Everybody, Peter Zion here coming to you from just below 13,000 feet in the San Isabel National Forest. In central Colorado. I am just below the saddle between Mount Sherman and Sheridan which are a low 14 and a high 13 are both Centennial peaks here in Colorado, this area is rich with Colorado mining history dating back to the 1800s gold rush. So I thought today, it might be a great time to talk about the new gold, and that would be lithium. Now, for those of you have been following me for a while you know that lithium isn’t great. It’s not a fantastic battery chemistry, it’s not particularly energy dense, it doesn’t charge or discharge quickly, it tends to swell and heaps to the point that sometimes it catches on fire. And that means it’s just not very good for things like transport where vibration and motion and temperature variation are just par for the day. But it is the best that we have. There are some promising things out there in labs, but nothing that’s even close to prototype stage, whether it’s vanadium, batteries or flow batteries, we don’t have anything else that we can produce in volume to provide 1/1000 of 1% of the global vehicle fleet to algo, Evie except lithium. So for at least the next 15 years, it really is the only game in town, I would love for that to be not true. And who knows, maybe we’ll have some material science breakthroughs tomorrow. But even if we do, it’s another 10 years before that’s going to enter mass manufacturing. And that’s assuming that we already have the input stream for whatever it happens to be. And that’s kind of the problem with lithium. Now, lithium is produced in two ways. You can do your traditional mining, whether open pit or shaft in order to get the rock and then you pulverize it and you turn it into concentrate and then turn it into metal. Or you get something called Spumante, which I’m sure I just butchered the pronunciation of we’re gonna put the phonetics here for you. Which you can then dissolve in an evaporation pond, throw in some acids and chemicals and everything. And it basically separates the lithium carbonate from the rest of the rock. And then you can turn that into concentrate. Now. There are two big players in global lithium that collectively produce about three quarters of everything we have. The first country is Chile, where they produce it via that is operation technique high in the Atacama Desert, where the doesn’t really helps with the evaporation. And unfortunately, their expansion plans have kind of stalled because they’re in the process of trying to nationalize the industry. Now overall, it’ll probably be a good thing in the long run, because there’ll be a more compact sustainable supply chain closer to American and European consumers less dependent on having to get processing done in China, these are all good things. But they don’t happen for free and they don’t happen for overnight. And Chile is a country with under 20 million people. So simply the labor in this very, very remote region is going to be a challenge for them. It’s a 10 to 20 year process. And that’s 10 to 20 years where Chile’s participation in lithium production is probably going to stall. Australia, primarily rock mining is expanding as fast as they can. But rock mining takes a little bit longer to bring online and then evaporation mining or evaporation purification, I guess would be a reparation processing, there we go. So you’re not looking at the Australians probably be able to double their output within the next 10 years. Well, within the next 10 years, the world needs at least 18 times as much lithium. So lithium is going to go from the fuel source of the future to something that is a more precious commodity, which is going to shape everything in the electricity space. And if we’re going to try to electrify transport, shape everything in the transport space too. There are no good solutions here. Right now the majority of the world’s processing capacity is in China, and we’re going to lose all of that. And the secondary producers of lithium are only in the low single digits in terms of production rushes on that list, we’re going to lose that too. We will have some incidental sources coming online. For example, there is a new facilities in the United States, I believe a big one in Arizona coming online. But again, within 10 years, though you collectively are probably only going to be increasing overall supply by 20 to 30%. The pipeline just isn’t there. Even if we decided we wanted to throw a trillion dollars at this problem tomorrow, it still takes years to bring the stuff online. And mining is only the first step. Once you’ve got that concentrate, you then have to turn it into metal and only then can you turn into chasse ease and battery systems and that all needs to be built out to and you guessed it a fair amount of that is in China already and we’re going to lose it. So the smart play here remains a trillion dollars put into not lithium production but physical science research so we can find a better battery chemistry, preferably two or three, so that we have a competition to see what the full fuel of the future can be, instead of being stuck completely on one that we already know probably isn’t going to work for us. All right, that’s it. See from the top, I got a text through. So quick fact check 47% of lithium right now, because in Australia, they’ve been expanding in leaps and bounds in the last decade, Chile has stalled out at 30%. Other than that the rest of it holds at one more add on Australia has negotiated their way into the inflation Reduction Act. Remember, they have a free trade association with the United States. So they were able to join, and they will benefit from the subsidies for green tech that the Biden administration has established. That means the United States has preferential access to Australian uranium, and especially lithium, and as Australia’s lithium industry expands, we’ll be doing more and more processing. So this will eventually turn into lithium metals, it’s still not enough for what the United States needs to do by like a factor of three or four. But with preferential access, that means the United States will face significantly fewer problems with the green transition, so long as lithium is the fuel of choice, as long as that is the case. But if the United States takes the lion’s share of Australia, lithium, there really isn’t anything left for anyone else. So we are still in a world where the United States because of its superior geography and financial position and alliance structure can try to do the green transition. I don’t think it will go very well but it can dry but partial success in the United States means a complete failure for the green transition everywhere else simply because of the lack of materials.
Commentary
Our commentary partners will help you reach your own conclusions on complex topics.
With globalization ending, the US can and should adapt
Yesterday Peter ZeihanDeglobalization’s impact on world food exports
Thursday Peter Zeihan‘The lesser of two evils’: Undecided Gen Z on 2024 election
Wednesday Dr. Frank LuntzWill climate change be the death of wheat?
Wednesday Peter ZeihanWhy going all in on lithium batteries is not a winning EV strategy
By Straight Arrow News
Growing demand for electric vehicles and cleaner technologies that don’t rely on fossil fuels has created a significant need for rechargeable batteries. Among them, lithium-ion batteries, known for lasting longer, are the most widely used in the commercial market.
Straight Arrow News contributor Peter Zeihan cautions against fully committing to lithium battery manufacturing and shares an alternative approach to investing in next-generation batteries.
Excerpted from Peter’s Nov. 20 “Zeihan on Geopolitics” newsletter:
Lithium has played an important role in the green transition and remains a crucial resource for the future of electricity; however, it’s not going to be all sunshine and rainbows for lithium…
While lithium is the primary option for electric vehicle batteries, its low energy density and safety concerns leave much to be desired. Unfortunately for us, lithium is pretty much the only option at this point. There remain some much-needed breakthroughs in the battery chemistry space, but even if those happened tomorrow – reaching mass production would take at least a decade.
The lithium supply chain is no clean sheet either. Chile and Australia are the top producers, but between nationalization efforts in Chile and a slower extraction method used in Australia – disruptions are pretty standard. The bottlenecks don’t end there. Processing capacity is concentrated in China, and with collapse right around the corner, get ready for a whole new slew of problems.
If I controlled the flow of investments into this sector, I wouldn’t be dumping billions of dollars on lithium production. Instead, I would allocate funds to the physical science research to develop a better battery chemistry. Diversifying our battery technologies is the only way to make the green transition stick without hindering global progress toward sustainable energy solutions.
If we put all of our eggs into the lithium basket…We’ll have a long road ahead of us.
Everybody, Peter Zion here coming to you from just below 13,000 feet in the San Isabel National Forest. In central Colorado. I am just below the saddle between Mount Sherman and Sheridan which are a low 14 and a high 13 are both Centennial peaks here in Colorado, this area is rich with Colorado mining history dating back to the 1800s gold rush. So I thought today, it might be a great time to talk about the new gold, and that would be lithium. Now, for those of you have been following me for a while you know that lithium isn’t great. It’s not a fantastic battery chemistry, it’s not particularly energy dense, it doesn’t charge or discharge quickly, it tends to swell and heaps to the point that sometimes it catches on fire. And that means it’s just not very good for things like transport where vibration and motion and temperature variation are just par for the day. But it is the best that we have. There are some promising things out there in labs, but nothing that’s even close to prototype stage, whether it’s vanadium, batteries or flow batteries, we don’t have anything else that we can produce in volume to provide 1/1000 of 1% of the global vehicle fleet to algo, Evie except lithium. So for at least the next 15 years, it really is the only game in town, I would love for that to be not true. And who knows, maybe we’ll have some material science breakthroughs tomorrow. But even if we do, it’s another 10 years before that’s going to enter mass manufacturing. And that’s assuming that we already have the input stream for whatever it happens to be. And that’s kind of the problem with lithium. Now, lithium is produced in two ways. You can do your traditional mining, whether open pit or shaft in order to get the rock and then you pulverize it and you turn it into concentrate and then turn it into metal. Or you get something called Spumante, which I’m sure I just butchered the pronunciation of we’re gonna put the phonetics here for you. Which you can then dissolve in an evaporation pond, throw in some acids and chemicals and everything. And it basically separates the lithium carbonate from the rest of the rock. And then you can turn that into concentrate. Now. There are two big players in global lithium that collectively produce about three quarters of everything we have. The first country is Chile, where they produce it via that is operation technique high in the Atacama Desert, where the doesn’t really helps with the evaporation. And unfortunately, their expansion plans have kind of stalled because they’re in the process of trying to nationalize the industry. Now overall, it’ll probably be a good thing in the long run, because there’ll be a more compact sustainable supply chain closer to American and European consumers less dependent on having to get processing done in China, these are all good things. But they don’t happen for free and they don’t happen for overnight. And Chile is a country with under 20 million people. So simply the labor in this very, very remote region is going to be a challenge for them. It’s a 10 to 20 year process. And that’s 10 to 20 years where Chile’s participation in lithium production is probably going to stall. Australia, primarily rock mining is expanding as fast as they can. But rock mining takes a little bit longer to bring online and then evaporation mining or evaporation purification, I guess would be a reparation processing, there we go. So you’re not looking at the Australians probably be able to double their output within the next 10 years. Well, within the next 10 years, the world needs at least 18 times as much lithium. So lithium is going to go from the fuel source of the future to something that is a more precious commodity, which is going to shape everything in the electricity space. And if we’re going to try to electrify transport, shape everything in the transport space too. There are no good solutions here. Right now the majority of the world’s processing capacity is in China, and we’re going to lose all of that. And the secondary producers of lithium are only in the low single digits in terms of production rushes on that list, we’re going to lose that too. We will have some incidental sources coming online. For example, there is a new facilities in the United States, I believe a big one in Arizona coming online. But again, within 10 years, though you collectively are probably only going to be increasing overall supply by 20 to 30%. The pipeline just isn’t there. Even if we decided we wanted to throw a trillion dollars at this problem tomorrow, it still takes years to bring the stuff online. And mining is only the first step. Once you’ve got that concentrate, you then have to turn it into metal and only then can you turn into chasse ease and battery systems and that all needs to be built out to and you guessed it a fair amount of that is in China already and we’re going to lose it. So the smart play here remains a trillion dollars put into not lithium production but physical science research so we can find a better battery chemistry, preferably two or three, so that we have a competition to see what the full fuel of the future can be, instead of being stuck completely on one that we already know probably isn’t going to work for us. All right, that’s it. See from the top, I got a text through. So quick fact check 47% of lithium right now, because in Australia, they’ve been expanding in leaps and bounds in the last decade, Chile has stalled out at 30%. Other than that the rest of it holds at one more add on Australia has negotiated their way into the inflation Reduction Act. Remember, they have a free trade association with the United States. So they were able to join, and they will benefit from the subsidies for green tech that the Biden administration has established. That means the United States has preferential access to Australian uranium, and especially lithium, and as Australia’s lithium industry expands, we’ll be doing more and more processing. So this will eventually turn into lithium metals, it’s still not enough for what the United States needs to do by like a factor of three or four. But with preferential access, that means the United States will face significantly fewer problems with the green transition, so long as lithium is the fuel of choice, as long as that is the case. But if the United States takes the lion’s share of Australia, lithium, there really isn’t anything left for anyone else. So we are still in a world where the United States because of its superior geography and financial position and alliance structure can try to do the green transition. I don’t think it will go very well but it can dry but partial success in the United States means a complete failure for the green transition everywhere else simply because of the lack of materials.
With globalization ending, the US can and should adapt
Deglobalization’s impact on world food exports
Will climate change be the death of wheat?
Blue money for green energy in red states
Tomorrow’s new world order
Underreported stories from each side
Grassley releases new details of Iran-backed assassination plots against Trump, Biden and others
8 sources | 0% from the left ReutersTrump staffers in Arlington incident identified
7 sources | 0% from the right Getty ImagesLatest Stories
Michigan’s first ‘I Voted’ sticker contest draws inspiration from folklore and more
IRS recovers $1.3B in unpaid taxes from high-income Americans
Rome considers timed ticket system for Trevi Fountain
NOAA says Vineyard Wind won’t kill sea life, issues permits for it to do just that
Trump campaign staffers involved in Arlington cemetery altercation identified
Popular Opinions
In addition to the facts, we believe it’s vital to hear perspectives from all sides of the political spectrum.
Don’t blame Israel, and keep the pressure on Hamas
Yesterday Star ParkerThe reckoning of the Trump campaign has begun
Yesterday Dr. Rashad RicheyAs Trump goes lower, Harris aims higher
Thursday Jordan ReidThe government isn’t the answer to a stressed-out parenting culture
Thursday Timothy Carney