2036. The south pole of the Moon. The Sun never rises here — it just circles the horizon. And on the rim of a giant crater stands humanity's first permanent home on another world.
NASA has a $20 billion plan to build it. But why there, of all places? Why will the first homes look like barrels buried in dirt instead of glass domes? What will people breathe and eat, how do you sleep when you weigh 13 kilos — and what could kill the crew in the very first month?
And there's a second team racing for the same few spots.
Credits: NASA, ESA (RegoLight concept, CC BY-SA 3.0 IGO), NIST, NASA/GSFC/Arizona State University (LROC). 3D-printed house footage: Alfredo Milano / Italdron, WASP & Mario Cucinella Architects (TECLA), CC BY 2.5. #universe, #perfect universe, #galaxy#Mysteries
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NASA and other global space agencies are planning the first permanent human base on the Moon's South Pole by the mid-2030s. By leveraging lunar ice for water and oxygen, and using 3D-printed regolith for radiation shielding, humanity aims to transition from short visits to long-term habitation in a competitive international race.
2036. The south pole of the moon. The sun never climbs high here.
It creeps along the horizon in a circle,
taking a whole month to go around the sky.
Shadows of rocks stretch for hundreds of meters.
On the rim of a huge crater stand a few white cylinders,
buried under gray soil.
Next to them, tall solar masts, a rover the size of a bus,
and a trail of footprints leading down into darkness.
This is humanity's first permanent base on another world,
and it is not science fiction.
In March 2026, NASA unveiled a plan.
$20 billion over seven years for a base near the lunar South Pole.
For it, NASA even dropped Gateway,
the lunar orbit station it had been building for years.
So what will it look like? Where will it stand?
What will it be built from? What will people
breathe and eat? How will they sleep in lunar gravity?
And what could kill them in the first
50 years ago, Apollo landed near the equator.
Flat, bright, convenient,
but almost impossible to live in.
At the equator, a lunar day lasts 14 Earth days.
The surface heats up to 120 degrees Celsius.
Then comes a 14-day night.
It drops to minus 170, and solar panels give nothing for two weeks.
At the pole, it's different. The moon's axis is barely tilted,
so the sun never rises or sets. It circles low along the horizon.
Some ridges get sunlight more than 80% of the time.
An upright solar panel, like a sail, catches it almost non-stop.
And a few steps from these sunny ridges lies eternal darkness.
Deep crater floors haven't seen the sun in billions of years.
It gets down to minus 240 degrees,
some of the coldest places in the solar system, colder
than Pluto's surface.
And in this cold lies the moon's greatest treasure, ice.
In 2009, NASA deliberately crashed a rocket stage into Cabeus Crater.
In the cloud of dust it threw up, they found water, about 5% by mass.
So the soil in Eternal Shadow is a frozen mix of rock
and ice built up over billions of years.
On the moon, water is everything.
You can drink it and turn it into oxygen to breathe.
Split it into hydrogen and oxygen and you get rocket fuel.
Every liter made on site is a liter you don't haul from Earth.
And shipping to the moon
costs more than gold.
So the base will stand on the rim of Shackleton Crater.
21 kilometers wide, more than four deep.
Up on the ridge, almost constant light. Down below,
ice within reach. This April,
four astronauts aboard Orion flew around the moon. Artemis II
was the first crewed lunar flight in more than 50 years.
They went farther from Earth than anyone
before, and 10 days later, splashed down off California.
Next comes landing.
Private ships will carry crews to the surface,
SpaceX's Starship and Blue Origin's Blue Moon.
The lunar Starship is a tower almost 50 meters tall,
with the crew cabin at the very top.
So astronauts will ride an elevator down
from the height of a 10-story building,
But robots go first.
Landers will deliver instruments, drills, and rovers. They'll
search for where the ice lies closest to the surface,
and where it's safest to land.
The base will grow in three stages.
First, scouting and regular flights. Then structures
for stays of several weeks.
And by the mid-2030s, habitats for long missions.
Seen from above in its first years,
the base looks less like a city than an expedition camp.
In the middle, a landing pad. And it's more than a flat spot.
A landing ship's engines blast lunar
dust, called regolith, at over a kilometer per second.
Every grain flies like a bullet.
So the pad will be baked into a hard crust
and placed a kilometer or more from the habitats.
Nearby stand tall solar masts,
vertical because the polar sun always hangs low.
NASA even plans for them to charge rovers wirelessly.
But solar alone isn't enough.
Even the pole has dark periods.
So NASA wants a nuclear reactor on the moon.
The White House goal?
A lunar surface reactor ready to launch
by 2030 with around 100 kilowatts of power.
On Earth, that powers a few dozen homes.
On the moon, it means light, heat, air, and mining water.
The reactor will sit away from the habitats,
behind a ridge or in a pit,
with soil as its radiation shield.
The main vehicle early on is a pressurized rover
built by Japan's space agency JAXA with Toyota.
A home on wheels. Inside, you can take off your suit, eat, and sleep.
Two astronauts will drive
it on weeks-long expeditions, hundreds of kilometers from base.
Now the most interesting
part. What will the home itself look like?
Probably not like in the movies. No glass domes
under the stars. The first habitats will look like barrels buried
in dirt. And there's a reason.
The moon has no atmosphere and no magnetic field.
On Earth, they shield us from cosmic radiation.
On the Moon, nothing stops it.
In 2019, China's Chang'e 4 lander measured radiation
on the lunar surface for the first time.
About 200 times higher than on Earth.
Two to three times higher than on the International Space Station.
And that's just the background.
Solar flares are far worse.
In a strong storm, someone out on the surface could get
a dose causing radiation sickness within hours.
The best shield is the moon itself.
A couple of meters of regolith stops most of the radiation.
So habitats will be covered with soil.
Inside, a special shelter with thick walls, surrounded by stored water.
Water blocks radiation well.
When a storm hits, the crew waits it out there,
sometimes a day or longer. The second enemy is
micrometeorites,
tiny grains flying at 20 kilometers per second and faster. On Earth,
they burn up in the air. On the Moon, they hit the ground.
The same soil layer protects against them.
But nobody will shovel soil by hand.
The plan is to print it.
Back in 2013, the European Space Agency
and architects Foster and Partners presented a design.
First, an inflatable module arrives and unfolds like a tent.
Then, a robotic printer covers it,
layer by layer, with a regolith shell.
Not a solid wall, but full of cells,
like a honeycomb or a bird's bones.
Light, strong, and good at taking hits.
In the U.S., a company called Icon
already prints concrete houses on Earth.
With NASA, it's developing a printer to build on the moon.
Roads, landing pads, walls,
and here the base starts to look truly unusual.
Outside, gray-ribbed mounds,
almost indistinguishable from the landscape.
Inside, white modules, light, plants, and people without spacesuits.
By the way, lunar soil is almost half oxygen.
It's just locked inside minerals.
Heat regolith and run an electric current through it,
and the oxygen is released.
Such machines are already being tested on Earth,
so in time the base's air will be partly local
and its water will come from crater ice.
Food is harder. In 2022, Florida scientists
first tried growing plants in real lunar soil brought back by Apollo.
The plants sprouted,
but they grew slowly with small leaves and their genes showed stress.
Lunar soil is sharp, with no organic matter and almost no nutrients.
So the first lunar gardens will be hydroponic.
Roots in nutrient water, light from lamps.
Lettuce, radishes, tomatoes, greens.
Not enough to feed the crew, but fresh vitamins.
And something more.
A splash of green in a world where everything is grey.
Now imagine waking up on this base.
You weigh six times less than on Earth.
80kg becomes about 13. You can push out of bed with one finger.
Water pours from a glass
as if in slow motion. Normal walking won't work.
Apollo astronauts found it easier to
hop like kangaroos. But you can't hop in a cramped module.
So floors and ceilings will
will be designed for moving in pushes without hitting your head.
But lightness is a trap.
Without load, muscles and bones waste away. On the space station,
astronauts exercise two hours a day to keep their bones.
The moon will be the same. Machines,
straps, weights, every day.
Here, a day is just a convention. The polar sun doesn't set,
it just circles. So the base will make day and night with lamps.
Cool blue in the morning, warm yellow in the evening.
Otherwise, the body loses track within weeks.
And in the window? Earth!
From the south pole, it hangs low over the horizon and barely moves.
The moon always shows us one face.
So for the people on the base, Earth never rises or sets.
It's simply there.
A blue ball four times bigger than our moon,
going through phases from a thin crescent to a full disk.
Calling home is almost instant.
A signal reaches Earth in just over a second.
A slight pause, but a real conversation.
But life on the Moon is no vacation.
And the worst enemy isn't radiation. It's dust.
Lunar regolith is nothing like beach sand.
On Earth, wind and water smooth the grains over millions of years.
The Moon has neither.
Every speck is a sharp shard of glass and rock,
and static makes it cling to everything.
Apollo astronauts said that after moonwalks, dust was everywhere.
In the cabin, in their hair, up their noses.
Harrison Schmidt of Apollo 17 called it lunar hay fever.
Stuffy nose, watering eyes, and they stayed no more than three days.
The dust wore through suit layers and jammed latches and joints.
Living with it for years is another matter,
so spacesuits will probably never come inside.
They'll be docked to the outer wall,
and you'll climb in through a hatch in the back.
The dust stays outside.
The moon also has moonquakes.
Shallow ones reach magnitude 5 and last up to 10 minutes,
far longer than on Earth.
The dry, cold moon damps vibrations very slowly. It rings like a bell.
So the base must be built with a safety margin.
And finally, distance.
If something goes wrong, help is days away, not an hour.
So the base needs its own doctor, spare parts, and workshop.
Much will be repaired and printed on site.
But what if, instead of burying homes under soil,
people lived beneath it?
In the Sea of Tranquility,
not far from where Apollo 11 landed in 69, there's a huge pit.
About 100 meters across and as deep,
the collapsed roof of an ancient lava tube where molten lava
flowed billions of years ago.
In 2024, scientists re-examined old radar data from the LRO probe
and found a cave under the pit.
About 45 meters wide and at least 80 long.
And that's only what the radar can see.
Inside, no radiation, no micrometeorites,
and almost no temperature swings.
It stays around 17 degrees Celsius,
nearly room temperature, on the moon.
A ready-made shelter, built by nature.
Lower inflatable modules inside,
and 100 meters of rock shields the base on all sides.
No mission to lunar caves is approved yet,
but the idea is on the table,
and not only for Americans,
because more than one country is heading to the South Pole.
China and Russia are building the International Lunar Research Station,
with a basic version planned by 2035.
China aims to land its own astronauts even sooner,
before 2030,
and lately, its program keeps hitting its deadlines,
one Chang'e after another.
Good spots at the pole are few,
ridges with near constant light, craters with ice.
Whoever comes first gets the best ones. That's why NASA is in a hurry.
That's why it dropped Gateway, to fund the base.
It's a race, just like the 60s,
only this time the goal isn't a flag and footprints, it's a home.
So, when will this happen?
If all goes to plan,
the first crews land near the South Pole in the late 20s.
Structures for weeks-long stays in the early 30s.
And permanent crews, like on the space station, by the mid-30s.
Space deadlines almost always slip.
But for the first time in 50 years, there's everything at once.
Money, rockets, ships, and a rival that won't let anyone relax.
And maybe somewhere in a school right now sits a child who,
15 years from now, will
wake up in a white module buried in gray dust.
They'll switch on the morning light
and look through a small window at the blue ball above
the horizon, then head out for a shift,
mining ice from a crater where the sun hasn't shone
in four billion years.
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