Buraka Bougou, Mali, 1987.
If you had walked past the drilling crew
at the edge of the village that morning,
you would have seen nothing worth
remembering. They are boring for water.
They find none, and they stop. One of
the men leans over the dry hole with a
cigarette, and the air coming out of it
catches fire. The flame is almost
invisible in daylight, and it will not
blow out. He is badly burned, so they
cap the hole, and everybody agrees to
leave it alone. 25 years later, a
company reopens that hole, pipes it into
a generator, and the village gets
electric light. The gas is about 98%
hydrogen. Nobody manufactured it, and
nobody put it there. It has run that
generator since 2012, and after 11 years
of production, the wellhead pressure had
gone up rather than down. So, when a
company announces that Canada has just
found a fuel that should not exist, hold
on to that village. The fuel was under
it the whole time. What did not exist
was anybody looking for it. In November
of 2025, a junior company listed on the
Canadian Securities Exchange put a rig
down on a quarter section near Central
Butte, Saskatchewan, about 140 km south
of Saskatoon. The well is called Lawson
1519.
It went down 2,278
m through more than 2 km of flat prairie
sediment, through a sheet of solid salt,
and into rock older than free oxygen in
the atmosphere. The company calls it the
first well drilled anywhere in Canada
for the specific purpose of finding
hydrogen, and nobody has disputed it.
However, if you have heard anything at
all about this one, you have almost
certainly heard the company's account of
it, because for most of this story, the
company's account is the only account
there is. Separating what somebody
measured from what somebody announced is
half of this video.
The other half is the ground because
whether hydrogen is down there was never
the interesting question. The question
worth the next 26 minutes is why it came
up under a potash field in a province
holding fewer people than the city of
Calgary.
Let's dive in.
Start with why nobody went looking
because the answer is not laziness on a
drilling floor.
It was a rule. Hydrogen is the smallest
molecule in existence.
The working assumption across the oil
industry for most of a century was that
a molecule that small could not be held
by anything.
Given geological time, it would diffuse
out through any cap rock and whatever
failed to escape would be eaten because
a great many subsurface microbes
metabolize hydrogen with enthusiasm.
Under that assumption, a pocket of free
hydrogen was not something you had
failed to find. Such a pocket could not
be down there in the first place.
Jeffrey Ellis is a research geochemist
with the United States Geological Survey
and he has described his own first
reaction to the reports out of Mali in
almost those words that he simply knew
this could not happen. He went and
looked properly during the pandemic. He
came out the other side saying something
close to the opposite which is that we
have not been looking for it and that we
have not been looking in the right
places. Then there was the
instrumentation and that part is more
embarrassing than the theory.
When a rig drills a well, gas carried up
in the mud gets fed through a
chromatograph at surface.
Those units are configured to report
methane, ethane, propane, butane, and
pentane because those are the compounds
that pay for the whole. Hydrogen sits
outside the window. A conventional mud
logging setup will not report it, will
not flag it, and in some configurations
cannot see it at all.
Millions of wells have been drilled
across North America by crews whose
instruments were, in the most literal
sense, not asking.
Which means the absence of hydrogen in
the record was never evidence of
anything. Even where a trace did
register, there was a ready explanation
for throwing it away.
Hydrogen is generated by the drilling
itself at the bit face, where fresh
steel grinds against rock in water.
So, a hydrogen reading was routinely
written off as an artifact of the
equipment, rather than a property of the
formation, which is a very convenient
thing to believe about a gas nobody
wanted. Where somebody did ask, the
answers were ignored anyway.
Oil drillers in South Australia in the
early 20th century pulled gas samples
running around 25% hydrogen and made no
attempt whatever to capture any of it,
because in 1915, hydrogen was not a
commodity. It was contamination.
Then somebody put a number on what all
of that might be hiding.
That is the situation Ellis and his
colleague Sarah Gelman were writing into
when they published a model of the
global geologic hydrogen resource in
Science Advances in December of 2024.
Their central figure is about 5.6
trillion tons of hydrogen in the crust.
Their own uncertainty range spans seven
orders of magnitude, which is an honest
way of saying that nobody knows. The
number worth carrying is the smaller
one. Ellis and Gelman argue that if
roughly 100 billion tons of that turned
out to be recoverable, it would cover
projected global hydrogen demand under a
net-zero pathway for about 200 years.
That is a model,
not a measurement, not a reserve, and
the authors do not offer it as either,
but it changed what counted as a
reasonable thing to go and drill for,
and that is the door Saskatchewan walked
through.
Everything after this is two questions.
Which rock generates the hydrogen, and
which rock traps it?
So, how does rock make hydrogen?
Two mechanisms make hydrogen out of
rock, and they run on completely
different clocks. The fast one is
serpentinization.
Take water, push it into iron-rich
ultramafic rock at something like 200°
to 300°, and the iron in the mineral
strips the oxygen out of the water
molecule and keeps it.
What walks away is hydrogen. That
reaction is why natural hydrogen was
first taken seriously along mid-ocean
ridges and in a file light belts, and on
the geological clock, it is quick,
running over hundreds of thousands to a
million years.
Saskatchewan does not have that.
Saskatchewan has the slow one. The slow
one is radiolysis, and the beauty of it
is that it needs almost nothing.
Uranium, thorium, and potassium sitting
in ordinary granite decay. The alpha
particles coming off them travel a very
short distance and hit whatever occupies
the pore space. And where that is water,
the radiation breaks the water molecule
apart. Hydrogen comes off. The helium
comes off the decay chain itself from
those same alpha particles. One process,
two gases out of one rock.
Hold that sentence because it is the
entire reason this discovery happened at
all, and the short versions of this
story leave it out.
Now look at what sits under the
province.
Roughly 1.8 billion years ago, the
Superior Craton and the Wyoming Craton
collided, and everything caught in
between them, island arcs, ocean floor,
sediment, got crushed and welded into
the join.
That collision is the Trans-Hudson
Orogen.
Jeffrey Bader, writing for the North
Dakota Geological Survey, calls the
result an ancient Everest, and the
comparison is not decorative. The
mountain belt raised along that seam is
reconstructed at Himalayan scale,
running from the Dakotas up through
Saskatchewan and Manitoba, and on into
Hudson Bay. Then it eroded for the
better part of 2 billion years down to
nothing. The Williston Basin sagged over
the stump and filled with flat Paleozoic
sediment. So, what you are actually
standing on out there is the sawn-off
root of a mountain range the size of the
Himalaya, buried under 2 km of limestone
and shale and salt.
Every square meter of it has been
quietly splitting water for longer than
there have been animals on this planet.
Two features of that stump matter more
than the rock type does, and the second
one is why any of this gas is reachable
at all. The first is that it is
fractured top to bottom by faults
reactivated over and over across 2
billion years. One of them is the
Tabbernor system, which runs north for
well over a thousand kilometers and cuts
the basement clean through.
Gas made at depth in granite does not
seep upward through solid crystal. It
travels the breaks. The second feature
is what sits directly on top of the
basement, which is the Deadwood
Formation, a Cambrian sandstone draped
straight across the old eroded surface.
Porous rock lying on a fractured
generator. The province's own geologists
worked all of this out years ago, not
for hydrogen, for helium. Melinda
Yurkowski and colleagues at the
Saskatchewan Geological Survey published
the model in open file reports in 2016
and again in 2021.
Helium generated by radioactive decay of
uranium and thorium in the Precambrian
basement, then migrating up out of the
granite along fractures and faults. It
collects in the porous sandstones of the
Deadwood directly above, and an
impermeable cap holds it there.
That study ran thousands of gas analyses
from old wells across the south. And
here the thing turns. Every one of those
helium traps had been sitting there,
described in a government report. With
the same reaction that made the helium
also making hydrogen in the same rock,
along the same fractures, feeding the
same reservoir, Saskatchewan wrote down
half the answer nine years before
anybody drilled for the other half. The
company that eventually drilled was not
looking for hydrogen, either. The target
was helium.
Two geologists working the southwest of
the province, Shane Negum and Steve
Halabura, found hydrogen alongside the
helium in wells logged for something
else entirely. The Manitoba Geological
Survey shows how thin that written
record really is. In a reconnaissance
report in 2024, Michelle Nicola went
back through 101 old gas analyses from
the Manitoba side of the same basin. 10
carried more than 1% hydrogen. Three ran
high at 8.49, 7.99, and 3.28%.
And she reads those as radiolytic.
The signal, in other words, had been in
the archive the whole time. It was just
extremely faint because almost nobody
running a gas analysis had been
measuring the thing that mattered, which
leaves the hardest part of the problem.
Making hydrogen, as it happens, is the
easy half of this. Keeping it is not.
This is where the salt comes in, and
where the popular version of the story
gets one detail wrong in a way worth
correcting because what is actually
going on is better.
You will read that the Saskatchewan
hydrogen sits under a mile of salt. The
sheet in question is the Prairie
Evaporite, Middle Devonian, roughly 380
million years old, a bed of halite
running about 1,500 km from northern
Alberta down into North Dakota. Where it
is thickest near Saskatoon, it exceeds
200 m and at Belle Plaine, the mining
horizon lies more than 1,600 m down.
So, the salt is about a mile down and
nothing like a mile thick. The thickness
was never the point anyway. What matters
is that the rock is salt.
Every other seal in the sedimentary
record is a fine-grained rock that works
by having very small pores, shale,
mudstone, and anhydrite. Small pores are
excellent against oil and gas and they
leak hydrogen because hydrogen moves
through pore networks that hold a
methane molecule perfectly well,
which is the entire trapping problem in
one sentence.
Worse, brittle rock fractures.
A fracture in shale stays open and an
open fracture is a motorway.
Halite does neither of those things.
Rocksalt at depth has effectively no
permeability at all and it does not
behave like a brittle solid. Under
pressure, it creeps. Damage it and the
damage closes itself over months without
anybody doing anything about it.
That combination, no pores and
self-healing, is why every operating
hydrogen storage facility on the planet
keeps its hydrogen in solution mined
caverns in salt.
It is also why nobody stores the stuff
in sandstone if there is any way at all
to avoid it.
Salt is not merely a better seal for
hydrogen. On the current engineering
consensus, it is close to the only one,
and that single fact is what the whole
Saskatchewan story stands on.
So, the gas turning up under a potash
field is not a coincidence, and it is
not really about potash, either. A
potash deposit is, by definition, a
place where a salt sheet survived. Salt
dissolves. Across enormous areas of the
prairie evaporite, groundwater got in at
the edges and ate the halite, and the
overlying strata collapsed into the
hole.
That is why the salt margin gets mapped
as a ragged line of collapse structures,
rather than a clean edge. Wherever that
happened, the seal is gone.
Wherever it did not, you have a
continuous lid of the one rock hydrogen
cannot cross, sitting over a fractured
radioactive basement that has been
generating hydrogen and helium since
before the Cambrian.
The ORE and the lid are the same rock.
Seven underground potash mines have been
driving tunnels through that seal since
the early 1960s,
which means the sealing capacity of the
prairie evaporite is not a theory.
It is the reason those tunnels are dry.
There is the argument. A generator in
the basement, a valve system of faults,
a sandstone reservoir, and the best cap
on the continent.
If this is the Canada you want more of,
subscribe. This channel spends its time
on the half of the country that never
made it into the school books.
Now we stop talking about geology and
start reading the fine print, because
the gap between what was measured at
Central Butte and what was announced
about it is wide enough to drive a rig
through. The company is Max Power Mining
Corporation. Take its results in three
separate piles, because they are not the
same kind of thing at all.
Pile one, the numbers in the technical
release of the 16th of January, 2026.
From a flow test through the casing,
sampling an 8-m fractured interval at
the very top of the basement, hydrogen
at 16.8%
rising to 19.07%
from sealed core tubes up to 28.6%
from nine core desorption samples in the
zone just above the basement, helium up
to 8.7%
averaging 4.4.
Three laboratories are named as having
confirmed the hydrogen concentrations,
being a GAT, Core Lab, and the Petroleum
Technology Research Centre in Regina.
Those are real analyses, and they are
large numbers. They are also numbers
about gas that is in a sample, which is
a different claim from gas that will
come out of a well at a rate somebody
will pay for.
Pile two is the sentence in the same
release that almost nobody quotes back.
After perforation, the company says,
"The well quickly achieved free gas flow
to surface, delivering strong initial
rates and pressures before being
overtaken by a powerful influx of
formation brine."
Read that sentence again. Strong initial
rates with no rate given anywhere in the
release.
Strong pressures with no pressure given.
Then formation brine drowned the well.
As of today, there is no published flow
rate for this discovery anywhere in the
public record. Not a cubic meter a day,
not a kilogram an hour, nothing.
No resource estimate and no reserve
estimate exist under any recognized
standard. No independent technical
report of any kind has been made public.
Natural hydrogen also sits in an awkward
gap between the Canadian disclosure
rules, being neither a mineral under the
mining standard nor an oil and gas
reserve under the petroleum one.
A company can therefore publish gas
concentrations without triggering the
independent evaluation machinery that
either standard would normally demand.
One more thing about the laboratories,
and this is public record rather than
accusation.
The Petroleum Technology Research Center
signed a collaboration agreement with
the company in October of 2025.
The man who had been running that
center, Ron Narin Sami, became the
company's chief executive on the 1st of
December, 6 weeks before the discovery
release went out.
Three laboratories confirmed the
numbers, and one of the three had by
then supplied the chief executive.
Pile three is the promotion, and it is
the loudest pile by a distance.
The 475 km Genesis trend is an
interpretation built from magnetic and
gravity anomalies, not a mapped deposit.
Basin scale is a hope. 2 million acres
is a land position, and a good part of
that acreage is under application rather
than held. What can be verified
independently is the money, and the
money is worth a minute on its own.
Since the middle of 2025, roughly $74
million
has been raised in placements priced at
30 cents, then $1.30, then $2, then
$2.50.
Eric Sprott's vehicles now hold about
24% of the company. The market
capitalization went from roughly $156
million in April to somewhere over 500
million by the end of the summer. And a
fair amount of what reads online as
coverage of all this carries a
disclosure at the bottom saying it is
paid distribution.
None of that makes the hydrogen fake.
The hydrogen is almost certainly there
because the rock that generates it and
the rock that holds it are both sitting
exactly where the geology says they
should be. It does mean the least
verified claims travel fastest, which is
normally how it goes with a junior. Now,
set the independent science beside it.
Five days after that discovery release,
a peer-reviewed paper in Scientific
Reports laid out what a commercially
viable natural hydrogen field would
actually have to do. Sustained flow
somewhere in the range of 10 million to
100 million cubic meters a year, held up
for 20 or 30 years.
Observed natural systems, the authors
found, run one to two orders of
magnitude below that, and they conclude
that economically recoverable hydrogen
from self-recharging systems is
unlikely.
They were not writing about Canada. They
were writing about the whole category,
and their paper is the most serious
argument against everything you have
just heard. And the only producing
natural hydrogen well on Earth is still
the one in Mali.
It makes about a tenth of a ton a day. A
single ammonia plant eats 200 tons a
day.
The working example that made this
entire field respectable is also, at
present, not 1000th of a single
industrial customer, which brings the
last question around, and it is the one
that answers the title.
Saskatchewan held 1,266,000
people on the 1st of April, 2026,
on the Statistics Canada estimate.
The Calgary metropolitan area held about
1,658,000
in the middle of the previous year.
A province of 588
square kilometers, larger than France,
with nearly 400,000 fewer people in it
than one Alberta city and its suburbs,
which would be an unremarkable fact
about an empty place, except that this
one is the opposite of poor.
Canada holds the largest potash reserves
in the world, and every operating
Canadian potash mine sits in
Saskatchewan. On the province's own
accounting, that is about a third of
world production, and on natural
resources, Canada's figures more than
39% of world exports.
You will hear half the world's potash.
Nobody who publishes the statistics
supports that number, and the real ones
are impressive enough without it. In the
north, the Athabasca Basin holds the
highest grade uranium ever found on this
planet.
Cameco puts the reserve grade at Cigar
Lake at 16.33%
against ore grades elsewhere in the
world measured in tenths of 1%.
Saskatchewan is also Canada's leading
helium producer at around 3% of world
supply, aiming at 10 by 2030, and the
second largest oil-producing province
after Alberta.
Now put the people back beside all that.
The province sold 12.8 billion dollars
of minerals in 2025,
which is about 13% of everything its
economy does.
It soaks up over 16% of what the entire
country spends looking for more, while
holding 3% of the population.
And the workforce that digs all of it
out directly and on contract is around
20,000 people. There is the answer.
Everything Saskatchewan sells is under
the floor, and the floor is the reason
nobody is standing on it.
An eroded mountain range under a flat
basin does not build harbors or valleys
or any of the other things that make
people pile up in one spot. It builds a
stack of buried layers, each holding one
thing, and pulling things out from under
a lid takes capital and drills rather
than population.
The province filled up once on quarter
sections for wheat under a settlement
policy that measured success in
homesteads.
Then machinery took most of those people
off the land again and the rocks never
asked for them back. Which brings the
two halves of this video back together.
The same buried quiet unspectacular
geology that makes Saskatchewan look
like nothing at all from the highway is
the reason it is one of the richest
pieces of ground in North America.
Radiolysis needs an old radioactive
basement and the province has one.
Trapping needs an unbroken salt seal and
the province has the best one on the
continent. Wherever this was going to
turn up in Canada, it was always going
to be here. Whether any of it comes out
of the ground at a price anybody will
pay is a completely separate question
and the honest answer today is that
nobody has yet published the number that
would settle it.
Back in Mali, that well is still
running. One generator and one village
without a break since 2012. The fuel was
never the impossible part of any of
this. Noticing it was. The same rock
comes to the surface about 500 km north
of Central Butte and where it does, it
is the most valuable land in human
history.
That video is next.
Buraka Bougou, Mali, 1987.
If you had walked past the drilling crew
at the edge of the village that morning,
you would have seen nothing worth
remembering. They are boring for water.
They find none, and they stop. One of
the men leans over the dry hole with a
cigarette, and the air coming out of it
catches fire. The flame is almost
invisible in daylight, and it will not
blow out. He is badly burned, so they
cap the hole, and everybody agrees to
leave it alone. 25 years later, a
company reopens that hole, pipes it into
a generator, and the village gets
electric light. The gas is about 98%
hydrogen. Nobody manufactured it, and
nobody put it there. It has run that
generator since 2012, and after 11 years
of production, the wellhead pressure had
gone up rather than down. So, when a
company announces that Canada has just
found a fuel that should not exist, hold
on to that village. The fuel was under
it the whole time. What did not exist
was anybody looking for it. In November
of 2025, a junior company listed on the
Canadian Securities Exchange put a rig
down on a quarter section near Central
Butte, Saskatchewan, about 140 km south
of Saskatoon. The well is called Lawson
1519.
It went down 2,278
m through more than 2 km of flat prairie
sediment, through a sheet of solid salt,
and into rock older than free oxygen in
the atmosphere. The company calls it the
first well drilled anywhere in Canada
for the specific purpose of finding
hydrogen, and nobody has disputed it.
However, if you have heard anything at
all about this one, you have almost
certainly heard the company's account of
it, because for most of this story, the
company's account is the only account
there is. Separating what somebody
measured from what somebody announced is
half of this video.
The other half is the ground because
whether hydrogen is down there was never
the interesting question. The question
worth the next 26 minutes is why it came
up under a potash field in a province
holding fewer people than the city of
Calgary.
Let's dive in.
Start with why nobody went looking
because the answer is not laziness on a
drilling floor.
It was a rule. Hydrogen is the smallest
molecule in existence.
The working assumption across the oil
industry for most of a century was that
a molecule that small could not be held
by anything.
Given geological time, it would diffuse
out through any cap rock and whatever
failed to escape would be eaten because
a great many subsurface microbes
metabolize hydrogen with enthusiasm.
Under that assumption, a pocket of free
hydrogen was not something you had
failed to find. Such a pocket could not
be down there in the first place.
Jeffrey Ellis is a research geochemist
with the United States Geological Survey
and he has described his own first
reaction to the reports out of Mali in
almost those words that he simply knew
this could not happen. He went and
looked properly during the pandemic. He
came out the other side saying something
close to the opposite which is that we
have not been looking for it and that we
have not been looking in the right
places. Then there was the
instrumentation and that part is more
embarrassing than the theory.
When a rig drills a well, gas carried up
in the mud gets fed through a
chromatograph at surface.
Those units are configured to report
methane, ethane, propane, butane, and
pentane because those are the compounds
that pay for the whole. Hydrogen sits
outside the window. A conventional mud
logging setup will not report it, will
not flag it, and in some configurations
cannot see it at all.
Millions of wells have been drilled
across North America by crews whose
instruments were, in the most literal
sense, not asking.
Which means the absence of hydrogen in
the record was never evidence of
anything. Even where a trace did
register, there was a ready explanation
for throwing it away.
Hydrogen is generated by the drilling
itself at the bit face, where fresh
steel grinds against rock in water.
So, a hydrogen reading was routinely
written off as an artifact of the
equipment, rather than a property of the
formation, which is a very convenient
thing to believe about a gas nobody
wanted. Where somebody did ask, the
answers were ignored anyway.
Oil drillers in South Australia in the
early 20th century pulled gas samples
running around 25% hydrogen and made no
attempt whatever to capture any of it,
because in 1915, hydrogen was not a
commodity. It was contamination.
Then somebody put a number on what all
of that might be hiding.
That is the situation Ellis and his
colleague Sarah Gelman were writing into
when they published a model of the
global geologic hydrogen resource in
Science Advances in December of 2024.
Their central figure is about 5.6
trillion tons of hydrogen in the crust.
Their own uncertainty range spans seven
orders of magnitude, which is an honest
way of saying that nobody knows. The
number worth carrying is the smaller
one. Ellis and Gelman argue that if
roughly 100 billion tons of that turned
out to be recoverable, it would cover
projected global hydrogen demand under a
net-zero pathway for about 200 years.
That is a model,
not a measurement, not a reserve, and
the authors do not offer it as either,
but it changed what counted as a
reasonable thing to go and drill for,
and that is the door Saskatchewan walked
through.
Everything after this is two questions.
Which rock generates the hydrogen, and
which rock traps it?
So, how does rock make hydrogen?
Two mechanisms make hydrogen out of
rock, and they run on completely
different clocks. The fast one is
serpentinization.
Take water, push it into iron-rich
ultramafic rock at something like 200°
to 300°, and the iron in the mineral
strips the oxygen out of the water
molecule and keeps it.
What walks away is hydrogen. That
reaction is why natural hydrogen was
first taken seriously along mid-ocean
ridges and in a file light belts, and on
the geological clock, it is quick,
running over hundreds of thousands to a
million years.
Saskatchewan does not have that.
Saskatchewan has the slow one. The slow
one is radiolysis, and the beauty of it
is that it needs almost nothing.
Uranium, thorium, and potassium sitting
in ordinary granite decay. The alpha
particles coming off them travel a very
short distance and hit whatever occupies
the pore space. And where that is water,
the radiation breaks the water molecule
apart. Hydrogen comes off. The helium
comes off the decay chain itself from
those same alpha particles. One process,
two gases out of one rock.
Hold that sentence because it is the
entire reason this discovery happened at
all, and the short versions of this
story leave it out.
Now look at what sits under the
province.
Roughly 1.8 billion years ago, the
Superior Craton and the Wyoming Craton
collided, and everything caught in
between them, island arcs, ocean floor,
sediment, got crushed and welded into
the join.
That collision is the Trans-Hudson
Orogen.
Jeffrey Bader, writing for the North
Dakota Geological Survey, calls the
result an ancient Everest, and the
comparison is not decorative. The
mountain belt raised along that seam is
reconstructed at Himalayan scale,
running from the Dakotas up through
Saskatchewan and Manitoba, and on into
Hudson Bay. Then it eroded for the
better part of 2 billion years down to
nothing. The Williston Basin sagged over
the stump and filled with flat Paleozoic
sediment. So, what you are actually
standing on out there is the sawn-off
root of a mountain range the size of the
Himalaya, buried under 2 km of limestone
and shale and salt.
Every square meter of it has been
quietly splitting water for longer than
there have been animals on this planet.
Two features of that stump matter more
than the rock type does, and the second
one is why any of this gas is reachable
at all. The first is that it is
fractured top to bottom by faults
reactivated over and over across 2
billion years. One of them is the
Tabbernor system, which runs north for
well over a thousand kilometers and cuts
the basement clean through.
Gas made at depth in granite does not
seep upward through solid crystal. It
travels the breaks. The second feature
is what sits directly on top of the
basement, which is the Deadwood
Formation, a Cambrian sandstone draped
straight across the old eroded surface.
Porous rock lying on a fractured
generator. The province's own geologists
worked all of this out years ago, not
for hydrogen, for helium. Melinda
Yurkowski and colleagues at the
Saskatchewan Geological Survey published
the model in open file reports in 2016
and again in 2021.
Helium generated by radioactive decay of
uranium and thorium in the Precambrian
basement, then migrating up out of the
granite along fractures and faults. It
collects in the porous sandstones of the
Deadwood directly above, and an
impermeable cap holds it there.
That study ran thousands of gas analyses
from old wells across the south. And
here the thing turns. Every one of those
helium traps had been sitting there,
described in a government report. With
the same reaction that made the helium
also making hydrogen in the same rock,
along the same fractures, feeding the
same reservoir, Saskatchewan wrote down
half the answer nine years before
anybody drilled for the other half. The
company that eventually drilled was not
looking for hydrogen, either. The target
was helium.
Two geologists working the southwest of
the province, Shane Negum and Steve
Halabura, found hydrogen alongside the
helium in wells logged for something
else entirely. The Manitoba Geological
Survey shows how thin that written
record really is. In a reconnaissance
report in 2024, Michelle Nicola went
back through 101 old gas analyses from
the Manitoba side of the same basin. 10
carried more than 1% hydrogen. Three ran
high at 8.49, 7.99, and 3.28%.
And she reads those as radiolytic.
The signal, in other words, had been in
the archive the whole time. It was just
extremely faint because almost nobody
running a gas analysis had been
measuring the thing that mattered, which
leaves the hardest part of the problem.
Making hydrogen, as it happens, is the
easy half of this. Keeping it is not.
This is where the salt comes in, and
where the popular version of the story
gets one detail wrong in a way worth
correcting because what is actually
going on is better.
You will read that the Saskatchewan
hydrogen sits under a mile of salt. The
sheet in question is the Prairie
Evaporite, Middle Devonian, roughly 380
million years old, a bed of halite
running about 1,500 km from northern
Alberta down into North Dakota. Where it
is thickest near Saskatoon, it exceeds
200 m and at Belle Plaine, the mining
horizon lies more than 1,600 m down.
So, the salt is about a mile down and
nothing like a mile thick. The thickness
was never the point anyway. What matters
is that the rock is salt.
Every other seal in the sedimentary
record is a fine-grained rock that works
by having very small pores, shale,
mudstone, and anhydrite. Small pores are
excellent against oil and gas and they
leak hydrogen because hydrogen moves
through pore networks that hold a
methane molecule perfectly well,
which is the entire trapping problem in
one sentence.
Worse, brittle rock fractures.
A fracture in shale stays open and an
open fracture is a motorway.
Halite does neither of those things.
Rocksalt at depth has effectively no
permeability at all and it does not
behave like a brittle solid. Under
pressure, it creeps. Damage it and the
damage closes itself over months without
anybody doing anything about it.
That combination, no pores and
self-healing, is why every operating
hydrogen storage facility on the planet
keeps its hydrogen in solution mined
caverns in salt.
It is also why nobody stores the stuff
in sandstone if there is any way at all
to avoid it.
Salt is not merely a better seal for
hydrogen. On the current engineering
consensus, it is close to the only one,
and that single fact is what the whole
Saskatchewan story stands on.
So, the gas turning up under a potash
field is not a coincidence, and it is
not really about potash, either. A
potash deposit is, by definition, a
place where a salt sheet survived. Salt
dissolves. Across enormous areas of the
prairie evaporite, groundwater got in at
the edges and ate the halite, and the
overlying strata collapsed into the
hole.
That is why the salt margin gets mapped
as a ragged line of collapse structures,
rather than a clean edge. Wherever that
happened, the seal is gone.
Wherever it did not, you have a
continuous lid of the one rock hydrogen
cannot cross, sitting over a fractured
radioactive basement that has been
generating hydrogen and helium since
before the Cambrian.
The ORE and the lid are the same rock.
Seven underground potash mines have been
driving tunnels through that seal since
the early 1960s,
which means the sealing capacity of the
prairie evaporite is not a theory.
It is the reason those tunnels are dry.
There is the argument. A generator in
the basement, a valve system of faults,
a sandstone reservoir, and the best cap
on the continent.
If this is the Canada you want more of,
subscribe. This channel spends its time
on the half of the country that never
made it into the school books.
Now we stop talking about geology and
start reading the fine print, because
the gap between what was measured at
Central Butte and what was announced
about it is wide enough to drive a rig
through. The company is Max Power Mining
Corporation. Take its results in three
separate piles, because they are not the
same kind of thing at all.
Pile one, the numbers in the technical
release of the 16th of January, 2026.
From a flow test through the casing,
sampling an 8-m fractured interval at
the very top of the basement, hydrogen
at 16.8%
rising to 19.07%
from sealed core tubes up to 28.6%
from nine core desorption samples in the
zone just above the basement, helium up
to 8.7%
averaging 4.4.
Three laboratories are named as having
confirmed the hydrogen concentrations,
being a GAT, Core Lab, and the Petroleum
Technology Research Centre in Regina.
Those are real analyses, and they are
large numbers. They are also numbers
about gas that is in a sample, which is
a different claim from gas that will
come out of a well at a rate somebody
will pay for.
Pile two is the sentence in the same
release that almost nobody quotes back.
After perforation, the company says,
"The well quickly achieved free gas flow
to surface, delivering strong initial
rates and pressures before being
overtaken by a powerful influx of
formation brine."
Read that sentence again. Strong initial
rates with no rate given anywhere in the
release.
Strong pressures with no pressure given.
Then formation brine drowned the well.
As of today, there is no published flow
rate for this discovery anywhere in the
public record. Not a cubic meter a day,
not a kilogram an hour, nothing.
No resource estimate and no reserve
estimate exist under any recognized
standard. No independent technical
report of any kind has been made public.
Natural hydrogen also sits in an awkward
gap between the Canadian disclosure
rules, being neither a mineral under the
mining standard nor an oil and gas
reserve under the petroleum one.
A company can therefore publish gas
concentrations without triggering the
independent evaluation machinery that
either standard would normally demand.
One more thing about the laboratories,
and this is public record rather than
accusation.
The Petroleum Technology Research Center
signed a collaboration agreement with
the company in October of 2025.
The man who had been running that
center, Ron Narin Sami, became the
company's chief executive on the 1st of
December, 6 weeks before the discovery
release went out.
Three laboratories confirmed the
numbers, and one of the three had by
then supplied the chief executive.
Pile three is the promotion, and it is
the loudest pile by a distance.
The 475 km Genesis trend is an
interpretation built from magnetic and
gravity anomalies, not a mapped deposit.
Basin scale is a hope. 2 million acres
is a land position, and a good part of
that acreage is under application rather
than held. What can be verified
independently is the money, and the
money is worth a minute on its own.
Since the middle of 2025, roughly $74
million
has been raised in placements priced at
30 cents, then $1.30, then $2, then
$2.50.
Eric Sprott's vehicles now hold about
24% of the company. The market
capitalization went from roughly $156
million in April to somewhere over 500
million by the end of the summer. And a
fair amount of what reads online as
coverage of all this carries a
disclosure at the bottom saying it is
paid distribution.
None of that makes the hydrogen fake.
The hydrogen is almost certainly there
because the rock that generates it and
the rock that holds it are both sitting
exactly where the geology says they
should be. It does mean the least
verified claims travel fastest, which is
normally how it goes with a junior. Now,
set the independent science beside it.
Five days after that discovery release,
a peer-reviewed paper in Scientific
Reports laid out what a commercially
viable natural hydrogen field would
actually have to do. Sustained flow
somewhere in the range of 10 million to
100 million cubic meters a year, held up
for 20 or 30 years.
Observed natural systems, the authors
found, run one to two orders of
magnitude below that, and they conclude
that economically recoverable hydrogen
from self-recharging systems is
unlikely.
They were not writing about Canada. They
were writing about the whole category,
and their paper is the most serious
argument against everything you have
just heard. And the only producing
natural hydrogen well on Earth is still
the one in Mali.
It makes about a tenth of a ton a day. A
single ammonia plant eats 200 tons a
day.
The working example that made this
entire field respectable is also, at
present, not 1000th of a single
industrial customer, which brings the
last question around, and it is the one
that answers the title.
Saskatchewan held 1,266,000
people on the 1st of April, 2026,
on the Statistics Canada estimate.
The Calgary metropolitan area held about
1,658,000
in the middle of the previous year.
A province of 588
square kilometers, larger than France,
with nearly 400,000 fewer people in it
than one Alberta city and its suburbs,
which would be an unremarkable fact
about an empty place, except that this
one is the opposite of poor.
Canada holds the largest potash reserves
in the world, and every operating
Canadian potash mine sits in
Saskatchewan. On the province's own
accounting, that is about a third of
world production, and on natural
resources, Canada's figures more than
39% of world exports.
You will hear half the world's potash.
Nobody who publishes the statistics
supports that number, and the real ones
are impressive enough without it. In the
north, the Athabasca Basin holds the
highest grade uranium ever found on this
planet.
Cameco puts the reserve grade at Cigar
Lake at 16.33%
against ore grades elsewhere in the
world measured in tenths of 1%.
Saskatchewan is also Canada's leading
helium producer at around 3% of world
supply, aiming at 10 by 2030, and the
second largest oil-producing province
after Alberta.
Now put the people back beside all that.
The province sold 12.8 billion dollars
of minerals in 2025,
which is about 13% of everything its
economy does.
It soaks up over 16% of what the entire
country spends looking for more, while
holding 3% of the population.
And the workforce that digs all of it
out directly and on contract is around
20,000 people. There is the answer.
Everything Saskatchewan sells is under
the floor, and the floor is the reason
nobody is standing on it.
An eroded mountain range under a flat
basin does not build harbors or valleys
or any of the other things that make
people pile up in one spot. It builds a
stack of buried layers, each holding one
thing, and pulling things out from under
a lid takes capital and drills rather
than population.
The province filled up once on quarter
sections for wheat under a settlement
policy that measured success in
homesteads.
Then machinery took most of those people
off the land again and the rocks never
asked for them back. Which brings the
two halves of this video back together.
The same buried quiet unspectacular
geology that makes Saskatchewan look
like nothing at all from the highway is
the reason it is one of the richest
pieces of ground in North America.
Radiolysis needs an old radioactive
basement and the province has one.
Trapping needs an unbroken salt seal and
the province has the best one on the
continent. Wherever this was going to
turn up in Canada, it was always going
to be here. Whether any of it comes out
of the ground at a price anybody will
pay is a completely separate question
and the honest answer today is that
nobody has yet published the number that
would settle it.
Back in Mali, that well is still
running. One generator and one village
without a break since 2012. The fuel was
never the impossible part of any of
this. Noticing it was. The same rock
comes to the surface about 500 km north
of Central Butte and where it does, it
is the most valuable land in human
history.
That video is next.