Episode Transcript
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0:00
Hey, it's Stephen Lacy here. I'm the
0:02
executive editor at Latitude Media. I'm also
0:04
the executive editor of a podcast called
0:06
The Big Switch. It's a show that
0:08
we make in partnership with Columbia University's
0:11
SIPA Center on Global Energy Policy. Battery
0:13
supply chains are a big focus of this
0:15
show. And so this week we're bringing you
0:18
a special deep dive into those supply chains,
0:20
the season premiere of The Big Switch. Our
0:22
team spent months talking to researchers, executives,
0:25
activists, and journalists to make a series
0:27
about the sprawling global supply chain behind
0:29
batteries. And across five episodes,
0:31
our producers and guests report back from
0:34
every step of that supply chain, a
0:36
lithium salt flat, a nickel refinery, a
0:38
battery cell factory, a battery recycling plant,
0:40
a battery junkyard, and a town of
0:42
400 that's getting a 6,000 person EV
0:46
and battery plant. In this
0:48
first episode that you're about to hear, we
0:50
actually break apart one of the battery cells
0:52
that was in the original Tesla Roadster to
0:55
understand what's inside. And we also
0:57
focus on how critical minerals are becoming a major
0:59
force in global geopolitics, especially involving
1:01
China, which of course dominates
1:03
battery supply chains. So
1:06
are we just trading reliance on oil
1:08
for reliance on things like copper, lithium,
1:10
and nickel? The show is hosted by
1:12
Columbia's Dr. Melissa Lott. Those are the
1:14
questions that she's asking. She's deep in
1:16
energy systems and does an excellent job
1:18
breaking down the complicated and surprising ways
1:21
that mines and refineries and factories are
1:23
reshaping the global economy. Have
1:25
a listen. Here's the episode in full. We
1:27
think you'll like it. And if you do
1:29
like it, go subscribe to The Big
1:31
Switch anywhere you get your
1:33
podcasts. And now here is
1:36
The Big Switch's host, Dr. Melissa Lott,
1:38
in the first episode of our season
1:40
on batteries. I
1:42
want to tell you the story about a
1:44
woman named Alessandra Carion. Alessandra
1:49
is a Renaissance woman. And I say
1:51
that because she's not only a Michigan
1:53
public service commissioner, but also a sustainability
1:56
expert. And I'm not kidding. She's the
1:58
co-owner of a very By
2:00
Neapolitan pizza shop. I
2:02
do in fact me a call
2:04
own at a pizza business. It's
2:06
a skill that will never go
2:09
away. She also has released a
2:11
suffix sell sex in tracking battery
2:13
supply chain so we couldn't help
2:15
but ask her to see the
2:17
electric oven that the pizzeria at
2:20
the restaurant because we were. A
2:22
verify the Apollo and Pizzeria. We
2:24
used a traditional wood fire brick
2:27
oven. Or hundred have
2:29
to us and only and her official capacity as
2:31
an Energy commissioner or as a pizza lover. Someone
2:34
who has spent nearly a decade tracing
2:36
the minerals and materials and make up
2:38
her cars. and in particular tracing
2:40
the materials that are in our
2:42
electric car battery. She started her
2:44
fared impairments consulting and then and
2:46
twenty policy moved into the heart
2:49
of America as auto industry which
2:51
is at the start of the
2:53
major transition truly armed assault called
2:55
tools to Detroit Michigan com especially
2:57
with of sort of thus the
2:59
the auto industry are being in
3:01
a in a pivotal moments are
3:03
back in two thousand and eight
3:05
onwards I could see how much
3:07
energy there was around transforming. The
3:09
city in the wake of a lot
3:11
of teams. For coverage to the
3:14
financial crisis in Ice, a big three
3:16
Us automakers are handing over their plans
3:18
for the future to Congress. The. Trying
3:20
to convince lawmakers to give them
3:22
a bail out of twenty five
3:25
billion dollars in taxpayer money. Companies
3:27
say one of them might collapse
3:29
without it. So.
3:31
At that time to really am certain
3:33
stories were playing and see a few
3:36
years earlier America's top automakers are struggling
3:38
in the wake of the financial crisis
3:40
and they saw that the sales for
3:42
some of their vehicles particularly those big
3:44
as you these that him because gas
3:46
will they take hundreds of thousands of
3:48
production jobs are lost and the government
3:50
ended up stepping in to help them
3:52
out. Pouring nearly eighty billion
3:54
dollars into Gm, Chrysler and
3:57
Ford General Motors influence emitted
3:59
restructuring. The Congress to date
4:01
Gm promises fewer brands and fewer
4:03
dealers for promises know managers will
4:05
get a two thousand and nine
4:07
bonus and will speed up slang
4:09
for electric cars as a condition
4:12
for the sentiments Support Automakers agree
4:14
to speed up fuel efficiency standards
4:16
to encourage lighter gas a thing
4:18
models that have been be prioritized
4:20
And meanwhile the American Recovery and
4:22
Reinvestment Act also known as The
4:24
Stimulus Bell Street is federal tax
4:26
credits for different types of electric
4:29
vehicle is included billions. Of. Dollars to
4:31
support domestic. Battery Manufacturing First had
4:33
also included a loan for
4:35
it. plainly electric harm her
4:37
called plus Alessandro stepped into
4:39
this moment at Ford for
4:41
she got a job is
4:43
to sustainability business analyst. Souls
4:46
that required an ability
4:48
to. Investigate along the
4:50
supply chain on where materials came from,
4:52
how they were being processed, who was
4:55
handling them, and all sanders work with
4:57
directly influenced by another very important law
4:59
called the Dodd Frank Act. This act
5:01
has created in the wake of the
5:04
Financial crisis and set up a whole
5:06
host of regulatory. Reforms and consumer
5:08
protection. Reforms
5:12
will help foster innovation not
5:15
have it provides certain to
5:17
everybody from bankers to farmers.
5:20
The business owners. For. Consumers.
5:23
And. Unless your business model depends on
5:25
cutting corners or built in your customers.
5:28
You've. Got nothing to fear from a for. There
5:32
was a physician and the law
5:34
that required publicly traded companies and
5:36
manufacturers to report their sources of
5:38
ten tungsten, tantalum, and gold these
5:41
minerals or sound and a wide
5:43
range of consumer electronics, jewelry, medical
5:45
equipment and cars. And they're often
5:47
referred to as conflict minerals because
5:49
large amounts of them are mind
5:52
the Democratic Republic of the Congo
5:54
where they can fun armed conflict
5:56
and also associated to human rights
5:58
abuses like child labor. Dodd
6:01
Frank ignited efforts inside large companies
6:03
like Forward to investigate where these
6:05
materials came from, how they were
6:07
being processed, and who was handling
6:10
them. And
6:15
there were literally thousands of spreadsheets,
6:17
thousands of suppliers to sort through.
6:19
It was it was really else
6:21
or a first of its time
6:23
moments and so that really smart
6:25
and inspired not only for Ford
6:27
bad across many industries companies began
6:29
to question okay by line he
6:31
to think about where my sentence
6:33
and gentlemen gold is coming from
6:35
or what about my Lithium? What
6:37
about my Nicole? What about my
6:39
rubber from from farms Though it
6:42
was I was really fortunate to
6:44
be part of the industry and
6:46
in and this job at a
6:48
moment where this activity was just
6:50
scaling and expanding and an unprecedentedly.
6:59
And. That scale only expanded as
7:01
the entire auto industry started embracing
7:04
electric cars thanks to batteries that
7:06
we're getting super and better. Every
7:08
single year in a brand new
7:10
plants in Michigan the future of
7:12
floors is already rolling out for
7:14
you all Electric version of the
7:16
F One fifty but best So
7:18
we vehicle in America which one
7:20
hundred fifty thousand order Now fear
7:22
tells Nbc News exclusively it is
7:25
going all in an electric pledging
7:27
that with the nine years, forty
7:29
percent of it's fleet will be
7:31
battery powered. And those lithium ion
7:33
batteries are filled with another set
7:35
of critical minerals like of course
7:38
Lithium that also cobalt, manganese and
7:40
graphite which are mind process transported
7:42
and controlled and highly complicated place.
7:45
He these are represents opportunity
7:47
to introduce a new way
7:49
of planning for virtually the
7:51
new blossoming supply chains valued
7:53
scenes that are responsible at
7:55
it into account social and
7:57
environmental sustainability from the onside
7:59
if we if we planet
8:01
crackly and the ability to
8:04
introduce more transparency and those
8:06
mineral supply chains that that
8:08
already exists for other commodities
8:10
that we can in turn
8:12
help improve and this long
8:14
lead up over more than
8:16
fifteen years to stimulus Act
8:18
the Auto Bailout dodd Frank
8:20
combined with batteries getting so
8:22
much cheaper sparked interests and
8:24
electric vehicles and the battery
8:26
supply chains behind them and
8:28
they led to. This transformative line
8:31
twenty twenty two that put batteries at
8:33
the center of the clean energy economy
8:35
I'm talking about The inflation reductionist was
8:38
on. There was so much attention on
8:40
solar wind and hydrogen socks for battery
8:42
companies. Also A t beneficiary of the
8:45
inflation reduction as by this plane Alexandre
8:47
had left board but she was still
8:49
so. This uneasy supply chains and the
8:52
Inflation Reduction Act also called the I
8:54
R A added a whole new set
8:56
of state. And suddenly
8:58
government policy wasn't just focus on
9:01
discouraging conflict minerals or sprinkling some
9:03
money and are A D it
9:05
was about building an industrial scale
9:07
battery industry from the ground up
9:10
with tens of billions of dollars
9:12
and and centers and that includes
9:14
tax credits for battery production and
9:16
mineral we're finding. The second measure
9:19
is linking the easy incentive to
9:21
domestic an allied and mineral production.
9:23
And so were the opportunity there becomes
9:26
is not just where you mining these
9:28
minerals by if you mind them than
9:30
where these send them to meet caseloads
9:32
to make our nodes. And does the
9:34
Us want to be in the business
9:36
of processing those minerals to make these
9:39
castles in an old said go into
9:41
the batteries that were assembling over time
9:43
In order for the easy credit to
9:45
be realized, more and more battery components
9:47
need to be mind, were fined or
9:50
recycled by the U S. are one
9:52
of our free trade allies. Strong. These
9:54
are complex and a lotta supply chains
9:56
that this question really leads to a
9:58
central topic around the. The inability,
10:01
responsibility, and then ultimately
10:03
economic. Development and and ability to
10:05
thrive in meet demand with local supply.
10:10
This is the Big Threats A show about
10:12
how to rebuild the energy systems that are
10:15
all around us. I'm doctor Melissa Lot and
10:17
I'm the Senior Director of Research at Columbia
10:19
University Super Center on Global Energy. Policy.
10:24
Batteries are taking over the world.
10:26
they're finding their way into. Everything,
10:28
Cars, heavy equipment and the electric
10:30
grid. That scaling up production to
10:33
meet the demands of a net
10:35
zero economy is really complicated and
10:37
it's and center this season we're
10:39
digging into the ways that batteries
10:41
are made and were asking what
10:44
gets mind traded and consumes on
10:46
the road to decarbonisation. This
10:50
is the first installment in our
10:52
five part series. In this episode,
10:54
the geopolitical race that is transforming
10:56
battery supply chain will open up
10:58
a lithium ion battery. investigate Western
11:00
Side as soon as the question
11:02
of critical minerals. The New Orleans.
11:08
A global quest to learn how batteries are
11:10
made starts really close to home for me
11:12
right here on the campus of Columbia University,
11:14
where I work. More
11:17
precisely, it starts with the Columbia
11:19
Electrochemical Energy Center. It's just a
11:21
straight away from my office and
11:23
it's were professor. Damn Thang. Art
11:25
studies how energy storage devices work
11:27
by learning how they sell it.
11:29
It has A and here we're
11:31
going to like slow as a
11:33
Battery. Will hopefully won't blow up, but
11:35
we're gonna cut it open in a way
11:38
that it's really not meant to be cut
11:40
open because we're trained, professionals are more suited
11:42
for it's. actually getting his Phd and fifty
11:44
batteries a part in various ways or he
11:46
for most is time blowing batteries often so
11:48
taser a safety for him. Were having the
11:51
day off. Okay,
11:53
picture that are in this lab and
11:55
i'm standing next to dan and his
11:58
phd student said schumacher around
12:00
us are these white cinder block walls
12:02
that are lined with copper pipes and
12:04
cabinets filled with chemicals. I'm
12:06
talking cylinders, beakers, slacks, just
12:09
everywhere. And it's in
12:11
this lab that researchers are performing all
12:13
these crazy kinds of experiments to stress
12:15
test the batteries that go into our
12:17
cars and the electric grid. So to
12:20
figure out how, when, and why they
12:22
fail. Why
12:24
did you decide you wanted to take batteries apart for your
12:26
work? I guess I would call it chaotic
12:29
neutral. It's where I live. What
12:31
does that mean? It's
12:34
just, it's exciting and
12:36
it's also impactful, right? A lot of people work
12:39
on battery performance and making batteries better, make them
12:41
better, more energy. But that means a lot more
12:43
bad things can happen, right? Especially in the city,
12:45
you have a lot of, you know, battery fires
12:47
and a lot of people get hurt. So
12:50
the way that we can figure out how to not make
12:52
that happen is to study what's happening
12:54
when that happens. So that just,
12:56
I found my little niche of battery
12:58
explosion. We spend a
13:00
lot of time trying to make batteries better
13:02
and spread, improve the energy density, improve the
13:04
power density. Classically anything
13:07
that has high energy density, something that
13:09
stores a lot of energy in
13:11
a small amount of space, high power density can
13:13
give that energy very quickly. We
13:15
don't want batteries to be bombed. So the question is, is how do
13:17
we have a battery that gets us a
13:19
300 mile range that can be charged
13:22
in five minutes that has zero
13:25
danger of exploding, right? That's probably
13:27
impossible completely, but
13:30
understanding how and why they
13:32
explode is something
13:34
really important and tragically understudied.
13:38
Okay, let's go and blow
13:40
something up. Open
13:43
something up. Don't burst my bubble
13:45
yet. We're going to blow it up. No, let's go. Let's
13:47
go open something. I can't wait to see what's inside of this thing. Okay. We
13:50
throw on our safety glasses and Dan and Brett
13:53
take me over to our protective shield. And
13:55
behind that shield, there's this cylinder
13:57
shaped battery. It looks kind of like
13:59
a AA battery but it's slightly larger.
14:01
It's a cell called an 18650 and that's
14:04
battery speak for 18
14:06
millimeters in diameter and 65
14:08
millimeters in height. And
14:11
this type of lithium-ion cell was rumored
14:13
to be used in the original Tesla
14:15
Model S. The
14:17
idea that the cell that Brett
14:19
is taking apart for you today
14:22
would be the commodity cell
14:24
when I was Brett's age
14:26
20 years ago was seemed
14:29
impossible. But through
14:31
just brutally efficient engineering
14:34
it turned out to
14:36
be the linchpin for enabling
14:38
low-cost storage. So Brett
14:40
puts on these black protective gloves and
14:42
he starts to unravel the battery and
14:45
as he's doing it he's unveiling these
14:47
long strips of material that have been
14:49
layered together in a tight coil. And
14:51
so if I turn this on its head or I
14:53
guess on its belly what it'll
14:55
look like is you see this white here
14:57
and it's in like almost like a tree
14:59
it's like concentric ring so this is what
15:02
we call a jelly roll. What we have
15:04
actually is a really long foil of electrodes
15:07
so I can roll this all the way
15:09
out and it's actually two electrodes that are
15:12
just super super super long. It's
15:14
like a fruit roll up. Yeah exactly.
15:18
So I can roll this all the way out. And
15:21
when we rolled it all the way out
15:23
we saw four parts made up of different
15:25
materials which are sourced from all over the
15:27
world. You have your cathode and
15:30
your anode those are what you're actually going to
15:32
be storing your energy in. So your anode is
15:34
your minus sign if you're thinking of a double-a
15:36
battery and your cathode is your positive sign. In
15:40
these specific cells we have
15:42
what's called nickel cobalt aluminum.
15:45
Our active materials on our cobalt side
15:47
are positive side that's going to help
15:49
store our lithium. On our opposite side
15:52
our anode is our negative side is
15:54
going to be graphite that's usually what
15:56
is used in most conventional lithium-ion batteries
15:58
now. between those two
16:01
is what we call a separator, very
16:03
simple. It keeps the two apart, right? Whenever
16:05
we think of battery safety,
16:08
one thing we don't wanna do is touch those two
16:10
together. It's like licking a battery, right? You get a
16:12
little shock. So that's the same thing. A
16:14
separator is supposed to keep it safe on
16:17
the inside. That'll look like
16:19
a white polymer. It's usually polypropylene, so
16:21
a very common polymer. And
16:23
the way we need to make
16:25
sure that these lithiums can travel between
16:28
these two electrodes, so we use electrolyte.
16:30
It's not Gatorade. It is some sort
16:32
of lithium salt dissolved. It'd be
16:34
so cool if it was. That'd be so awesome. Yeah,
16:36
it'd be great. It wouldn't be flammable too, which is
16:38
awesome. But usually what
16:40
it is, it's some sort of lithium
16:42
containing salt dissolved in solvents,
16:45
like carbonates. It's like this liquid,
16:47
clear liquid that dissolves the salt in.
16:49
And that allows for the lithium ions
16:51
actually to transport between the two. All
16:54
right, so we got an anode, a cathode. We got
16:56
some polymer. And then we got a lot of lithium
16:58
moving stuff around. It's basically what it's like. So
17:00
like when we're charging a battery, what we're
17:02
actually doing is we're moving lithium ions from
17:04
one side of the battery to the other.
17:06
So when the lithium moves over, that's a
17:09
positive ion, we get an electron,
17:11
and that's electricity. So that will go and
17:13
power our cars or our light bulbs or
17:15
something like that. So the act of moving
17:17
that lithium ion is actually pushing an electron
17:19
through a circuit that we can actually harness
17:21
for energy. I've never
17:24
taken apart a battery before, so watching Brett uncoil
17:26
all the materials was really cool
17:28
to see. I'll admit I was
17:30
tiny bit disappointed that I didn't see any
17:32
small explosions, but that's a really good thing.
17:35
Because 20 years ago, explosions were much more common
17:38
in lithium ion batteries. And
17:40
the cell that we dissected, which
17:43
was perfected by Tesla, was a big deal in
17:45
terms of design. When I started
17:47
grad school, it was thought that this cell
17:49
had to be much larger and be more stable. It
17:51
was thought that this cell had to be much larger and
17:53
be much fancier. And they kept on blowing
17:55
up. In fact, they blew up so much that I wasn't allowed to
17:57
work on them at Lawrence Berkeley Lab. Six
18:01
years later, after all of these batteries
18:03
catching fire, the initial team at Tesla
18:05
said, let's just use cells that we
18:07
don't know don't explode, which are cells
18:10
that are in laptops. So
18:12
the immediate predecessor to the cell that Brett
18:14
took apart was used in a laptop that
18:16
looked exactly the same. That
18:19
pack was very expensive. The initial
18:21
Tesla Roadster cost $150,000 and went maybe 150, 180
18:23
miles, right? So
18:27
certainly not the mass market
18:29
vehicle. But it set in motion
18:31
the understanding
18:33
that all of this stuff can be made
18:35
much cheaper. And so that
18:38
little cell, as premium
18:40
and or insignificant as it might
18:42
be, a laptop battery designed
18:45
for systems in 1996, turns
18:49
out to be the crucial storage element
18:51
of the energy transition. When
18:58
I was looking at the battery cell and talking
19:00
to Dan and Brett, I was really hit by the
19:02
scale of what I was looking at. There
19:04
were about three feet of materials
19:06
wrapped up inside a cell in the lab. A
19:09
Tesla battery pack hosts like 10,000 of
19:12
those cells, just in a single car. In
19:15
fact, EVs today can have hundreds and
19:17
even thousands of lithium-ion cells. And that
19:19
means that the typical electric car on
19:22
the road can have between three and
19:24
four miles of really thin material, material
19:26
that is mined, processed and assembled all
19:29
over the globe. So
19:31
after our lab visit, I sat down with Dan
19:33
in his office to run through how to all
19:35
work from beginning to end. So
19:44
if we break down how you make
19:46
a battery, what are the big steps
19:48
to actually taking a bunch of raw
19:50
stuff and turning it into a battery? Well,
19:53
first you have to get the raw stuff. You Got to
19:55
dig it out of the ground. You have to find the
19:57
right veins. Almost Everything that's in a battery by mass. Is
20:00
a significant amount of money. Is is a
20:02
metallic or metal like element. The. Most
20:05
commonly is Minerals are Lithium, Cobalt,
20:07
graphite, manganese, Nickel, and copper and
20:09
it's important that we know where
20:12
these. Minerals come from so.
20:14
Eighty percent of lithium comes from
20:16
Australia, China, and silly was percent
20:18
of cobalt comes from the Democratic
20:21
Republic of Congo. Sixty.
20:23
Percent of manganese com says
20:25
south Africa, China and Australia
20:27
and sinus sources eighty percent.
20:29
Of the World's Pc. Indonesia
20:31
is the world's dominant nickel producer,
20:34
and Chilean Peru. Other world's top
20:36
copper producers. We get the minerals like
20:38
we get any other metals we monument
20:40
of the ground and then we have
20:42
to take extra care and purifying them
20:44
and as batteries have found their way
20:46
into to bigger applications cars and now
20:48
the grid costs that purification has dropped
20:50
substantially and this should have been predictable
20:52
to be because I saw it happen
20:54
ten years earlier with silicon. but I
20:56
son Who's Can Happen voters and turned
20:58
turned out that luckily it could And
21:00
so to Grayson. And. Just like
21:03
it does when it comes to
21:05
silicon for semiconductors, the solar cells
21:07
china dominates here as mean instincts
21:09
in a controlled eighty five percent
21:11
of all critical minerals processing and
21:14
resigning actually mine and purify, We
21:16
get to synthesize in the material
21:18
as a part of the battery
21:20
production process, which is incredibly sophisticated
21:22
and precise. The synthesis make sure
21:24
the elements are exactly in the right
21:27
order. It's not too good enough to
21:29
have Nicole, Cobalt and Manganese in some
21:31
ratio mix together. Hope it works out.
21:33
You want the nickel in one layer
21:35
and then a layer of oxygen and
21:38
in a layer of manganese. and then
21:40
a layer of cobalt. and there's not
21:42
the same amount of Nicole manganese in
21:44
Cobalt. In the electrode and
21:46
so he nickel has to be every
21:48
other layer and the manganese and a
21:51
cobalt will be are interspersed every fourth
21:53
layer and then it could be every
21:55
a slayer and so forth. This level
21:57
of of control is frankly amazing. The.
22:00
Whole purpose makes you think got a license
22:02
three berries like getting and just as right
22:04
except we're we're talking about getting it right
22:06
at the At comic novel. Or
22:08
as the atomic level and know
22:10
I I I ideally. I.
22:12
Would place every item but again this has
22:15
be really cheap and I have to make
22:17
millions of tons of it a year. So
22:19
with a with computers if I don't need
22:21
millions of tons of computer chips that can
22:24
be these precious gems relative to battery. so
22:26
I need the kind of control. Ideally I
22:28
want the kind of control haven't computer chips
22:30
but made it to scale of dog food.
22:33
In case you aren't keeping count so
22:35
far this episode was referred to Jelly
22:37
Roles Fruit Roll Ups Gatorade, The Three
22:40
Bears for as a Goldilocks and Mouth
22:42
Dog said only got one more for
22:44
you Now that we've mind purified on
22:47
synthesize the material that we need, we
22:49
have to layer it makes something that
22:51
looks like balaclava. And yes, I'm talking
22:53
about that amazing and slightly sticky desert
22:56
that many of us have enjoyed. Now.
22:58
Imagine you go to your favorite
23:00
bakery and you say you have
23:02
to me kilometers of box law
23:05
that's a with the separate or
23:07
space him to me and Cathode
23:09
is about steam excellence and so
23:11
not only are these layers process
23:13
within themselves best precisely alliance over
23:15
these distances. he got mining. The
23:17
new guy purifying and then you've
23:19
got a lotta different steps that
23:21
going to a bucket that could
23:23
be called manufacturing and set this stage
23:26
we have a cell. what happens
23:28
next. Specific period. Love because now
23:30
we have the Legos. The cell
23:32
is really hard to make. a
23:35
lot goes into it manufacturing. Know
23:38
how over the Industrial revolution?
23:40
Some industrial revolution to. Twenty.
23:43
Twenty Three or is about doing one thing,
23:45
doing one thing over and over again and
23:47
then having that be a building block. At.
23:49
This point in the process the
23:51
difficult chemistry is behind us and
23:53
the assembly process is all about
23:55
stream the cells together and two
23:57
packs of to ten thousand cells.
24:00
In a single pack, it's still pretty
24:02
difficult, but you no longer need specialized,
24:04
clean rooms and you can do it
24:06
virtually anywhere you can. Ship he sells
24:08
their formed the can be created and
24:10
so the of. While we
24:12
want to produce more cells in the
24:14
Us, the fact that these cells can
24:16
be made with these positions in Korea
24:18
and China In Japan, that's where most
24:20
of the manufacturing happens. There's a good
24:22
amount happening the you out there has
24:24
to be a lot more, but once
24:26
the cells are made, you can do
24:28
what we call pack out, making the
24:30
modules, making the pax wherever. It's really
24:32
incredible. Said
24:35
that as upset as a lithium
24:37
ion batteries are made, the process
24:39
is really sophisticated and every single
24:41
step is expanding quickly as the
24:44
world appetite for batteries increases. That
24:46
means that we're gonna need more
24:48
as everything that goes under them.
24:50
To needs by twenty four the are
24:53
scary, but by twenty thirty they might
24:55
be even scarier just minding and process
24:57
takes. a lot of times of religion
24:59
that's about seven to eight times more.
25:02
By twenty third, Nickolenko bug me to
25:04
the double and Copper about fifty percent
25:06
more, which are gigantic months. Some
25:09
more and hot. As a research scholar
25:11
here at the Center Global Energy Policy
25:14
someone tom things about to happen as
25:16
they said he looks at it the
25:18
lenses of trade and best sent an
25:21
industrial policy according to Mckenzie, the global
25:23
supply chain for batteries and twenty twenty
25:25
two. with around eighty five billion dollars
25:28
and twenty thirty as expected to be
25:30
worth four hundred billion dollars thanks largely
25:32
to demand for things like electric cars
25:35
and on the stories and the electric
25:37
grid. whoever controls bought. Supply chain
25:39
has enormous power says who
25:41
currently we'll says. Adding the
25:44
obvious candidates Turner Prize for China's
25:46
Deputy buildings your political leverage with
25:48
with their control over over to
25:50
supply chains. I think other countries
25:52
are currently reacting to it. Ski
25:56
race in part. Because he controls
25:58
the supply chain. Raw materials
26:01
for battery Twenty eight.
26:03
Percent of the world's Lithium, Forty
26:05
one percent of Cobalt through steaks
26:07
and minds on five continents. And
26:09
the biggest concern is that they
26:11
would use their supply chain dominance
26:13
to basically gains your plan for
26:15
the average. That's the biggest challenge
26:17
and I think that the risk
26:19
is. Why
26:30
should we care about China controlling so much
26:32
as the world's battery supply chains? Why does
26:35
this matter? So. There are two
26:37
sites nelson. The first one is
26:39
that we should care because the
26:41
numbers are just insane. Their staggering,
26:43
right? I'm on the refining side.
26:45
China controls eighty percent of manganese
26:47
refining, more than seventy percent of
26:49
global, the nickel refining, more than
26:51
sixty percent of lithium refining. And
26:53
then you get to the most
26:55
valuable components to cathodes. Yeah, notes
26:57
right. China controls more than seventy
26:59
five percent scattered production, more than
27:01
ninety percent of annual production, and
27:03
then eventually, with respect to Badri,
27:05
so they control. More than seventy five
27:07
percent of those are a lot of
27:09
percentages but I basically didn't say anything
27:12
below sixty percent. It wouldn't matter if
27:14
it was Australia or Canada or even
27:16
Europe. those numbers are are scary because
27:18
you are at risk of supply chain
27:20
restrictions do two things like extreme weather
27:23
events, local conflicts rights. That's the first
27:25
part. The second part is course we
27:27
we should care because there are concerned
27:29
said China indeed will use that leverage
27:32
for forty of political power. Tennis.
27:34
Perceived as almost six and a
27:36
boogie man in international trade and
27:38
eric the reasons why it's a
27:40
state directed economy that often uses
27:42
businesses and export sections to retain
27:45
its dominance in a wide variety
27:47
of technology sectors. and batteries are
27:49
no different. Suggest as an example,
27:51
I never signed Ninety Percent of
27:53
the World's Best Sites and at
27:55
the end of twenty twenty three,
27:57
China restricted. Site Experts.
28:00
in an effort to protect its own supply. And
28:02
this restriction sent battery makers scrambling.
28:06
But they can also be wrongfully bashed.
28:08
So early on, China saw the strategic
28:10
importance of technologies like solar and batteries,
28:13
and they acted on it, building some of
28:15
the most competitive technologies in the world. China
28:17
had a vision for a battery
28:19
powered future and they built a
28:22
very successful industrial policy around it.
28:24
That is partially evidenced by control
28:26
over supply chains, but also
28:28
by technology. If you look today at
28:31
the best type of batteries, the best
28:33
cathodes in the world, that is Chinese
28:35
technology. And that has developed over a
28:37
number of years, one,
28:40
two decades at least, where they
28:42
had a clear strategy while other
28:44
automakers and countries were, yeah,
28:48
sorry for the pun, but asleep behind the wheel.
28:50
And while China dominates a lot
28:53
of the world's battery supply chains,
28:55
many other countries like China are
28:57
establishing their own trade restrictions. One
29:00
example is the Inflation Reduction Act
29:02
here in the US. This is
29:04
America's green industrial policy, and it
29:06
gives some real advantages to US
29:08
companies. I'm talking about domestic incentives
29:11
that angered even America's close European
29:13
allies. This green industrial race
29:15
has added to an already tense trade
29:17
relationship between the West and China, and
29:20
batteries are one of the reasons why.
29:22
The last few years have been very, very,
29:24
very bad. And
29:26
there's two drivers to that. First,
29:29
you have battery prices that are plummeting, and
29:31
that's a great thing for the energy transition,
29:33
right? But all of a sudden, all automakers
29:35
have to electrify. In the United States, in
29:38
Europe, if you don't do it now, you
29:40
fall behind, and you have no future in
29:42
the electric vehicle industry, which
29:44
means that all of a sudden, all
29:47
of the stuff that China was producing, we now
29:49
really need a lot of it, right? So
29:52
that came at the same time as
29:54
COVID. So You have a lot of
29:56
stimulus packages, right? So You have a lot of subsidies that
29:58
are now trying to encourage you. A lead to
30:01
more of that stuff. Eve East
30:03
Battery cells, Catholics and notes and
30:05
so forth at home, right? I'm
30:07
and their i think. Dose
30:09
to have gotten us to a level. Where.
30:12
There's a lot more sensitivity and
30:14
where we have seen the U
30:16
S stand up and say. If.
30:19
You wanna play a game of
30:21
export restrictions which you have been
30:23
doing. the loss basically deck addicted
30:25
and half we can play ball
30:27
right arm and so you have
30:30
seen the chips act Weird. United
30:32
States actually prohibits or recipients of
30:34
subsidies to to expand business in
30:36
China and it is very. Aggressive
30:39
ah protectionist measures right in in tier
30:41
it's and I think we seen the
30:43
same thing coming from China Way they
30:45
say look now is you export diamond
30:48
Germanium which are two very important elements
30:50
for tips. You. Need
30:52
to have a license from the government's which of
30:54
course gives them the control over exports as well.
30:57
And so there we have gotten now to
30:59
to situation a few competition. Think.
31:01
It's fair state that China is
31:03
not unique and using traded the
31:06
geopolitical lots of countries us to
31:08
have a couple of examples of
31:10
standout you actually at that point
31:12
as countries using trade restrictions within
31:14
manning specifically the battery supply chains
31:16
as some happened to a political
31:18
tool. Absolutely as a geopolitical to
31:20
and I would say as a as a
31:23
local industrialization to lie to to to jump
31:25
to jump on in the services would do
31:27
politics is one thing and and for me
31:29
when you talk but you politics a lot
31:31
of it is also by the cheating Foreign
31:33
policy goals right are having a specific types
31:35
of influence. In
31:38
that sector I would say with
31:40
respect to industrialization a lot of
31:42
countries what we see today are
31:44
trying to use export restrictions and
31:47
to also adds more valuable sectors.
31:49
to their economy so if you are
31:51
in nickel producer what happened before is
31:53
that you just export it and the
31:55
more for at value added segments like
31:58
processing cathode manufacturing and so forth were
32:00
happening elsewhere, China specifically. We
32:02
now see countries doing that differently. So
32:04
Indonesia, for example, implemented a nickel
32:07
export ban over several years to
32:10
force investment into Indonesia's
32:12
processing capacity. And that worked
32:15
very well. Other countries are looking at
32:17
that and are saying, hey, we might want to
32:19
do the same thing. Several African countries, for
32:22
example, Zambia and DRC with respect to cobalt.
32:25
Chile has recently nationalized its lithium industry.
32:27
It's a big word, but basically they're
32:29
going to require any private sector company to
32:32
come get into a joint venture with
32:34
the Chilean state-owned enterprise. So we're seeing
32:36
a lot of countries doing that. Whether
32:38
that will work, that's a big question.
32:41
Can the energy transition actually happen
32:44
on the timeframes and at the scale
32:47
we're talking about without cooperation with today's
32:49
major players in battery supply chains, including
32:51
China? Zero chance,
32:54
not at all, not in a million years. So
33:01
it sounds like the future of battery supply chains
33:04
is global. Is that fair? Absolutely.
33:07
The future of battery supply chains
33:09
is global for sure. We'll
33:12
see some more investment happening, very similar
33:14
to refineries. But the amount of demand
33:16
we're going to have for batteries is
33:18
off the charts. And we'll only be
33:20
able to supply it with integrated global
33:22
supply chains. We
33:28
need to electrify a lot of the global economy
33:30
if we want to hit net zero emissions by
33:32
2050. The International
33:34
Energy Agency says that growth in annual
33:37
electricity demand will need to double through
33:39
the middle of the century. And
33:41
that's going to require a lot of batteries
33:43
to electrify transport and more
33:45
batteries in our buildings and even more batteries
33:48
across the entire grid to balance out vast
33:50
amounts of wind and solar. And
33:52
so this brings us to a really central
33:55
question about the battery economy. Are we just
33:57
going to swap out dependence on petroleum for
33:59
dependence on solar? A critical minerals
34:01
from China, Elon Musk has called
34:03
Lithium the new oil. Is
34:05
he right? Looking
34:12
into huge increase in mining and
34:14
minerals. but we should put it
34:16
in proper context in the scale
34:19
of global oil gas trade. Jason.
34:21
Board. Ah, since the founding director of Columbia
34:24
University is super center and go but energy
34:26
policy where I work, but I've known Jason
34:28
since two thousand and Nine when we were
34:30
working together and the White House and I
34:32
turn to him when ever I have questions
34:35
about the geopolitics of the energy transition, say
34:37
some. A Special Assistant President Barack Obama and
34:39
Senior Director for Energy and Climate Change at
34:41
the National Security Council, so he knows a
34:44
thing or two about the Oil and Gas
34:46
transition. Will. And gasser incredibly important
34:48
strategic and economic commodities, and we've seen that
34:50
time and again over the last hundred hundred
34:52
and fifty years. I spoke to
34:54
days and almost to the day
34:57
of the fiftieth anniversary as the
34:59
Arab Oil Embargo. It's striking that
35:01
we were discussing centers dominance in
35:03
the clean energy sector right at
35:05
that moment, as that anniversary and
35:07
one doesn't explain the differences and
35:09
similarities between the battery economy and
35:11
the fossil fuel economy. When we
35:13
think about the massive quantities of
35:15
materials and minerals that we're gonna
35:17
need to get net zero emissions,
35:19
how did they compare to oil
35:21
and gas. The. Global oil and
35:23
gas traders is massive. The I
35:25
is ah, one of the ice
35:27
scenarios that gets you sort of
35:29
close to one point five degrees, if
35:32
not all the way, has critical
35:34
mineral revenue growing from forty one billion
35:36
in two thousand and nineteen. To.
35:38
Two Hundred and Sixty Three billion. By.
35:41
Twenty Forty Again, This on all the way to one
35:43
point five. Maybe one point seven, or eight. By
35:46
comparison, annual revenue from oil and
35:48
gas this year is over seven
35:50
trillion dollars and lot of this
35:52
is just volume. Ah, the volume
35:54
of critical minerals needed to power
35:56
the global economy and a clean
35:58
energy world are not as. As
36:00
they are for oil and gas,
36:02
even on a net zero pathway
36:05
critical minerals demand does not top
36:07
thirty million metric tons. In
36:09
Twenty Four, the according to the eye
36:11
and by comparison. To. Thirty
36:13
million metric tons. Oil.
36:16
Production last year was four point four billion.
36:18
Metric. Tons call was seven and a
36:20
half. Billion. Tons.
36:23
so. The. Global oil
36:25
and gas industry is enormous and ah
36:27
yes, we're going anymore mining. We're going
36:29
to be more global trade and these
36:31
minerals. But it really doesn't compare to
36:33
how massive the global oil and gas
36:35
our businesses. And. When we think
36:38
about the geopolitics of Alves, how
36:40
are minerals the same and different
36:42
from oil? I. Think there's a
36:44
lot of sometimes facile comparisons between oil security
36:46
and mineral security, and you hear some politicians
36:48
say things like i don't want to go
36:51
from dependence on the Middle East for oil
36:53
to dependence on China for minerals and there
36:55
is something to that We want to be
36:58
concerned about the dominance of any one country,
37:00
particularly one that is not a was playing
37:02
by free and fair. Rules of
37:04
global Trade or that the U S as significance
37:06
in Europe has significant. Tensions. With
37:09
like China, but there are a
37:11
lot of really important differences to
37:13
these are not the same from
37:15
the standpoint of scale or or
37:17
from the standpoint of the energy
37:19
security risks. Oil is. Ah,
37:22
the daily slow of energy. If
37:24
we were to see any cut
37:26
us in the daily slow of
37:29
oil, your ability to your homes
37:31
in some parts of the country
37:33
to power our transportation sector would
37:36
grind to a halt or prices
37:38
would go through the roof. If
37:40
you saw disruption in critical mineral
37:43
supplies, I wouldn't affect your ability
37:45
to get energy from say electricity
37:47
or to power your your home.
37:49
Ah, it would cause shortages, delays,
37:52
Cost increases in the supply chains.
37:55
For. mineral so critical minerals are
37:57
an input to up manufactured goods
38:00
that can produce energy or store energy,
38:03
it is not energy. We don't
38:05
burn critical minerals for energy. And
38:08
so if we had a disruption and some
38:10
types of critical minerals, you might see delays
38:12
and much higher costs for batteries.
38:14
It might have to wait six months or 12 months
38:16
to be able to buy a new electric vehicle. You
38:19
might see delays in solar panels. It wouldn't affect your
38:21
ability to charge your electric car today or get
38:24
electricity from your solar panel today.
38:26
So the risks to the macro economy are
38:29
different than they are for oil.
38:32
It's really important that we don't downplay
38:34
the risks in battery supply chains. Although
38:37
the fossil fuel economy actually dwarfs the
38:39
battery economy and volume, there are ways
38:41
in which critical minerals create even more
38:43
concerns about energy security than oil. And
38:47
the biggest risk is concentration.
38:50
So the top producers of oil in the
38:52
world, the US, Saudi Arabia, and Russia, each
38:55
produce roughly 10% of global
38:57
crude oil supply. The
39:00
top producer of lithium, of
39:02
cobalt, of rare earths, each
39:05
of those, the top producers, each
39:07
of those produces more than half, and in some cases up
39:09
to 70% of global supply. So
39:12
there's much more concentration today in
39:15
who produces these so-called critical minerals.
39:18
That concentration brings a whole bunch
39:20
of concerns about supply shocks due
39:22
to things like expert restrictions, extreme
39:24
weather, or even another pandemic. But
39:27
when I spoke to Jason, he said
39:29
that all things considered, he'd rather have
39:31
the critical mineral security problem to solve
39:34
than the oil security problem to solve.
39:36
Oil is partly about technology, but
39:39
very much about geologic abundance. Some countries have
39:41
oil on the ground and some don't. With
39:43
critical mineral dominance that China has, most of
39:45
that is about refining and processing. Those are
39:47
manufacturing plants, and you can build those in
39:50
lots and lots of places. And
39:52
so if we're concerned about the dominance of
39:54
any one country in the supply chain for
39:56
geopolitical reasons, or just because you want to
39:58
diversify, you might see a... hurricane or typhoon
40:00
hit a certain country. You see that with Apple
40:02
now, which is trying to increasingly
40:04
build iPhones in India, not just China.
40:06
It's just good business practice, especially we've
40:09
been reminded after the pandemic, to diversify
40:11
supply chains. We can
40:13
build those refining and processing plants in many
40:15
places. I know that you were
40:17
a part of the Aspen Institute report that
40:19
was called a critical minerals policy for the
40:21
United States. In that report, you and others
40:24
outlined a bunch of recommendations for U.S. policy
40:26
around critical minerals. Could you
40:28
step us through just the most important steps
40:30
that governments can take and where,
40:33
if anywhere, is there some low-hanging fruit that we
40:35
could go ahead and move on soon and what
40:37
steps are actually going to be a lot more
40:40
difficult? There's a lot that the
40:42
U.S. government should be doing to expand
40:44
critical mineral supplies and increase security
40:46
of supply. First, we
40:48
will need more mining. If
40:52
you're going to diversify supply chains away from countries
40:54
like China, we're going to need permitting
40:57
reform to make it easier
40:59
to do mining projects in
41:03
the United States. You need to do
41:05
that incredibly carefully. We spent a lot of time
41:07
in the report talking about the risks to
41:11
Native American communities. Many of these
41:13
resources are located within a short
41:15
distance of federal lands, public lands,
41:17
sensitive areas, Native American communities. You
41:20
need to be really careful about how you do that. We have to
41:22
make it. Right now, it takes going to the IEA
41:24
an average of 16 years to bring a
41:26
new mining project to development. We have to
41:28
shorten those timeframes. We
41:30
can also put in place measures on
41:33
the demand side to reduce how much
41:35
minerals we need through technology and
41:38
through other measures that might actually allow us to
41:40
get to the same place with fewer of these
41:42
critical mineral inputs. Second,
41:45
we spent a lot of time
41:47
in the report and engaging with
41:49
tribal communities and indigenous communities to
41:52
make sure that any energy transition
41:54
and any dramatic increase in critical
41:56
minerals, mining, refining and
41:59
processing is done in a
42:01
way that is just and equitable. And the mining
42:03
industry does not always have a great track record
42:05
in this regard. So in particular,
42:07
we talked about the need to clarify
42:09
and enforce indigenous sovereignty through
42:11
the so-called concept of
42:14
free prior and informed consent
42:16
with consent directly from impacted
42:18
tribal communities. And that needs
42:20
to be a prerequisite for critical
42:22
mineral development. And
42:25
then third, we talked about the importance of
42:27
trade, that we can't do this alone. We
42:30
can't do this on a path of isolationism
42:32
and protectionism. We need a lot of partners.
42:35
First, there's almost no scenario where China does
42:37
not remain in a very important part of
42:39
these supply chains, albeit maybe less
42:42
dominant than today. And you need
42:44
to think about the tools to de-risk
42:46
that, to reduce the risks of that
42:48
dependence and put in
42:50
place tools to deal with shocks, geopolitical
42:53
or otherwise. And then we
42:55
need to diversify supplies. In order to do
42:57
that, we need to build
42:59
stronger partnerships with lots
43:01
and lots of other countries in Africa
43:04
and Latin America and Southeast Asia. That's
43:07
really important because right now, protectionism
43:09
is on the rise on
43:12
both sides of the aisle and in many parts of
43:14
the world. And we're
43:16
gonna need more free trade agreements and more
43:18
free trade partnerships, not fewer, if we wanna
43:20
have a clean energy transition and diversify our
43:22
clean energy supply chains. And
43:25
if every country says we need to own the
43:27
entire supply chain, because we want all of those
43:29
economic benefits, it's gonna make the clean energy transition
43:31
so much harder. The
43:39
battery economy is here and it
43:41
is shaping so many things. I'm
43:44
talking about global trade, geopolitical relationships,
43:46
domestic industrial policies, climate targets. But
43:49
battery supply chains also matter to every single
43:51
one of us. There are
43:53
millions of jobs at stake and there
43:55
are environmental and human costs to mining.
43:58
And the availability of batteries. has direct
44:00
impacts on the health of the
44:02
grid and the affordability of mobility
44:04
and electricity. And
44:07
people like Alessandra Carreon, who now
44:09
serves as a public service regulator
44:11
in Michigan, are grappling with the
44:13
real-world consequences of how battery supply
44:15
chains are structured. I
44:18
can't imagine how we can
44:21
justify ongoing investments in aging
44:23
infrastructure that has served us
44:26
to date without thinking about
44:28
the role of new and
44:31
increasingly affordable technologies like
44:34
batteries or energy storage
44:36
systems to meet that
44:38
charge, especially as
44:41
they become more accessible and
44:43
distributed and therefore can
44:46
help promote equitable, affordable
44:48
access to more
44:50
energy service customers. Yeah,
44:53
it's not that far removed from where
44:55
I sit now to think about how battery
44:57
supply chains matter. Coming
45:03
up this season, we're going to visit
45:05
all the steps in the battery supply
45:07
chain from mining to processing to manufacturing
45:10
to recycling. And we'll ask,
45:12
what are the benefits and tradeoffs
45:14
for the economy, the environment, and
45:16
human well-being? The
45:20
big switch is produced by Columbia
45:22
University's SIPA Center on Global Energy
45:24
Policy in partnership with Latitude Studios.
45:26
If you appreciate the reporting and storytelling that we're
45:29
doing here, you can rate and review the show
45:31
at Apple and Spotify. And you can also send
45:33
a link to a colleague or a friend who you think would
45:35
like it. You can find all
45:37
of our back episodes along with this
45:39
current season wherever you get your pods.
45:41
The show is produced by Daniel Waldorf,
45:43
Mary Catherine O'Connor, Anne Bailey, and Stephen
45:46
Lacy. Anne Bailey is our senior
45:48
editor. Sean Marquand wrote our theme song and
45:50
makes the episode. And thanks to Austin Cope
45:52
for field producing. A special
45:54
thanks to our Columbia team, Harry Kennard,
45:56
Natalie Volt, Tulee, Jen Woo, Liz Smith,
45:59
and Tom Warren-Hann. This show
46:01
is hosted by me, Dr. Melissa Lott. Thank
46:03
you so much for listening. Stay
46:05
tuned for episode 2 on the Tweet.
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