METALS, ENERGY & THE METACRISIS
What the Ground Beneath Our Feet Is Really Telling Us
A systems synthesis for navigating uncertain times
"Instead of remodelling our societies and economies in accordance with ecological imperatives, we are trying to maintain business as usual. Refitting the Titanic with batteries will not avoid ecological shipwreck."
— William (Patrick) Ophuls, Electrifying the Titanic
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The Human Ground
In mining regions across the Democratic Republic of Congo, Ecuador, Zimbabwe, and elsewhere, communities live with the daily reality of critical mineral extraction. The cobalt, lithium, and copper that power the global economy’s transition narratives are dug, in many cases, by hand—in conditions that regulators, auditors, and the companies that buy the ore have repeatedly documented as dangerous and unjust. The Fair Cobalt Alliance and others have noted that safety incidents at artisanal mines are not uncommon, and that the human cost is rarely counted in the headlines about clean energy.
This is where we begin. Not with graphs, not with projections. With people. Because every conversation about the energy transition, every government pledge, every shiny solar panel on a rooftop exists within this same system—a system built on the extraction of people and of the Earth, a system that is now running into physical limits that no amount of technology or optimism can simply wish away. Several of the world’s most rigorous thinkers in physics, history, geology, ecology, and economics are converging on the same troubling conclusion. This report attempts to map that convergence honestly, grievously, and usefully.
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One System, Many Descriptions
Jean-Marc Jancovici is a French engineering consultant who has spent two decades at the intersection of climate, energy, and economics. Simon Michaux is a geologist and mining engineer at the Geological Survey of Finland. Jean-Baptiste Fressoz is a historian of science at France’s National Center for Scientific Research. Balázs Matics is an industrial product engineer writing as “The Honest Sorcerer.” Thomas Murphy is a physicist at UC San Diego. Josh Farley is an ecological economist. Olivia Lazard is a conflict and geopolitics researcher specializing in the intersections of ecology and security.
These people come from different disciplines, different countries, different emotional registers. Yet when you listen to them carefully, they are describing the same animal from different vantage points. Jancovici sees it through the language of thermodynamics. Michaux through mineralogy. Fressoz through history. Matics through industrial supply chains. Murphy through physics. Farley through monetary theory. Lazard through conflict zones and broken governance.
The animal they are all describing is this: a global civilization built on the promise of infinite growth, powered by a one-time inheritance of concentrated ancient energy and concentrated ancient metals, now operating in a world where that inheritance is depleting faster than it can be replaced—and accelerating toward a physical reckoning that our economic, political, and cultural systems are structurally unable to process.
"When I plotted world GDP against world energy consumption going back to 1965, I got almost a straight line. The reason is simple: in the physical world, you have rules you cannot overrule."
— Jean-Marc Jancovici, The Great Simplification, Ep. 84
That straight line is the hinge of everything. GDP and energy move together, almost one to one. Not as a quirk, but as a law. You cannot run an economy without running machines. You cannot run machines without energy. The machines that grow our food, build our homes, transport our goods, heat our hospitals—they are not powered by ideas or money or innovation. They are powered by fuel. When Jancovici says this, he is not being poetic. He is stating physics.
And what this means, economically, is devastating. The modern assumption—that we can decouple GDP growth from energy use, that technology will dematerialize the economy, that we can have more with less—has not happened at the global scale. Not in a single year of data going back sixty years. As Jancovici notes, when you see apparent decoupling in one country, it is usually because that country has outsourced its energy-intensive manufacturing somewhere else. Look at the world as a whole, and the line holds.
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Energy Is Not a Commodity. It Is the Economy.
Thomas Murphy, a physicist, runs a thought experiment that stops the mind cold. Global energy use has grown at roughly 2.3 percent per year over the modern era. That sounds modest. But compound it forward:
100 years: 10× today’s energy use
200 years: 100× today’s use
400 years: all solar energy reaching Earth
1,400 years: our Sun’s total output
Murphy’s math is not a prediction. It is a proof by contradiction. Infinite physical growth on a finite planet is not a policy failure or a political failure. It is a logical impossibility. The growth imperative built into our economic system runs directly into the wall of physics. And we are closer to that wall than most people realize.
Josh Farley, an ecological economist, adds the monetary dimension: money is created as debt, loaned into existence by banks, and every new unit of money is a claim on future resources. We are doubling our debt roughly every eight to nine years while doubling the real economy every twenty to twenty-five years. The gap between those two curves is not sustainable. Debt is, at root, a promise that the future will be bigger and richer than the present. But if the energy and resources that make futures bigger are diminishing, those promises become hollow.
"Creating new money is a claim on future resources. Every dollar of debt requires a future with more energy, more materials, more extraction."
— Josh Farley, The Great Simplification, Ep. 29
This illuminates 2008 in a new way. Most people understand that financial crisis as a banking scandal—subprime mortgages, overleveraged banks, reckless Wall Street behavior. All true. But Farley and others point to a less-discussed thread: conventional oil production had already peaked around 2005. Energy price shocks rippled through the economy before the financial crisis hit. The economy needed energy to grow; the energy wasn’t there at prices the economy could afford; the financial system, built on growth assumptions, began to seize. Fracking then pulled the economy back from the brink—but fracking is capital-intensive, environmentally destructive, and is now itself plateauing. We borrowed from the future to keep the present going. That is always the shape of this story.
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There Has Never Been an Energy Transition
Jean-Baptiste Fressoz is a historian of energy, and his central argument is one of the most uncomfortable in contemporary environmental thought. His book More and More and More demolishes a foundational myth of the green movement: that humanity has navigated energy transitions before—from wood to coal, coal to oil—and will do so again, this time to renewables.
It did not happen. Fressoz’s historical analysis shows that when coal arrived, wood use did not decline. It grew. Coal mining required vast quantities of wood for pit props, rail ties, and infrastructure. When oil arrived, wood use did not decline. Chainsaws and trucks, powered by oil, made logging faster and cheaper, so more wood was cut. Energy sources have not replaced one another. They have accumulated, each new layer requiring the previous layers to function. We live not in a post-wood, post-coal world, but in a world that burns more wood, coal, and oil than at any point in history—simultaneously.
"The energies are completely intertwined and symbiotically linked. The history of energy is not a history of competition between sources. It is a history of more and more and more."
— Jean-Baptiste Fressoz, historian of science and technology
This matters enormously for how we think about the renewable energy transition. The story told by governments, corporations, and most climate advocates is essentially a substitution story: solar and wind will replace oil and gas, just as oil replaced coal. But Fressoz’s history says no such thing has ever happened. What is far more likely is that renewables will add to total energy consumption—requiring fossil fuels to build them, maintain them, and eventually replace them when they wear out. Solar panels do not last forever. Wind turbines require diesel-powered ships for offshore installation. Every component of the renewable system is manufactured, transported, and installed using the existing fossil fuel system. Renewables are, at present, an extension of the fossil fuel economy, not an alternative to it.
There are genuine critics of Fressoz who argue that this time is different—that we have political will, technological sophistication, and economic incentives that previous transitions lacked. Those arguments deserve serious engagement. But even the optimists acknowledge that the scale and speed required is without precedent. And Fressoz’s deeper point stands: we should not assume transition will happen just because we want it to. History offers no such reassurance.
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The Metal Wall
Simon Michaux is a mining engineer and geologist at the Geological Survey of Finland, and his research poses the most materially concrete challenge to transition optimism. His question is simple: do we have enough metals in the ground to build one full generation of renewable energy infrastructure—enough solar panels, wind turbines, electric vehicles, and battery storage to replace fossil fuels?
His answer: no. Not even close.
Michaux estimated that to replace the global fossil fuel system with one generation of renewable technology, we would need approximately 6.1 billion tonnes of copper—nearly nine times the total amount of copper mined in all of human history. Current measured copper reserves are roughly 880 million tonnes, less than fifteen percent of the amount needed. And that’s just copper. Lithium, cobalt, nickel, rare earth elements, and dozens of other metals face similar constraints. Michaux’s analysis suggests that at 2019 mining production rates, getting enough copper alone for one generation of alternatives would take on the order of hundreds of years. Even with dramatically accelerated mining, the timescales are measured in decades, not years.
It is worth noting that some analysts dispute Michaux’s precise figures, arguing that his methodology assumes static production rates and doesn’t account for battery chemistry improvements that reduce material requirements. This is a legitimate technical debate. But even the most optimistic critics acknowledge that mineral supply is a real constraint on the transition. The International Energy Agency’s own projections show demand for critical minerals increasing 500 percent by 2050. And here is the compounding problem: the richer, easier-to-access ore deposits were mined first. What remains requires more energy, more water, and more chemical processing to extract. As Jancovici notes, the concentration of copper in copper ore is declining over time. Mining it becomes progressively more energy-intensive. We are using more energy to get less metal.
"Both current mining production and current stated global mineral reserves cannot provide sufficient metal to manufacture only one generation of renewable technology units."
— Simon Michaux, Geological Survey of Finland
Michaux’s conclusion is not that we should despair, but that we should be honest about the scope of the task and design accordingly. He proposes what he calls a resource-based economy—one that asks first what materials and energy we actually have, and then designs economic systems and production models around those realities, rather than projecting existing consumption patterns forward and assuming technology will fill the gap. This is a radical reorientation. It means designing products to be easily repaired and recycled, prioritizing essential goods, building manufacturing at a regional scale, and abandoning the market logic that produces iPhones packed with seventeen rare earth elements that cannot be separated and cannot be recycled.
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We Are Plundering the Earth to Decarbonize
Olivia Lazard is a conflict researcher and environmental peacemaker who has worked in war zones across Africa, the Middle East, and Latin America. Her work on the geopolitics of the energy transition cuts to a truth that most green advocates prefer not to look at: decarbonization, as currently conceived, is not a departure from extraction. It is a new form of it.
The minerals needed for solar panels, EV batteries, and wind turbines—lithium, cobalt, nickel, copper, rare earths—are overwhelmingly concentrated in a handful of countries, many of them already fragile, conflict-affected, or ecologically sensitive. The Congo supplies approximately seventy-five percent of the world’s cobalt. The DRC is also one of the most conflict-riven nations on Earth. The cobalt mines of Kolwezi and Kamilombe sit in a region where artisanal miners—in many cases including children—work in conditions that researchers and legal advocates have described as modern-day slavery. The profits flow to Chinese processing companies, to Western technology firms, to shareholders in London and New York. The human cost stays in the Congo.
Lazard’s research shows that the overlap between the world’s critical mineral deposits and its most conflict-vulnerable, biodiversity-rich zones is not coincidental. It is a structural feature of the global economy. The places that held their wealth in underground minerals rather than in financial markets or political power are now being asked—forced—to sacrifice their land, their water, their bodies so that the wealthy world can feel good about buying an electric car.
"The green transition will require an unprecedented economic mobilization—one more materially intensive than before, putting massive demand on minerals from the world’s most fragile regions. Will we have to plunder the planet in order to save it?"
— Olivia Lazard, Carnegie Europe Fellow
Global Witness, analyzing data from 2024, found that critical mineral mines are tied to an average of 111 violent incidents and protests per year. In 2023 alone, the extractives sector was linked to at least twenty-five killings of land and environmental defenders. In communities across the DRC and Zimbabwe, people searching for scraps of mineral ore near industrial mines face conditions that regulators and researchers have documented as dangerous, poorly compensated, and structurally exploitative. These are not isolated failures of regulation. They are predictable outcomes of a global system that has decided the continuation of consumer civilization in wealthy countries is worth any cost, borne by others.
What makes this especially painful is that Lazard and others note that many nations with critical mineral deposits are now in a survival logic of their own—aware that whoever controls the metals for the new energy system will control geopolitical power in the next century. Metals have become the new oil. Countries are scrambling. The scramble produces conflict. The conflict produces suffering. And the people suffering are, overwhelmingly, those who contributed least to the problem.
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Diesel: The Invisible Bloodstream of Civilization
Balázs Matics, writing as The Honest Sorcerer, brings a perspective that few have articulated with such clarity: diesel fuel is not just a fuel. It is the metabolic system of industrial civilization. Trucks, agricultural machinery, mining equipment, cargo ships, construction machinery—all run on diesel. The food on your table got there on diesel. The steel in the building you’re sitting in was smelted using energy accessed through diesel logistics. The copper wire in your walls was mined by diesel-powered excavators.
Diesel is what makes industrial complexity possible. It has an extraordinary energy density. It produces enormous torque at low engine speeds, making it irreplaceable for heavy hauling. And only about thirty to thirty-three percent of crude oil distills into diesel. The rest becomes gasoline, jet fuel, and other products. This means that even if we electrified every passenger car on Earth tomorrow—an impossibility, as Michaux’s mineral constraints make clear—we would still need to refine the same amount of crude oil to get the diesel that agriculture and industry cannot live without. The framing of the energy transition as “electrify everything” misses this entirely.
Matics applies an analytical lens drawn from the study of empires: core and periphery. When empires contract, they contract from the edges. The periphery—regions that depend on the core for energy, manufactured goods, and financial stability—feels the breakdown first. Europe, Matics argues, is now in the position of periphery. It has no significant oil reserves, limited metals, and has become deeply dependent on imported energy and globally distributed supply chains. When those chains shorten or break, Europe is exposed. Germany’s industrial contraction, already underway, is a preview.
But the core—the United States, China—is not immune. It is simply later in the sequence. As conventional oil peaked around 2005, shale oil in the US extended the timeline but created its own dependencies: massive capital requirements, faster depletion rates, and a product mix (light shale oil) that is not ideal for producing diesel. The fracking boom bought time. The time is running out.
"Diesel is the lifeblood of civilization. Without it, transportation, agriculture, mining, and construction grind to a halt. We’ve known for decades that oil is finite. We still haven’t found an honest answer."
— Balázs Matics, The Honest Sorcerer
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Electrifying the Titanic
William Ophuls—writing under the pen name Patrick Ophuls—is a former US diplomat, ecologist, and scholar who has been warning about the limits of industrial civilization since 1977. His most recent book takes its title from a phrase he uses to describe our current predicament. He asks us to consider the automobile: probably the greatest mass squanderer of resources and human welfare in history, directly and indirectly. It has shaped our cities, our land use, our social isolation, our foreign policy, our wars, our atmosphere. And our response to the climate crisis is to—keep the automobile. Add a battery. Call it green.
He calls this “electrifying the Titanic.” You keep doing the same destructive thing. You just put a battery in it. And then it’s supposed to be okay. Because the problem isn’t the tailpipe. The problem is the system the automobile sits in—the sprawling suburbs that require a car to reach anything, the supply chains that wrap around the globe, the extractive logic that sees the Earth as a storehouse to be emptied, the growth economy that cannot stop because stopping means collapse.
"Instead of remodelling our societies and economies in accordance with ecological imperatives, they are trying to maintain business as usual by substituting solar energy for fossil fuels. Refitting the Titanic with batteries, even if it were possible at this late date, will not avoid ecological shipwreck."
— William Ophuls, Electrifying the Titanic
Dennis Meadows, co-author of the 1972 Limits to Growth study that first modeled these converging crises, and ecological economist William Rees, who developed the concept of the ecological footprint, have both said in recent years that they believe we have passed the point where collapse is avoidable. They are not giving up. They are being honest. And being honest is, paradoxically, the first step toward anything useful.
The convergence of the thinkers in this report points toward something that our culture is deeply resistant to acknowledging: the current level of industrial civilization is not sustainable, not because of a lack of will or technology, but because of physics and geology. The biophysical inheritance that powered the last two centuries—concentrated fossil fuels, high-grade metal ores, intact forests, full oceans, stable climate—is not being renewed. It is being spent. And the institutions we have built—markets, democracies, international finance—are structurally oriented toward spending it faster.
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What the System Makes Inevitable
This is not a report designed to produce despair. But it would be dishonest not to state what these thinkers—taken together, as a system—suggest is coming.
Jancovici projects that global oil production by 2050 will be roughly half of what it is today. GDP, tracking energy almost one to one, would face corresponding contraction unless something unprecedented happens. He notes that the European economy has already been contracting in material terms for some years, masked by financial instruments including quantitative easing—the creation of new money that gave the appearance of growth without the underlying biophysical reality. Jancovici says flatly that we may be heading toward a three-degree or more warming scenario, and that the media does the public a disservice by talking about future global averages. What matters is what happens locally—the Colorado River in ten years, the Amazon in twenty, the crops in your region this summer.
Matics’ core-periphery model suggests that contraction will not be even. The most energy-poor, import-dependent, debt-laden regions will experience it first and hardest. As multinational companies—built on cheap energy and stable supply chains—find both disappearing, they will contract or dissolve. The engineers and technicians they employed will find themselves with skills but no institutional home, and may redirect those skills toward local problems. Supply chains will shorten, not because of policy preference, but because long chains require cheap diesel.
Murphy’s physics tells us that the growth trajectory itself is the problem—that any civilization committed to perpetual energy growth will hit a physical ceiling, and the faster it grows, the harder it hits. The question is not whether the ceiling exists. The question is how we meet it.
Michaux is explicit: we do not have the metals for a like-for-like replacement of the fossil fuel system with renewables. We may have the metals for a smaller, differently designed energy system. But that smaller system requires us to honestly decide what we actually need: food, water, warmth, sanitation, basic medicine, communication, community. Everything else is negotiable.
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A Sensemaking Map
The System These Thinkers Are All Describing
Here is the underlying system, synthesized from across these disciplines:
THE ARCHITECTURE OF THE CURRENT CRISIS
• An economy built on exponential growth, requiring exponential energy and materials to function
• A monetary system where all money is debt, and all debt is a claim on future resources
• An energy system built on a one-time inheritance of concentrated fossil fuels (coal, oil, gas) that are now depleting
• A materials system built on high-grade metal ores that are now depleting, requiring more energy per unit to extract
• A political system (democratic and otherwise) that moves too slowly to respond to physical limits
• A transition narrative (renewables replacing fossil fuels) that history, physics, and geology suggest is not occurring at the required scale or speed
• A human cost externalised to the Global South, where communities bear the health and ecological burden of extraction that fuels consumption elsewhere
These elements do not exist in parallel. They are one system. The debt growth requires energy growth. The energy growth requires materials growth. The materials growth requires mining. The mining requires diesel. The diesel requires oil. The oil is declining. The debt—the claim on a future that cannot exist as promised—is increasing. The system is, in the language of ecology, in overshoot.
What This Does Not Mean
It does not mean that solar panels are worthless. They have real value at an appropriate scale. It does not mean that all technology is bad, or that modern medicine should be abandoned, or that we should romanticize pre-industrial poverty. It means that the scale and growth rate of industrial civilization cannot continue, and that designing a future worth living in requires honestly acknowledging this.
It does not mean hopelessness. Dennis Meadows himself has said that the question is not whether we will simplify, but whether we do so by design or by default. By design is better. By design requires seeing clearly.
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Design Principles for What Comes Next
1. Start from what is real
Michaux’s most fundamental invitation is to design from the available: what energy do we have, what metals do we have, what land and water do we have? Then build economic and social systems within those constraints, rather than projecting fantasies of abundance forward. This is the discipline of the bioregion—understanding what the land you live on can actually provide and sustain.
2. Prioritize the essential
There are things a society cannot function without: food, water, sanitation, shelter, warmth, basic healthcare, communication, and community. There are things it can live without: constant economic growth, SUVs, disposable fashion, planned obsolescence. The design principle is to protect the former with whatever materials and energy remain, and to gracefully release the latter.
3. Shorten and thicken supply chains
Long global supply chains are artifacts of cheap diesel. As diesel becomes more expensive and less available, they will shorten by force. Better to shorten them by design—building local manufacturing capacity, supporting regional farmers, maintaining repair skills, and valuing local knowledge. The engineer who knows how to fix a pump matters more in a contracting world than one who can optimize a global logistics algorithm.
4. Design for circularity and repairability
Michaux calls for products designed like tools rather than commodities—things made of materials that can be separated and reused, that can be repaired rather than replaced, that last rather than expire. This is the opposite of the disposability economy. It requires rethinking not just products but the economic incentives that produce them.
5. Tell the truth about the human cost
Any legitimate regenerative practice must refuse to externalize suffering. If the battery in your phone or car was mined in conditions that are dangerous, poorly compensated, and destructive to local ecosystems, that cost belongs in the accounting. Regeneration means bringing those costs inside—and being willing to accept a less ‘connected’ life rather than building it on invisible suffering.
6. Work from grief, not denial
This is where the psychotherapist’s lens becomes irreplaceable. The system described in this report will not be changed through optimism alone, nor navigated through denial. The losses are real: species, forests, stable climate, ocean abundance, and ways of life. Grief, honored and metabolized in community, is not a sign of weakness. It is a sign of contact with reality. And contact with reality is the beginning of genuine adaptation.
7. Build community infrastructure
Marvin Harris, the anthropologist, argued that the infrastructure of a society—its material production base—determines what is possible in its culture and governance. As the industrial infrastructure becomes less reliable and less available, the infrastructure of community becomes more important: the ability to make things together, to feed each other, to care for the sick and old, to settle disputes without courts that may not function. This is not primitive. It is resilient.
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Closing: The Task
There is a word Jancovici uses that keeps returning: sobriety. Not austerity imposed from above—which produces resentment and authoritarianism—but a chosen simplicity, organized around what matters and sustained by honest accounting. The question he says he cannot yet fully answer is: how do we become sober without the whole society collapsing?
That question is also a psychotherapist’s question. How does a person, a family, a community, a culture come to terms with the loss of a way of life—and find, in that loss, not only grief but also the possibility of something more honest, more grounded, more genuinely alive?
The thinkers in this report have done the hard intellectual work of mapping the territory. The work of navigating it—of living in communities that can see clearly and grieve honestly and design wisely—that is the work that regenerative practitioners, community organizers, farmers, educators, and healers are beginning to do. It may be the most important work of this century.
The communities bearing the cost of mineral extraction did not need a cleaner version of the same extraction. They needed a world that didn’t require their sacrifice to fuel someone else’s lifestyle. That is the measure by which we should evaluate every policy, every technology, every transition plan.
We are not on a trajectory that leads to that world without fundamental change. But fundamental change—when it is rooted in truth, held in community, and designed with care for what is actually available—is entirely possible. It begins with seeing the system clearly.
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Key Sources and Further Reading
Jean-Marc Jancovici: The Great Simplification Podcast, Ep. 84 (2023). Carbone 4 consultancy and The Shift Project (shiftproject.org).
Simon Michaux: Assessment of the Extra Capacity Required of Alternative Energy Electrical Power Systems to Completely Replace Fossil Fuels, Geological Survey of Finland (2021, 2022). The Great Simplification Podcast, Eps. 19, 49, 68.
Jean-Baptiste Fressoz: More and More and More: An All-Consuming History of Energy (HarperCollins, 2025). The Great Simplification Podcast, Ep. 162.
Balázs Matics (The Honest Sorcerer): thehonestsorcerer.substack.com. The Great Simplification Podcast, Ep. 209 (2026).
Thomas Murphy: Do the Math blog (dothemath.ucsd.edu). The Great Simplification Podcast, Ep. 18.
Josh Farley: The Great Simplification Podcast, Ep. 29. Ecological economics at the University of Vermont.
Olivia Lazard: TED Talk, “The Blind Spots of the Green Energy Transition” (2022). Carnegie Europe research on geopolitics and critical minerals. The Great Simplification Podcast, Ep. 58.
William (Patrick) Ophuls: Electrifying the Titanic: The Shipwreck of Industrial Civilisation (Bite-Sized Books, 2021).
Global Witness: Critical mineral mines tied to violent incidents report (2024). globalwitness.org.
Siddharth Kara: Cobalt Red: How the Blood of the Congo Powers Our Lives (St. Martin’s Press, 2023).
Dennis Meadows et al.: The Limits to Growth (1972) and updates. William Rees: work on ecological footprint and overshoot.