Can AI-Driven Mines and Refineries Beat the US Critical Minerals Supply Shortage?
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The global critical minerals industry is facing a severe supply crunch driven by a "perfect storm" of depleting resources, surging demand from AI infrastructure and electric vehicles, and increasingly difficult mining conditions. As high-grade deposits become scarcer, new mines must process significantly more ore to yield the same amount of metal, while deeper underground operations face greater challenges with temperature and water infiltration. Compounding these physical hurdles is a structural disadvantage for Western nations compared to China, where a large portion of the US mining workforce will retire within the next decade, leaving behind projects that are slower and more expensive to develop than their Chinese counterparts.
To address these challenges, Mariana Minerals proposes a solution centered on autonomy and software-first strategies rather than traditional labor-intensive methods. The company identifies a critical bottleneck in the project lifecycle where many exploration discoveries fail to become operational mines due to high costs and slow execution; instead of waiting for acquisition or letting projects enter an "orphan period," they aim to accelerate development through integrated platforms. Their approach involves three main verticals: Capital Project OS, which compresses the traditional engineering and construction timeline by automating data flows and impact analysis; MineOS, which utilizes real-time planning to adapt to changing geological data from drilling and blasting; and PlantOS, which uses advanced machine learning models to dynamically optimize refinery operations for maximum yield and efficiency despite fluctuating ore grades.
By implementing true vertical integration across exploration, mine operations, and refining, Mariana Minerals seeks to replicate the speed and cost-efficiency of Chinese EPC execution models while leveraging Western technological advantages. Their current operations in Southeast Utah and Meeker serve as live demonstrations of these autonomous technologies, aiming to prove that AI-driven systems can overcome the legacy constraints of the depleted industry. Ultimately, the goal is to unlock significant improvements in cost, schedule, and performance, allowing Western mineral production to scale rapidly enough to compete with China and meet the anticipated need for over 500 new mines and refineries in the coming decade.
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To to set the stage I think it's
important to think about the the scale
of the problem that's kind of presenting
us, you know, much like oil and gas,
mineral processing is is a depleted
industry. So so what that means is that,
you know, even if demand is staying
steady, the world still needs to
identify and bring new mines and
refineries into production to make up
for the fact that we're depleting the
current resource base. Now you stack on
that, you know, massive demand growth
across AI infrastructure, electric
vehicles, grid expansion, aerospace,
defense, robotics, you name it. You kind
of have this perfect storm of a supply
crunch coming online, you know, and we
anticipate needing, you know, over 500
new mines and refineries to be built
over over the next 10 years.
And and compounding on that problem is
actually that, you know, these mines are
getting harder, more expensive, and more
complex to to develop. So, you know,
we've gone and for most part mined most
of the let's say good resources that we
found today. And so what that means is
that, you know, overall, if we take
copper as an example, overall grades
that we're finding these are decreasing
quite significantly. You know, we used
to be mining 1% copper and and now
we're, you know, new mines are being
developed at, you know, half or 0.6%
copper. So that means there, you know,
to make the same amount of copper you're
having to move almost twice as much ore.
The mineralogy is getting more complex,
which makes the refineries more complex,
and then the mining side is also getting
more difficult as well. So, new
discoveries are getting deeper, which
means, you know, more advanced
technology to get to the ore, and means
longer times to develop, longer times to
cash flow. That means temperature
becomes more challenging in the
underground, it means water infiltration
becomes more challenging underground. So
all of this is making it, you know, you
know, it's getting harder to find these
new assets, getting more expensive to
develop them, and we need a lot more of
them. And so hopefully that sets a
little bit of stage for how I like the
technical challenges that we're facing.
You know, on top of that, you know, the
Western mineral companies have kind of
continued to I I'd like cede market
position to to China in general.
And you know, within that, you know,
lands, you know, if you can look at this
as as a glass half empty and say, you
know, a large chunk of the US mining
workforce is going to retire in the next
10 years, you know, we're slower and
more expensive than developing projects
as they are in China. But I think if you
look at this as a glass half full, you
know, it's it's essentially showing that
that there is a roadmap to execute on
this and and it is possible, right? Most
of these major Chinese mining companies
have all been started in the last, you
know, 15, 10, 15, 20 years. Which really
isn't isn't that long in the grand
scheme of kind of the market that we're
playing in. Um so it's showing that you
know, new entrants to the market can can
show up and really develop and scale
their businesses and really you know,
not surprisingly the way you need to do
that is is to, you know, execute quickly
and and execute cheaply. Um so there are
some structural disadvantages that the
US is facing in terms of labor
availability, cost and schedule and you
know, we here at at Mariana Minerals
really think that, you know, the answer
to all three of those problems is, you
know, being autonomy first and and
software first in the way that we
develop and execute projects and and
ultimately operate them. Um and we think
that's like true true vertical
integration, you know, there's a lot of
companies out there selling spot
solutions, but we think that that the
value really comes into like building an
overall integrated platform across
project development, across, you know,
mine operations and across refinery
operations.
So what does that mean in particular for
for Mariana Minerals? You know, really
we see ourselves as a project developer
and owner and operator of the mine and
mineral refining assets. There's
actually been a lot of venture capital
dollars that have funneled into the
exploration game, you know, using big
data analytics, using machine learning,
using reinforcement learning to try and
hone in on where we should be looking
for or and and metals. And that's really
exciting to see and then and very
excited to see kind of what gets
developed out of that. But really, you
know, one out of maybe every thousand,
you know, projects, exploration projects
will ever actually turn into a mine. And
so there's actually more of a bottleneck
in the actual project development life
cycle. So, you know, after a discovery
gets made by a junior mining company,
you know, their stock price will tend to
climb, you know, maybe there's some
excitement and really, you know, they're
trying to get acquired because those
teams are small, they're really out
there trying to, you know, de-risk the
geology of an asset, they're not there
to build a project. Um and so, you know,
eventually if they're not acquired, you
know, the market tends to realize that,
you know, the the likelihood of this
project ever getting developed is quite
low. Um and so, their their market cap
tends to to drop pretty drastically. And
these projects enter like what's called
like the orphan period where there's
some amount of geologic de-risking
that's been done, uh but there's no one
actually out there who the the market
really believes is going to be able to
develop and bring this mine into
production. Um and that's where we see,
you know, ourselves as Mariana Minerals
coming into with a with a new value
proposition to really accelerate the
development and deployment of these
projects to get those metals into
production.
You know, and and how do we do that? You
know, really we see three three main
verticals that we're working on, you
know, building both our team and our
software platform to address. And I'll
spend a little bit of time talking about
each of these in a bit more detail, but
you know, Capital Project OS is is
really about trying to, you know, more
closely match the Chinese EPC execution
model of doing, you know, process
development, process engineering, detail
engineering, and construction in as
accelerated and compressed as a time
frame as possible. You know, kind of
eschewing a bit of the traditional
stage-gate EPC project execution. And to
do that obviously introduces some risk.
And so, how can you use, you know,
agentic engineering and advancements in
LLMs to really create an integrated data
system
uh to to make that possible. Uh you
know, MineOS is really about deploying
autonomy and getting to as as, you know,
near real-time mine planning as
possible. Um and PlantOS is is really
about trying to leverage advancements in
reinforcement learning and machine
learning to build optimized models of of
the refinery and then eventually, you
know, get real-time control systems to
optimize for what we call like reward
functions, which could be, you know,
profit, yield, throughput, etc. Today,
I'll spend a little bit of time talking
about each of those. You know, you know,
Capital Project OS, you know, to execute
a large, you know, billion-dollar,
multi-billion-dollar capital project,
you know, requires, you know, quite
literally an army of people, right? You
have you have hundreds of engineers and
designers working on different parts of
the plant. You have thousands of
construction technical professionals.
You have to do thousands of engineering
tasks. You have to release thousands of
purchase orders. You have to manage, you
know, inflow and receipt of, you know,
steel, pipe, cable, equipment, you name
it.
You know, and today this is all, you
know, really a highly manual process.
You know, big EPC companies have built
their business models around trying to
manage these these data flows. But we
see a ton of opportunity in building an
integrated software system that's going
to allow us to automate as much as
possible so that, you know, instead of
needing a dozen project controls
professionals and a dozen project
engineers to manage data information
flows, you know, really you have a
software platform and the ecosystem that
allows you to feed the live status of
project execution at any given point you
know, when you look and evaluate
potential changes, really see and and
automate the impact of the cost and
schedule impacts of making those changes
all kind of in a unified software
platform.
On on the mine side, you know, there's
you know, hundreds of activities going
on every day in the mine from drilling
and blasting, from mucking, from
hauling, from, you know, moving material
to the refinery. You know, and really
here, you know, there are spot solutions
in terms of automation. And where we at
Mariana see a lot of the value is really
on sitting on top of those and kind of
what we call the orchestration layer
where how can you actually create an
integrated planning platform that's, you
know, constantly updating your your
geologic model and your mine plan where
every time you drill and you blast,
you're learning something new about the
ore that you didn't know before. How can
you capture all of that data and get to
real-time mine planning so that you're
constantly making the best decision with
the information you have available in
front of you?
And then the last one we have is what we
call like plant OS, you know, where, you
know, today when you're building a new
mine or refining project, you know,
typically you'll build a steady state
heat material balance. You'll do your
best to optimize that heat material
balance. You know, but really mining's a
highly dynamic and highly variable
process. So, you know, your ore grade is
constantly changing, your impurity
profile is constantly changing. And
that's from project to project, but even
within a single mining pit, you're
actually changing every time you go
through the mining process. And so
really you need your refinery if you
want to truly optimize your yield and
reduce your opex, you really have to be
responding dynamically to what it is
that you're actually mining at any given
time. So, we spend a lot of time
building first principles based and then
also empirical based machine learning
reinforcement learning models to build
simulations of what we expect the plant
to do based on the orders coming in and
the different operating conditions you
run the refinery at. And once you build
a, you know, highly accurate model on
how the refinery is going to operate,
you know, you can start to put dollars
and cents signs to all the inputs and
levers to essentially create models that
will, you know, predict your your OPEX
and then you can then go in and optimize
in real time to, you know, maximize
yield throughput and and refining. And
so that's what we call plant plant OS.
You know, really we see those three as
like critical to unlocking cost,
schedule and and, you know, performance
of our mines to be able to go compete
compete with China and really go scale
the the rest of the the western mineral
production.
And you know, we're we're going really
rapidly right now. So I think our team
is kind of we're we're 200 people
primarily based in the US and then
really have an active mine in in
Southeast Utah where we're deploying a
lot of the autonomous technology that I
just talked about as well as what we're
doing with the refinery out in Meeker,
so that's where that's really kind of
the the first demonstration of a plant
OS. So kind of really exciting work
going on across the board. [music]