lesser gravity. -
15:59 - 16:00And without the need
-
16:00 - 16:03for bulky skeletons and muscle mass,
-
16:03 - 16:05animals could have body types
-
16:05 - 16:06that boggle the mind.
-
16:31 - 16:32Here on Earth,
-
16:32 - 16:35it took three billion years for evolution
-
16:35 - 16:37to produce complex plant and animal life.
-
16:40 - 16:42Simpler organisms are hardier,
-
16:42 - 16:43more adaptable,
-
16:43 - 16:44and more widespread.
-
16:48 - 16:50The largest collection
-
16:50 - 16:51in the museum of alien life
-
16:51 - 16:54would likely be the "Hall of Microbes".
-
17:10 - 17:13Yet finding even the tiniest alien microbe
-
17:13 - 17:15would be a profound discovery.
-
17:30 - 17:32And bite-sized life
-
17:32 - 17:34could leave a big footprint.
-
17:36 - 17:37Like stromatolites on Earth,
-
17:37 - 17:39layers of microbes could build up
-
17:39 - 17:42into huge rock mounds over time,
-
17:42 - 17:44leaving behind eerie structures.
-
17:49 - 17:50And in big enough numbers,
-
17:50 - 17:52some alien bacteria could leave
-
17:52 - 17:54a distinct biosignature
-
17:56 - 17:59by exhaling gases that wouldn't
coexist naturally, -
17:59 - 18:01like oxygen and methane.
-
18:07 - 18:08(Shawn Domagal-Goldman)
There's ways to make -
18:08 - 18:10oxygen without life,
there's ways to make -
18:10 - 18:11methane without life,
-
18:11 - 18:13but to have them in the atmosphere together
-
18:13 - 18:15is almost impossible unless you've got
-
18:15 - 18:17biology making those gases at the surface.
-
18:18 - 18:19And it would have an imprint
-
18:19 - 18:21on the planet's spectrum of colors.
-
18:23 - 18:25(Narrator)
Next-generation space telescopes -
18:25 - 18:27could find a signal like this,
-
18:28 - 18:31on a world not far from home.
-
18:32 - 18:34(Chris Crowe)
The closest Sun-like star -
18:34 - 18:38with an Earth-like exoplanet
in the habitable zone -
18:38 - 18:40is probably only 20 light years away,
-
18:40 - 18:42and can be seen with the naked eye.
-
19:06 - 19:08Most brown dwarfs are too hot
-
19:08 - 19:10to support life as we know it.
-
19:11 - 19:13But some are just cold enough.
-
19:24 - 19:26All the prime elements for life
-
19:26 - 19:29have been detected
inside their atmospheres. -
19:31 - 19:33And within these clouds,
-
19:33 - 19:34some layers would provide
-
19:34 - 19:36ideal temperatures and pressures
-
19:36 - 19:38for habitability.
-
19:46 - 19:49There could be photosynthetic plankton
in these skies, -
19:50 - 19:53kept aloft by churning upwinds.
-
19:57 - 19:59And with enough force,
-
19:59 - 20:01these upwinds could even support
-
20:01 - 20:03larger, more complex life.
-
20:06 - 20:07Predators.
-
20:44 - 20:46This raises a crucial question:
-
20:48 - 20:50what if we've been looking in
all the wrong places? -
20:53 - 20:55What if nature has other ideas?
-
21:21 - 21:24Most of the universe
is too cold or too hot -
21:24 - 21:26for liquid water and the biochemistry
-
21:26 - 21:28that supports life as we know it.
-
21:31 - 21:34But in case our biases are misleading,
-
21:35 - 21:36we have to cast a wide net—
-
21:39 - 21:42to search for life outside
the habitable zone, -
21:42 - 21:45in places that seem wildly hostile to us.
-
21:49 - 21:51Exotic environments will demand
-
21:51 - 21:53exotic biochemistries,
-
21:53 - 21:57and while no element can match
carbon's versatility, -
21:57 - 21:59one contender is a frontrunner.
-
22:08 - 22:09At first glance,
-
22:09 - 22:11silicon seems similar to carbon.
-
22:13 - 22:15It forms the same four-way bonds
-
22:15 - 22:17and is also abundant in the universe.
-
22:19 - 22:21But a closer look reveals that
-
22:21 - 22:23these two elements are false twins.
-
22:27 - 22:29Silicon bonds are weaker,
-
22:29 - 22:33and less prone to forming
large, complex molecules. -
22:36 - 22:38Despite this,
-
22:38 - 22:41they can withstand a wider range
of temperatures, -
22:41 - 22:44opening up intriguing possibilities.
-
22:47 - 22:49(Carl Sagan)
Life based on the silicon atom, -
22:49 - 22:51instead of carbon,
-
22:51 - 22:53would be more resistant to the
extreme cold, -
22:55 - 22:57providing a whole new range
-
22:57 - 22:58of weird forms.
-
23:01 - 23:03(Narrator)
But silicon has a problem: -
23:04 - 23:06in the presence of oxygen,
-
23:06 - 23:08it binds into solid rock.
-
23:10 - 23:12To avoid turning to stone,
-
23:12 - 23:14silicon beings might be confined
-
23:14 - 23:16to oxygen-free environments,
-
23:16 - 23:18like Saturn's frigid moon,
-
23:18 - 23:19Titan.
-
23:23 - 23:26Its vast lakes of
liquid methane and ethane -
23:26 - 23:27could be an ideal medium
-
23:27 - 23:29for silicon-based life,
-
23:29 - 23:32or other radical biochemistries.
-
23:37 - 23:39Without ample sunlight,
-
23:39 - 23:41beings on worlds like Titan
-
23:41 - 23:43would likely be chemosynthetic,
-
23:43 - 23:46deriving their energy
by breaking down rocks. -
24:01 - 24:03Such life forms could have
-
24:03 - 24:05ultra slow metabolisms,
-
24:05 - 24:06and life cycles
-
24:06 - 24:08measured in millions of years.
-
24:26 - 24:27In high temperatures,
-
24:27 - 24:30typically rigid silicon-oxygen bonds
-
24:30 - 24:32become more flexible and reactive,
-
24:33 - 24:35triggering more dynamic chemistry.
-
24:40 - 24:43This has led to a truly bizarre proposal:
-
24:43 - 24:45silicon-based lifeforms
-
24:45 - 24:48that live inside molten silicate rock.
-
25:01 - 25:03In theory,
these forms could even exist -
25:03 - 25:06deep beneath the Earth inside
magma chambers -
25:06 - 25:08as part of a shadow biosphere.
-
25:12 - 25:13If so,
-
25:13 - 25:17then the aliens are right under our noses.
-
25:21 - 25:23Other shadow biospheres
have been proposed— -
25:23 - 25:25forms of life living alongside us
-
25:25 - 25:27that we don't even know are here—
-
25:27 - 25:31including tiny RNA-based life
small enough to go -
25:31 - 25:34undetected by existing instruments.
-
25:47 - 25:49Clouds of dust and empty space
-
25:49 - 25:51might seem like the last place
you'd expect -
25:51 - 25:52to find anything living.
-
25:54 - 25:56But when cosmic dust
-
25:56 - 25:59makes contact with plasma,
a type of ionized gas, -
25:59 - 26:01something strange happens.
-
26:06 - 26:07In simulated conditions,
-
26:07 - 26:09dust particles have been seen
-
26:09 - 26:11spontaneously self-organizing into
-
26:11 - 26:14helical structures that resemble DNA.
-
26:19 - 26:20These plasma crystals
-
26:20 - 26:22even begin to exhibit lifelike behavior:
-
26:24 - 26:25replicating,
-
26:25 - 26:27evolving into more stable forms,
-
26:27 - 26:29and passing on information.
-
27:12 - 27:15Plasma is the most common state of matter
-
27:15 - 27:16in the universe.
-
27:17 - 27:20If complex, evolving plasma crystals
-
27:20 - 27:21really exist,
-
27:21 - 27:23and if they can be considered life,
-
27:23 - 27:25they could be its most common form.
-
27:51 - 27:53When massive suns explode,
-
27:53 - 27:56some collapse into ultra dense cores
-
27:56 - 27:57called neutron stars.
-
27:58 - 28:00Hulking masses of atomic nuclei,
-
28:00 - 28:02crammed together like sardines.
-
28:05 - 28:08Conditions on the surface are
mind-boggling— -
28:09 - 28:11gravity is a hundred billion times
-
28:11 - 28:12stronger than Earth's.
-
28:15 - 28:18But beneath their iron nuclei crust
-
28:18 - 28:20lies something strange:
-
28:21 - 28:23a hot dense sea
-
28:23 - 28:26of neutrons and subatomic particles.
-
28:34 - 28:36Stripped of their electron shells,
-
28:36 - 28:38these nuclei would obey
-
28:38 - 28:40entirely different laws of chemistry,
-
28:40 - 28:43based not on the electromagnetic force,
-
28:43 - 28:45but the strong nuclear force
-
28:45 - 28:47which binds nuclei together.
-
28:50 - 28:51In theory,
-
28:51 - 28:55these particles could link up to form
larger macronuclei, -
28:55 - 28:57which could then combine into even bigger
-
28:57 - 28:58"super nuclei".
-
29:07 - 29:08If so,
-
29:08 - 29:10then this bewildering environment
-
29:10 - 29:12would mimic the basic conditions for life—
-
29:12 - 29:14heavy nucleon molecules,
-
29:14 - 29:17floating in a complex particle ocean.
-
29:23 - 29:25Some scientists have proposed
the unimaginable: -
29:26 - 29:28exotic life forms
-
29:28 - 29:31drifting through the strange particle sea,
-
29:31 - 29:33living, evolving, and dying
-
29:33 - 29:36on incomprehensibly fast time scales.
-
30:19 - 30:21Life is not something
-
30:21 - 30:23that has to evolve naturally.
-
30:26 - 30:27It can be designed.
-
30:41 - 30:43And once intelligence is introduced
-
30:43 - 30:46into the evolutionary process,
-
30:46 - 30:48a Pandora's box is opened.
-
31:06 - 31:09Free from typical biological limitations,
-
31:09 - 31:11synthetic and machine-based life
-
31:11 - 31:13could be the most successful of all.
-
31:17 - 31:19It could thrive almost anywhere,
-
31:19 - 31:21including the vacuum of space,
-
31:21 - 31:23opening up vast frontiers
-
31:23 - 31:25unavailable to biological organisms.
-
31:32 - 31:35And compared to the glacial pace
of natural selection, -
31:35 - 31:37technological evolution
-
31:37 - 31:39allows exponentially faster growth,
-
31:39 - 31:42adaptability, and resilience.
-
31:56 - 31:59By some estimates,
autonomous self-replicating machines -
31:59 - 32:02could colonize an entire galaxy
-
32:02 - 32:04in as little as a million years.
-
32:19 - 32:21We can't predict how hyperintelligent life
-
32:21 - 32:23would organize itself,
-
32:26 - 32:27but in theory,
-
32:27 - 32:30there could be convergent evolution
at play. -
32:32 - 32:34The electrical properties of silicon
-
32:34 - 32:36might make it a universal basis
-
32:36 - 32:38for machine intelligence,
-
32:39 - 32:42a redemption for its biological
shortcomings. -
33:53 - 33:55As the universe ages,
-
33:55 - 33:58perhaps machine intelligence will come
to dominate, -
33:59 - 34:01and naturally occurring biological life
-
34:01 - 34:04will be viewed as a quaint starting point.
-
34:09 - 34:11Perhaps we ourselves
-
34:11 - 34:12will lead this transition,
-
34:13 - 34:15and the great human experiment
-
34:15 - 34:16would be merely a first link
-
34:16 - 34:20in a sprawling intergalactic chain
of life. -
35:27 - 35:30Loren Eiseley has said
-
35:30 - 35:32that one does not meet oneself
-
35:32 - 35:34until one catches the reflection
-
35:34 - 35:36from an eye other than human.
-
35:39 - 35:41One day that eye may be
-
35:41 - 35:43that of an intelligent alien.
-
35:46 - 35:48And the sooner we eschew
-
35:48 - 35:51our narrow view of evolution,
-
35:52 - 35:56the sooner we can truly explore
-
35:56 - 35:59our ultimate origins and destinations.
-
36:35 - 36:40English captions by
vrgtics, ericksoares3, and KillerGhoul
- Title:
- LIFE BEYOND II: The Museum of Alien Life (4K)
- Description:
-
Soundtrack: https://bit.ly/3lo7cnH Support this project on Patreon: http://patreon.com/melodysheep
What if there was a museum that contained every type of life form in the universe? This experience takes you on a tour through the possible forms alien life might take, from the eerily familiar to the utterly exotic, ranging from the inside of the Earth to the most hostile corners of the universe.
New research is upending our idea of life and where it could be hiding: not just on Earth-like planets, where beings could mimic what our planet has produced, but in far flung places like the hearts of dead stars and the rings of gas giant planets. Nowhere in the universe is off limits.
Only when we know what else is out there will we truly know ourselves. This thought experiment will give us a glimpse into what could be out there, how we might find it, and just how far nature’s imagination might stretch.
Big thanks to Protocol Labs for their continued support of this series: https://protocol.ai.
Concept, visuals, and score by melodysheep, aka John D. Boswell. Narrated by Will Crowley. Additional visuals by Lynn Huberty, Tim Stupak, NASA, and Evolve. Featuring soundbites from Nick Lane, Jonathan Losos, Caleb Scharf, Jack Cohen, and Jill Tarter.
Featuring clips from Lynn Huberty’s amazing film “SHYAMA”: https://bit.ly/3d6xtUF
Thanks especially to:
Lynn Huberty
Juan Benet
Rowdy Jansen
Eddy Adams: http://www.eddyadams.com
Kimi Ushida: http://Eff.org
Gregory Cohen: www.DesignFirebrand.com
Eric Capuano: http://reconinfosec.com
John Maier
Logan
Ali Aljumayd
Caleb Levesque
Eric Malette
Brandon Sanders
Tim StupakAnd to all my supporters on Patreon: Ada Cerna, Adam Orand, Ajish Balakrishnan, Aksel Tjønn, Ali Akın Kurnaz, Andrew Edwards, Andrew Valenti, Antoine C, Antoni Simelio, Augustas Babelis, Bhisham Mahtani, Bradley Gallant, Brant Stokes, Daniel Saltzman, Caleb Levesque, Case K., Cheshire 2e du nom, Chinmay Kumar, Chris Wilken, Christian Oehne, Christina Winikoff, Christopher Heald, Chung Tran, Colin Glover, Corentin Kerisit, Cozza38, Crystal, Dan Alvesved, Danaos Christopoulos, Dave LeCompte, Davee Hallinan, David Lyneham, david p boswell, David Southpaw, denise frey, Derick Yan, Dexter, dixon1829, Don Loristo, Dylan Webb, Eico Neumann, Eyubed Balcha, Ezri Dax, Gaétan Marras, Gary Wei, geekiskhan, Genesplicer, Giulia C., Håkon A. Hjortland, Hans Husurianto, Henry R. Seymour, Heribert Breidsamer, ilkercan Kaya, Iota Katari, is8ac, Jackie Pham, James O'Connor, Jayson Hale, Jean Neyrial, Jessica Turner, Jimpy, JM_Borg, Jordan Swickard, Jose Contreras, Joshua Oram, JousterL, Julian Büttner, Julio Hernández Camero, kaynen brown, Kristin & Alan Cameron, Laine Boswell, Lars Støttrup Nielsen, Laura, Laura Liddington, Layne Burnett, LemonHead, Lennart Klootwijk, Leo Botinelly, Leonard van Vliet, lloll887, Manu Galán García, Maraiu, Marco Cardamone, Mark Christopher, Mark T., Markus Oinonen, Marlin Balzer, Martin Majernik, Matthew Jacoby, Matthew Ullrich, Maxime Marois, Mehdi Bennani, Michael Li, Michelle Wilcox, Mike Norkus, Mind Wave, Mitchel Humpherys, Mohammed Aldaabil, Nathan, Nicholas Martin, Nikita Temryazansky, Nina Atesh, Nina Barton, Ninel, Patrick Keim, Patrick Schouten, Peycho Ivanov, PonWer, Preston Maness, Radu Turcan, Ramsey Elbasheer, Randall Bollig, Raz, RedOptics, Reg Reyes, Richard Sundvall, Richard Williams, Rob Phillips, Robin Kuenkel, Runi Winther Johnsen, Samih Fadli, Sandra, Sandro Heinimann, Scarlet Fortuna, Silas Rech, SilverFolfy, Smoka_Lad, SpartanLegends, Stefan, SunaScorpion, SymeSynth, The Cleaner, The Fellowship of Doge, TheHumungus, Timothé Wegiersky, Timothy E Plum, Trevor Robertson, Verissimus, Vinh Vo, Virgile Coulot, Whitney Champion, William Ronholm, Wise Doane, Wolfgang Bernecker, Yannic, ZAB, Алексей Козловский
Sources coming soon.
Peace and love,
melodysheeep
http://melodysheep.com
twitter: @musicalscience
instagram: @melodysheep_ - Video Language:
- English
- Duration:
- 38:00
bluereflega edited English subtitles for LIFE BEYOND II: The Museum of Alien Life (4K) | ||
bluereflega edited English subtitles for LIFE BEYOND II: The Museum of Alien Life (4K) | ||
bluereflega edited English subtitles for LIFE BEYOND II: The Museum of Alien Life (4K) | ||
bluereflega edited English subtitles for LIFE BEYOND II: The Museum of Alien Life (4K) | ||
bluereflega edited English subtitles for LIFE BEYOND II: The Museum of Alien Life (4K) | ||
bluereflega edited English subtitles for LIFE BEYOND II: The Museum of Alien Life (4K) | ||
bluereflega edited English subtitles for LIFE BEYOND II: The Museum of Alien Life (4K) | ||
bluereflega edited English subtitles for LIFE BEYOND II: The Museum of Alien Life (4K) |