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[narrator] On Tomorrow's World Today,
we explore the cutting-edge advances
that are shaping four different worlds.
The world of inspiration, where the wonders of
the natural world amaze and inspire us.
The world of creation, where ideas
come to life from traditional arts.
The world of innovation, where ideas and inventions
move us all forward.
The world of production, where innovations are
mass-produced to improve our lives.
From Inventionland World Headquarters, here's
your host, George Davison.
Hi, everyone. I'm George Davison.
You know, our fascination with gold, silver,
and copper, it dates back centuries, and it puts
civilizations to work in search of them.
They sparked innovation, and it inspired the creation
of new things and adorned empires.
And while these metals shaped our past, they continue to
shape our present and play a colossal role in
tomorrow's world,
driving the engines of progress and sustainability.
Gold specifically has been viewed as the epitome of
rarity, beauty, and value throughout history.
But what's truly fascinating is how the process of
extracting gold from our Earth today is much more sustainable
than many of us realize.
From cutting-edge technologies that guide exploration to
reclamation practices that ensure a greener tomorrow,
every step is carefully planned with sustainability in mind.
I'm sending Greg to the world of production just outside of
Denver, Colorado, where he'll venture into the heart of
the gold mining industry, exploring the relationship
between technology, sustainability,
and the precious metals that are needed to shape a future
that sparkles with innovation and responsibility.
[Greg] According to the old adage, the only constant in
the universe is change.
And some might argue that we've made more technological
advancements in the last 50 years than in all of
human history up to that point.
Well, the mining industry is no different.
And as we look towards a greener, more sustainable,
more electrified future, gold, copper, and silver will
be more important than ever.
And that's why we're here at the Newmont Corporation in
Denver, Colorado, to explore the modern mining industry,
look at the whole process from beginning to end, and see how
they're incorporating advanced technologies like AI to move
mining into tomorrow's world.
-Hi, Erin. -Hi, Greg.
-Welcome to Newmont. -Thank you very much.
I'm excited to be here.
I'm gonna get to learn about the modern mining industry
from beginning, middle, and end,
and it is very complex.
It is complex, Greg, but it all starts with exploration.
Well, how does that exploration begin?
-How do you get started? -That's a great question.
It starts with the mineral systems approach.
So we take a look at the geophysics,
the geochemistry, the geology.
We even use AI and machine learning in order to zero in
on where we think those future discoveries are.
Newmont has been around since the early 1900s and has always
been at the leading edge of mining technology.
-That certainly hasn't stopped. -[Erin] Absolutely, Greg.
One fun fact about Newmont is we actually developed
induced polarization or IP,
which is a geophysical technique
that allows us to see under the ground.
Traditionally, we had to cut large swaths of land through
the forest in order to lay down cables to collect
this data, but today,
we're piloting technology that's going to
bring it up into the air.
Okay, well, once you get on the ground, what happens next?
Well, before we can even get on the ground, we first need
to work with governments.
So that's state, local, federal governments in
order to access those mineral tenures.
Then we need to ensure that we have the right
environmental permits in place so that we can safely execute
any work that's on the ground.
And most importantly, we need to work with those
communities, and we need to ensure that we have the social
license to operate before we even do any work on the ground.
[Greg] Okay, well, you've got all of that in place now.
How do you know that you're looking at a viable mine?
[Erin] We have to take it to the truth machine,
which is the drill rig, so let's put on
our safety gear and go look at some core.
Okay.
[Erin] So, Greg, here we are at the core.
I'd like to introduce you to Scott, our chief geoscientist
for North America, and Sarah,
our principal geochemist.
Well, it's nice to meet you both.
So, Scott, from what I understand, the drill is
the truth machine -- tell me more about that.
Absolutely, so we start off with diamond drilling.
They're called that because they have little tiny diamonds
in them, which help them cut through the rock as it turns.
And those diamonds will cut out a tube of core --
it looks just like this.
And we'll look at this in the boxes here, and we'll log
what the geology is doing and what's changing in it.
We can look at different kinds of rock and then ultimately
what's related to gold.
Once we do that, we'll finish it up, and we'll cut it in half
with a saw, and we'll send off the one half to be analyzed
at the lab.
So at the lab, we have to take the half-core and crush
it into gravel-sized pieces, and then we actually grind
it further into a fine powder so that it can be measured out
for analysis, and we're looking at the ore elements, like gold,
silver, and copper, but we actually analyze for
65 elements, which is the majority of the periodic table,
and we're using all that information to help
vector the drill towards more ore zones and to see how far
away from where we were.
So then you'll take all that information, all that data,
and you'll use that to build a 3D model that'll give you
a much better idea of what the mine will actually
look like. -Yeah, absolutely.
So we'll take these tubes of rock and we'll put them into
3D so we can see how things are moving around and we can
plan additional drilling and we can do resource
estimation based on that.
So why don't we take a look at the 3D model?
So we'll start off looking at an aerial photo to get
interested in what areas look better than other ones.
And this will give us an idea of what kind of things
we're up against.
And we'll begin layering in the satellite images and also
some of the technology where we can begin
seeing minerals from space,
and we'll start looking at mineralogy changes from
the satellite data.
From there, we can plan to do some soil surveys, and we can
start looking at surface exploration techniques that'll
get us into our first target area.
And from that, we're gonna plan our first drill hole.
Okay, so you've drilled that hole, and you're starting to
get information -- what's the next step?
So when we get those assays back from the analytical lab,
that tells us how much gold is in each drill hole and where
that gold's located in that drill hole.
We'll then start to layer that out in 3D space, and we'll
start to build a 3D wireframe of that gold vein.
And we'll use that 3D wireframe to predict where
that gold vein is traveling.
And we'll use it to plan additional drill holes.
[Greg] Well, how many of these sites
that you look at in this way
end up producing gold? -Very few.
Less than 0.1% of any discovery ever becomes
an active gold mine operation. -Wow, what do you do from here?
What can you tell from this assessment?
So the next step, after we've built the geologic model,
is to build the resource model.
So the resource block model is a 3D block model.
And what it does is it uses all of that data from those
drill holes and statistics to populate what we think
the average gold grade is for each volume of block.
And that'll tell us whether or not there's
one million ounces of gold or 10 million ounces of gold.
Wow, well, I'm very impressed with how much
advanced technology is being used in modern mining.
I'm gonna go talk with Elaina now, and she's gonna teach me
even more. -Sounds great.
[Greg] With Erin, we learned about
the discovery and exploration process
that goes into finding the location of a new mine.
We looked at the drill cores that helped to determine
the viability of that mine.
Now, with Elaina, we get to find out about advanced
technologies in the modern mining industry and explore
great new job opportunities that are available worldwide.
-Hi, Elaina. -Hi, Greg.
-How are you? -Great, how are you doing?
Doing great.
Well, Elaina, I just saw the process by which
you collect data, and it's fascinating,
but now there's a whole lot of information that comes in.
What do you do with that?
Well, once we know what the resource is in the ground,
we've got a whole team of people dedicated to mine
design and mine planning.
So they take that data, they create a mine optionalities,
looking at both surface and underground,
using technologies and data analytics to create
optimized mines, not just what we would start with,
but considering throughout the mine life,
and even including closure into that design right from
the very beginning.
Wow, so you're taking the beginning,
the middle, and the end of the entire mining process into
consideration before you even break ground.
Absolutely, as they're looking at those design options,
they're considering the total mine life and reclamation
enclosure of that property, as well.
And that goes into our permitting so we can
engage with our communities.
I've got some examples I'd love to show you.
So here's an example of one of our surface mines.
This pit is over 2,000 feet deep.
And the image that we're looking at is an orthographic photo
with an overlay of images that were created from
data points taken from survey drone footage.
So when you were doing your initial planning
and envisioning what this pit was gonna look like, this is
helping you to make sure that you're accurately digging
the way you want to. -[Elaina] That's right.
It's also setting us up then for future technology coming in,
things like autonomous haul trucks, which we have at
some of our other mines where we're operating haul trucks
without a person in the truck at all.
Wow, now how does this technology advance
further on down the line?
So it all is interconnected, all of that data from around
the world ultimately feeds back right here to Colorado.
So we've got visibility around what's happening,
what's going well,
and what areas we can further optimize.
Great, well, what about the processing of the ore
after the fact? -Great question.
So after we take the ore out of here, we send it to one of
our processing plants.
So one of the big things that we're looking to do is
optimize the recovery.
How much of the metals are we getting out of the ore?
The gold, the silver, the copper.
And when we do that, we're being good stewards of
the resource, ensuring that we're getting all that we can
out of that finite resource.
And when we're doing that, that the way we're doing
it minimizes our water usage and is looking at managing
our electrical consumption, as well.
[Greg] Excellent, so you're maximizing the use of that land,
and then you're also minimizing your environmental
impact on the surrounding area.
[Elaina] You got it.
I've got more to talk about underground, too.
This colorful image is from one of our underground mines.
So what we see here with all of these gray lines is
they actually represent our haul roads.
They're each about 15 feet wide, and they connect all
the way down.
They spiral down throughout the mine all the way down to
about 300 meters above sea level.
Wow, now what do the different colors represent?
So that's related back to the mine plan and again,
making sure that we're staying compliant with the plan as
we're developing and completing
our stoping areas.
So this ties into the geomodeling
that we looked at earlier.
[Elaina] All of it connects, absolutely.
Underground, we do have a bit more infrastructure that
we need to put in place in order to ensure we've got
network coverage as we're getting that connectivity of
data in real time of what's happening.
And we're able to then visualize that from
the surface and ultimately, again, all around the world.
Wow, what are some of the other issues that are
associated with going this far underground?
So one of the things that's really important in
underground mining is around the ventilation.
And ventilation is to ensure that we've got safe, clean air
for the workers that are underground.
And so as we transition towards electric equipment
underground, then that need for ventilation actually
decreases, because we're removing those diesel
particulates from the diesel equipment from
the mine entirely.
Excellent, so there are just as many jobs available in
mining as there used to be, they just look different now.
[Elaina] They look quite a bit different now.
We've actually just recently had a breakthrough where
we've got
loader-operators operating loaders from the surface,
and they can actually remote operate multiple loaders on
different levels of that mine at the same time in a safe,
clean, healthy environment.
We've seen this much technology advancement
over the last 150 years.
What do you see happening, say, maybe in the next 20?
So our vision for mining going forward is to create
fully connected, fully automated,
fully electric mine sites,
both surface and underground. -Excellent.
[Greg] So far, we've learned about the mining process
from the beginning almost to the end.
We've even seen how the ore comes out of the ground,
but now we're gonna meet with Janet.
She's gonna turn that ore into a gold ingot.
Well Janet, I've gotten to get a look at the drill core
and see how that's all brought out of the ground,
but this is where it comes for analysis.
That's right.
So right now we're in the mineralogy lab.
So in this room, we have advanced instrumentation that
we can use to characterize the minerals in the ore,
and we utilize this information to help us
determine how we're gonna extract the gold from the ore.
[Greg] Okay, well how does that process actually work?
First we start by crushing the ore or making it into fine
particles, and then we're gonna mix in that with chemicals to
bring the gold into solution.
Once in solution, we can apply electricity to bring it back
into a sludge that will now contain mostly gold and other
precious metals, like silver.
This sludge we will melt then at a high temperature in
a furnace, so we're talking temperatures of about
2,000 degrees Fahrenheit, and this molten metal
then will pour into our molds that then will make
our gold bars.
Wow, so if this were actual gold, which it is not,
what would it weigh, and how much would it be worth?
They'll be a little heavier than this.
They'll be anywhere from 50 to 100 pounds
and about half to 1 million dollars.
Wow, well we'll have to make sure we get one of these back
to Inventionland so George can have one of those,
but in the meantime, I'm gonna go meet with Rebecca.
Yeah, let's go this way.
-Hi, Rebecca. -Hi.
-It's nice to meet you. -Nice to meet you, too.
Well, Rebecca, I've gotten to see a lot of the modern
mining process, the discovery and exploration
of a mine, how it operates.
I've even gotten to see some gold being poured.
-Excellent. -Pretty cool.
What I wanna find out from you that was about Newmont's
commitment to sustainability.
We're a purpose-driven organization, and our purpose
is to improve lives through sustainable
and responsible mining -- that's our North Star.
We achieve that by living our values,
and we have five values.
The first and foremost in everything we do every
single day is safety.
The other four are integrity, sustainability,
responsibility, and inclusion.
So those five values inform how we work and how we deliver
on those sustainability commitments.
So what that means is before we build a mine, we try to
understand the physical environment,
the flora, the fauna, the water quality
and quantity, air quality, all the physical environment
things to help inform the design
and operation of the mine.
In the sustainability, we try to work with
the communities from the very beginning to say,
what does a post-mine economy look like for you?
What does a thriving and resilient community
look like for you?
And then how, throughout the whole life cycle
of that operation,
do we aim for that and work together to achieve that?
[Greg] So this is actually an opportunity for
these communities to kind of reassess where they're at
and where they would like to go and work that in
conjunction with Newmont.
[Rebecca] those partnerships are absolutely key.
There's three things we call the big rocks of
sustainability in social performance.
One is that impact management.
So we understand the baseline of where we are when we start
and then any activities that we do that might impact on
the social and economic status of that community.
So we work together to optimize the positive impacts
and minimize the negative impacts.
So then the second piece of the big rocks is
value creation.
So that means careers and employment with Newmont
while we're there, it means buying stuff.
We buy a lot of stuff and a lot of services as
a mine operation.
How much of that can we buy from the local communities
and host jurisdiction?
And then the third piece is community investments.
How do we invest in the community
in education, healthcare, infrastructure,
connectivity, so that that community thrives
while we're there and long after we're gone?
Rebecca, let's talk about the mining industry in general
and Newmont in particular, and the commitment to diversity.
Absolutely, as I mentioned earlier,
one of our five values is inclusion.
And if you want to have diversity,
you have to have inclusion.
For those people to come and want to stay in a place,
they have to feel seen, and valued, and heard.
So we're being very intentional
around our inclusion, diversity, and equity programming.
In addition to that, we have set targets
for ourselves.
We want to include our gender diversity, so we have a target
to improve every single year at every single operation.
We have targets around diversity and leadership
and female diversity.
We also have a long way to go at including the cultures that
host us and the communities that host us.
We're doing really good work, and we're working hard,
but we still got a ways to go.
One example of some of the strides that we've made is
that at some of our mine sites, we've named buildings
and conference rooms using the indigenous language of
the communities that host us.
Now, we didn't choose those names.
We worked with the host communities,
usually the elders, and asked them, what would be
appropriate names?
What do those names mean in their culture so that we can
learn about their culture and not just see a name on
a conference room. -That's excellent.
It's pretty clear that mining is gonna be a really important
part of a greener and more sustainable future.
Really loved everything I've gotten to learn here,
but now I've got to head back to Inventionland.
Absolutely, let me show you out.
Hey Dean, welcome to Inventionland.
Hey George, thanks for having me.
-It's a pleasure to be here. -Well, I'm glad you're here.
I got this replica gold bar from your team,
and they sent me these images.
I was hoping you could talk to us about it.
Well, this is the actual process that would produce
gold bars that look like that.
But George, that's not where it starts.
Oh, hey, is this where it starts?
Yes, it starts with us understanding what the mine
needs to look like.
But actually, before that, we need to gather data from
these core samples that come from nearly 1,000 meters deep
in the Earth.
We take that information through mathematical modeling,
develop a digital twin of the ore body, which helps us
understand how we need to do the mining.
Wow, so that makes sense.
I mean, so you're gonna drill little holes down into
the earth, and you're gonna be able to extrapolate what's
down there and start to build, like, a formula, right, a plan?
Yep, absolutely.
And what that allows us to do is develop the most efficient,
effective, low cost and sustainable mine that
we can with having the information that comes
from core samples like this. -Oh, that's great.
We are on Tomorrow's World Today.
So, how about we talk a little bit about what's going on
in the industry -- where's the future going?
I think where the future's gonna go is continuing down
this path of automization and adding robotics to
what we do.
And what that will then allow us to do is electrify
our mining fleet, which will allow us to reduce
carbon footprint, which again, helps us with
our sustainability goals. -That's great.
Hey, do you think I could hold onto this?
George, these are yours to keep.
-Thanks, Dean. -Thank you.
Take care now.
[George] And remember, tomorrow's world is where
inspiration and creation drive
innovation and production -- see you next time.
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