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01 / 05
No, We Won’t Run Out of Resources

Blog Post | Mineral Production

No, We Won’t Run Out of Resources

We’ve been adapting to resource scarcity for millennia. The idea that we would stop today, at the pinnacle of our development so far, is a peculiar one.

Summary: This article challenges the pessimistic view that human progress will soon come to a halt due to resource scarcity. It argues that humans are problem solvers who can adapt to changing circumstances and find new ways of using resources more efficiently. It illustrates this point with the example of germanium, a mineral that has been extracted from different sources over time depending on the demand and availability.


Pessimists often claim that human progress is about to come to a screeching halt. They say that the resources that make progress possible are about to run out, dooming us to a reversal in living standards. The Club of Rome, along with nearly every environmentalist, tells us that incessantly, usually pointing to a supposed mineral shortage that will end civilization. The pessimists insist that everything must be recycled and that we must have a completely circular economy. Alas, they fail to understand how the mineral industry actually works. On a deeper level, they fail to understand that humans have agency. We are not merely buffeted by the natural world but can solve problems ourselves.

Another group that fails to appreciate our problem-solving ability is the American Chemical Society (ACS). The Society has a list of “endangered elements,” which they think might run out in the near future. The idea that we could run out of hafnium is enough to make geologists guffaw – I actually tried this once, and that’s what happened: not just giggles but proper belly laughs. Germanium, another on that list of likely shortages, illustrates my point even better. The world doesn’t use much of it, perhaps 150 tons a year. Some of that is recycled. (There’s nothing wrong with recycling, but insisting that we must recycle is wrong.)

We first started using germanium for electronics before we switched to using silicon computer chips. Germanium is still the material of choice for getting a warm and fuzzy sound on a guitar pedal, but today, germanium is mostly used for night sights and long-distance fiber optics. That’s because adding a little germanium to glass allows it to carry light for longer distances. So, we like having germanium around, and we would miss it if we ran out.

Early germanium extraction methods used coal. There’s a little germanium in nearly all coal and more in certain other deposits. If you collect the vapor after burning coal, the germanium concentrates in the ash and can be collected. The chemical company Johnson Matthey used to have a plant in Cheshire, England, to the delight of fuzzy guitar pedal enthusiasts. Later, we realized that certain zinc ores could also provide germanium, and the world supply pivoted to a zinc mine in DR Congo. Then, we got wise to the harmful effects of coal dust floating around the countryside. Coal power plants installed electrostatic precipitators on their chimneys to collect the dust, and coal once again became the primary source of the world’s germanium.

It might seem lucky that today’s germanium supply is just a byproduct of producing electricity. But to think of it as luck is to get things the wrong way around. We are problem solvers, not just the recipients of happenstance. In the absence of that luck, we could build a factory to do it anyway. That’s how the world’s largest germanium producer, in China, works. They mine coal, burn it in a power station, and collect the germanium-infused dust. Rumor has it – and it might just be a rumor because it’s so cute – that the germanium content is so rich that they give the electricity away to the local town for free.

The point of my germanium example is to show that we are not dependent on the current methods of mineral extraction, nor do we need luck to avoid shortages. We are tool-making creatures. If we have a problem, we study the world around us and develop a way to solve it.

Like germanium, every item on the ACS list of “endangered elements” actually has a vast current supply. The current mineral extraction methods might have problems, but the total amount of resources that we can use is imponderable. And if our current methods come up a little short, we’ll find better methods of extraction.

Our adaptive abilities should be obvious, though they clearly are not. We’ve been adapting to resource scarcity for millennia, and the idea that we would stop today, at the pinnacle of our development so far, is a peculiar one.

Live Science | Mineral Production

Countries May Race to Harvest Antarctica’s Huge Mineral Caches

“A warming climate could expose a Pennsylvania-sized chunk of ice-free land in Antarctica by 2300, which could drastically reshape Antarctic geopolitics as well as the continent’s geography.

A study published in Nature Climate Change is the first to incorporate glacial isostatic adjustment — how land beneath heavy ice sheets uplifts after the ice retreats — into projections of ice-free land emergence in Antarctica. The results reveal that climate change could expose potentially valuable mineral resources that may spur renegotiations of the international treaties that currently govern Antarctica…

Within the area that Lucas and the research team projected would be ice-free by 2300 lie known or suspected deposits of copper, gold, silver, iron, and platinum — critical minerals used in manufacturing and valuable metals in and of themselves. In particular, the study found the largest land emergence in Antarctica is likely to occur over territories claimed by Argentina, Chile, and the United Kingdom and contains a range of mineral deposits, including copper, gold, silver, and iron.”

From Live Science.

Blog Post | Mineral Production

The Most Important Check in Economics

The Simon–Ehrlich wager and why predictions of resource scarcity keep getting it wrong.

Summary: A famous bet between Julian Simon and Paul Ehrlich illustrates two ways of thinking about resources and human ingenuity. Ehrlich thought of resources as a fixed pie, while Simon believed that human beings would find ways to make resources more abundant. As Simon predicted, thanks to markets and human ingenuity, the resource prices that Simon and Ehrlich bet on fell over a decade.


One of the most important checks ever written in economics was for $576.07.

It arrived in the mailbox of Julian Simon, the University of Maryland economist and Cato Institute senior fellow, on an October morning in 1990. The envelope was plain. There was no return address. Inside was a check from Paul Ehrlich. Ehrlich, who died last week, was the Stanford biologist and author of the bestselling 1968 book The Population Bomb.

That small check settled one of the great arguments of the modern age.

Ehrlich had spent years warning that population growth would outrun the Earth’s resources, bring rising scarcity, and push humanity toward disaster. Simon believed the opposite. He argued that more people did not simply mean more mouths to feed. It also meant more minds to think, invent, and solve problems.

The dispute became so bitter that Simon proposed a bet.

“Pick any raw material,” he told Ehrlich, “and choose any future date. I’ll bet the price will go down.”

Ehrlich accepted. He and two colleagues selected five metals: copper, chromium, nickel, tin, and tungsten. They priced a basket of those commodities on Sept. 29, 1980, and agreed to compare the inflation-adjusted price 10 years later. If the real price rose, Simon would pay Ehrlich. If it fell, Ehrlich would pay Simon.

Ehrlich was certain that population growth would make resources scarcer and therefore more expensive. Simon was certain that human beings would find ways to make resources more abundant.

By Sept. 29, 1990, the world’s population had increased by about 850 million people, a rise of 19 percent. If the doomsayers were right, that should have pushed prices sharply upward.

It did not.

Inflation over the decade was 57 percent. Yet the nominal price of the five-metal basket barely budged, rising from $1,000 to $1,004. In real terms, the basket’s price fell by about 36 percent. Ehrlich mailed Simon the difference: $576.07.

That check mattered because it exposed a mistake that still poisons public debate.

The mistake is to think that natural resources are fixed gifts of nature and that economic life is therefore a grim contest over a pile that can only shrink as population grows. That view sounds sober. It is, in fact, blind to the central truth of human progress.

Resources are not simply things lying in the ground. Resources are matter plus knowledge.

Oil was once a nuisance that seeped into farmland and polluted water. A barrel of oil in the Stone Age was worthless. A barrel of oil in an industrial civilization could heat homes, move trucks, power factories, and feed chemical industries.

Nature gives us atoms. Human beings give those atoms value.

That is why Simon understood something Ehrlich missed. The ultimate resource is not copper or farmland. It is the human mind. More precisely, it is the human mind set free to experiment, trade, specialize, and innovate.

Freedom matters here. People do not solve problems automatically. They solve them when they are allowed to respond to scarcity with invention and enterprise. High prices invite substitution. Competition rewards efficiency. Property rights encourage investment. Markets spread information no planner can gather. Free people learn to do more with less.

This is not a fairy tale in which every problem solves itself. Pollution is real. Bad policy is real. Governments can strangle innovation, distort prices, and lock societies into waste and stagnation. Progress, in other words, is not guaranteed.

But the lesson of the Simon-Ehrlich bet is that the burden of proof belongs to the prophets of permanent scarcity. Time and again, they have underestimated human creativity and overestimated the world’s physical limits.

That is as true today as it was in 1980.

We hear that energy is running out, that growth must stop, that the planet cannot support prosperity for billions, and that human wants must be cut down to fit a closed and exhausted world. This language changes with the decade, but the instinct behind it is old. It treats people as liabilities. It imagines the future as a rationing exercise.

Simon offered a better vision. Human beings are not just consumers of resources. They are producers of ideas. They are creators of substitutes, technologies, and entirely new forms of wealth. They do not merely divide a pie. They learn how to bake bigger pies from ingredients earlier generations did not know they had.

The real contest, then, is not between population and resources. It is between two ways of seeing humanity.

One view sees every additional person as another claimant on scarcity. The other sees every additional person as a possible problem-solver, inventor, entrepreneur, scientist, or worker whose efforts can make life better for everyone else.

The check for $576.07 settled the bet. But the larger wager remains open.

Don’t bet against human beings, especially when they are free.

MINING.COM | Mineral Production

Japan Launches World’s First Deep-Sea Rare Earth Mining Test

“Japan has launched the world’s first test to extract rare earth elements from deep-sea mud, aiming to reduce its reliance on Chinese supplies amid rising geopolitical and trade tensions.

Chikyu, a government-backed Japanese mining vessel set sail on Monday for waters near Minamitori Island, a remote coral atoll in the Pacific, to study seabed mud rich in rare earth elements at a depth of about four miles. If successful, the project would mark the first sustained attempt globally to lift rare-earth-bearing sludge from the ocean floor directly onto a ship.”

From MINING.COM.

Yahoo Finance | Mineral Production

Tesla Fires up America’s First Major Lithium Refinery

“This week, Tesla North America and Elon Musk announced that the largest and most advanced lithium refinery in the United States is now operational.

The Tesla Lithium Refinery just outside of Corpus Christi, Texas, is another step toward the U.S. goal of having domestic refined lithium resources to counter China’s market dominance…

The refinery converts spodumene ore directly into battery-grade lithium hydroxide, in a first-of-its-kind process in North America.

Tesla uses a new technology platform that allows a cleaner, simpler, and cheaper process to obtain battery-grade lithium from the raw material, spodumene ore, says Jason Bevan, Site Manager for Tesla’s Gulf Coast Lithium Refinery.

Tesla says it sustainably sources spodumene and brings it to site where it runs it through a series of conveyance systems, takes it through a kiln and a cooler. From there, the material is taken through an alkaline leech and additional purification steps, and then into crystallization to produce battery-grade lithium hydroxide.”

From Yahoo Finance.