Iran Oil Endgame: USA Destroys Global THERMODYNAMIC Economy. | Warwick Powell

## Thermodynamics at the heart of geopolitics What looks like conventional geopolitics—military moves, sanctions, and diplomatic posturing—often masks a deeper struggle over the basic ability of societies to access and mobilize energy. The recent discussion with Warwick Powell reframes contemporary crises as symptoms of a thermodynamic crisis: modern states do not merely compete over territory or markets, they compete over energetic returns that underwrite everything from industrial production to the social contracts that hold cities and nations together. When the energetic foundations of wealth and order erode, political systems do not simply slow down; they destabilize, fragment, and—if unmanaged—implode. Seen this way, the unfolding tensions around Iran are not only about discrete acts of violence or contested sea lanes; they are theatres in which different socio-economic regimes respond to dwindling energetic surpluses and the distributional stresses those shortfalls create. ## The thermodynamic substrate and energy returns At the core of Powell’s argument is a simple but profound observation: human societies are metabolic systems. Civilization flourished when people found increasingly dense, storable forms of energy that deliver a high return on the energetic effort required to extract them. Fossil fuels—especially the oil and gas of West Asia—are historically exceptional in this regard. A single barrel of oil, in crude energetic terms, can substitute for years of human labor. That asymmetry transformed economies, supplying the surplus energy that made large-scale industrialization, complex supply chains, and urban life possible. This is not merely poetic language. Thinking in terms of energy return on energy invested (EROEI) grounds economic growth in a physical reality. When EROEI is high, societies can afford complexity: long supply chains, vast bureaucracies, and expensive infrastructure. As accessible, low-cost energy sources deplete or become politically contested, the energetic cost of maintaining those structures rises. What Powell calls “systemic entropy” accelerates because the surplus that once lubricated social reproduction diminishes. Systems then face two hard choices: they can invest in processes that increase energetic efficiency and build new, high-EROEI sources, or they can continue the old patterns by creating claims on future energy—promises that the substrate may not be able to honor. ## Value in use and value in exchange: two economies in tension A central analytical move in the conversation is the distinction between use-values (energy as material capacity) and exchange-values (the monetary and financial claims that mediate distribution). Use-value concerns the tangible ability to perform work: to move goods, to grow food, to power factories and data centers. Exchange-value is the social technology that coordinates trade and assigns claims on future use-values—money, credit, bonds, and financial instruments. These two systems operate on different tempos. Energy transformations and infrastructure upgrades are slow, physical processes; financial claims can be issued instantly. That asymmetry allows the financial system to create vast claims on future energy long before new energetic capacities are secured. Liquidity expansion—whether called debt, credit, or public spending—is a tool for maintaining circulation and for underwriting current consumption and investment. But it becomes dangerous when the growth of claims outpaces the ability of the material substrate to redeem them. The result is an expanding gap between promising and delivering, between the paper economy and the thermodynamic reality beneath it. Powell stresses that injecting liquidity is not intrinsically wrong. In a monetary production system, promissory instruments are necessary. The problem is distribution: if liquidity injections disproportionately concentrate claims in the hands of a narrow elite, the circulation mechanisms change and social resilience declines. In effect, you get more financial growth but less actual expansion of energetic capacity for the many. That mismatch is a vector for accelerated entropy: more claims chasing stagnating or shrinking energetic surpluses produces political and social strain. ## Liquidity management and the politics of entropy Reframing “debt” as a liquidity management tool changes how one evaluates fiscal and monetary policy. Instead of demonizing public borrowing per se, the thermoeconomic perspective asks whether liquidity is expanding the system’s energetic base or merely papering over a contraction in real capacity. If new liquidity funds investments that raise EROEI—new energy sources, better logistics, resilient infrastructure—then it can genuinely offset entropy. If liquidity merely serves to extract rents, preserve privileged consumption patterns, or finance speculative bubbles, it intensifies systemic fragility. This has political consequences. When the circulation of surplus energy is increasingly captured by a smaller set of actors, social cohesion frays. People who lose access to surplus energy—not just money but the capacity to heat homes, commute affordably, and afford nutritious food—respond in predictable ways: political polarization, populist movements, social unrest, and declining institutional trust. In Powell’s synthesis, these are not secondary effects; they are emergent properties of a thermodynamic imbalance. Western indicators like homelessness or fragmented political institutions are symptomatic of a broader decline in energetic efficiency and distributional equity. ## Information: an energetic agent, not a free good One of the conversation’s most original contributions is to place information within the thermodynamic account. Information infrastructure—data centers, sensors, AI systems—is often treated in mainstream thought as a negentropic force: more information leads to better coordination, efficiency, and prediction. Powell pushes back. Information production, storage, and transmission consume energy. Moreover, not all information reduces uncertainty productively. Noise, disinformation, and redundant data are entropic: they consume energy without yielding corresponding use-value benefits. This insight reframes contemporary concerns about big tech, AI, and data infrastructure as thermodynamic dilemmas. When information systems require ever more energy to produce marginal gains—or worse, generate misleading narratives that distort decision-making—they become an informational Ouroboros, consuming resources in ways that feed back negatively on the system’s ability to manage its energetic constraints. A polity that mistakes informational abundance for useful knowledge risks creating feedback loops that magnify misallocation, accelerate entropy, and undermine adaptive responses to material shortages. ## Iran, sanctions, and the global thermodynamic balance Viewed through this lens, strategic confrontations—like the current standoff involving Iran—are as much about securing energetic pathways as about deterrence. Gulf oil and gas have historically supplied a global metabolism of low-cost energy that supports long supply chains and abundant exchange-value claims. Interruptions or threats to those flows do not only raise prices at the pump; they alter the balance between the paper economy and the material substrate that underwrites it. Powell’s framing implies that the United States’ geopolitical posture—using military power, sanctions, and attempts to control energy chokepoints—can be read as efforts to maintain privileged access to energetic surplus. But that strategy faces diminishing returns when the broader system’s energetic efficiency is declining. Military control of energy routes may offer tactical leverage, yet it cannot recreate the high-EROEI conditions that once sustained exponential growth. Moreover, interventions that further fragment markets or drive states to di

Iran Oil Endgame: USA Destroys THERMODYNAMIC Economy | Powell The Iran War is not about what you see. But about what you can't consume. Join me for a talk with professor Warwick Powell on his newest book about the Thermodynamic economy. Warwick's book: https://www.amazon.co.jp/-/en/Dr-Warwick-Powell/dp/9699293209 Support us on substack: https://pascallottaz.substack.com Shop and Donations: https://neutralitystudies-shop.fourthwall.com #Pascal Welcome back, everybody, to Neutrality Studies. My name is Pascal Lottaz, and I am joined today again by my friend and colleague Dr. Warwick Powell. Warwick, welcome back. Great to be with you, Pascal. Warwick, you wrote a wonderful new book—let me try to show it here. It’s called *Thermodynamics in a Time of Monsters: Rethinking Theory, China, and International Geopolitical Economy.* This is what we want to talk about. And actually, your approach has a lot to do with what’ s going on today with Iran. So, first of all, congratulations on your new book. And second, can you tell us a little bit about why this idea of thermoeconomics is so relevant right now for understanding the conflict that’s unfolding in front of our eyes? #Warwick Powell Well, basically, the argument is that human societies and socio-economic systems are grounded in our ability, as human beings, to harness the thermodynamic potential of the world to overcome the entropy that is intrinsic to the dynamics of thermodynamics, and to continually engage in processes of energetic renewal. That’s how we generate the surpluses we need to sustain the complex systems we’ve developed. So that’s the underlying theoretical tone, I guess. The way it dovetails into the situation that’s tragically unfolding in West Asia is that, in many ways, we can approach this conflict as an expression of the contradictions at the heart of different regimes of thermoeconomic accumulation. So, for the better part of a hundred-odd years, and particularly since the 1960s, the global economic landscape, buttressed by American military power, has been tied very much to the ongoing development and availability of low–energetic-cost energy sources—particularly oil and gas from West Asia. The way in which the economic system, the economic metabolism, can power ahead is by accessing what I call high energetic return on energetic investment possibilities. And what West Asia—the Gulf states—offered was precisely that, at a global scale. #Pascal -- 1 of 16 -- Sorry, what you mean is, you get a lot of energy for pretty cheap exploitation, right? #Warwick Powell Pretty cheap effort, right? So just think of it as effort—you put in a certain amount of effort to get access to a bunch of stored future possibility. One barrel of oil does the work of so many humans for five years, for example, measured in pure energetic terms. That’s how powerful an energetic resource this particular part of the world has been, and why it’s been so central to late-stage industrialization. And now we’re witnessing the manifestations of all sorts of schisms emerging within the fundamental substrates of how, particularly, the leading economies have in many ways sat on their hands—not necessarily by choice. I’m talking especially about the United States, which has, in many ways, institutionally and politically, lost sight of the need for energetic renewal and become trapped in a process of entropy. It's becoming less cohesive. It's fragmenting. And that's a symptom of a progressive—though at first hard to see—reduction in the overall energetic efficiency of the system at large. So as systems, in a sense, torture themselves to deal with the fact that they’ve got fewer energetic surpluses to do all the things civilizations try to do, they begin to lash out because there are distributive consequences. There’s simply less surplus energy to go around, and different societies and institutions deal with these symptoms in different ways. In the United States, some of the ways we’ve seen these problems manifest are in homelessness and similar issues, right? But these are worldwide problems. They have to do with the constraints, if you will, that nature continues to impose on us. We’ve had a great run for a couple of hundred years, but it’s actually ending for a lot of places around the world. The foundations of that run are now becoming less energetically efficient to access. #Pascal This is a very interesting way of framing a couple of the problems we’ve been talking about on this channel for quite a while. I mean, the concept you’re using here—thermoeconomics in a time of monsters—and we’ll get to the “monsters” part in a second. But basically, what you’re saying is that the United States is tumbling toward societal heat death through this entropy, because it’s not growing—not as an economy, but as a productive, output-driven society. And that, in turn, affects how energy is being used. And just one more point—I find this very fascinating. Of course, we have to somehow measure energy, and energy is a very abstract concept, even though we’re used to it. You know, at the beginning of the Industrial Revolution, combustion engines started to be measured in horsepower— how much horsepower does this output give us? I think that’s very important to this discussion -- 2 of 16 -- about the energy density of certain materials. These hydrocarbons from West Asia changed the energy equilibrium. Can you talk about that a little bit—maybe again—about how you think this war and the cutting of trade relations impact the entire global system of distribution? #Warwick Powell So I guess the way I try to think about the system at large is to view it as an integrated whole. And that integrated whole is anchored in our understanding of the natural, material world. The natural, material world—our planet—is an energetic world. There’s a certain amount of energy available, and it transforms, takes new forms over time, and is continually in motion. If that’s the sort of envelope— the energetic envelope—then what we seek to do as humans is harness the energies available to us, mobilize them, store them, and use them to produce things that societies find useful and necessary. So what I try to do is distinguish between two ways of conceptualizing this question of economic value, because these are economic systems. And use-values are the ways I think we can approach this question of energy. Of course, we can measure energy in terms of joules, kilowatts, horsepower, and those sorts of things. But in a slightly more abstract sense, I try to think of energy really as value in motion. And value in motion transforms through productive engagements with it by humans. We do this in a few different important ways—and they’re fundamental ways, ontologically necessary ways. They go to the fact that all human societies need food for people and fuel for machines, right? Now, we didn’t need so much fuel for machines before we had lots of machines, but we certainly needed fuel for horses and oxen and those sorts of things, right? And we, as humans—as biological, material beings, bundles of energy—are vectors of energy. We also transform energy through the ways we consume it—through nutrition—and then use that nutrition to exert ourselves in different ways, whether it’s mental exertion, the work we do mentally or physically. Through that, we continue the cycle, if you will, of energetic transformation. Now, the more successful human societies have become at finding lower-cost ways of harnessing energy that can be stored, reused, and used down the track, the more high-density energy has enabled the flourishing of complex human civilizations. Right. But all of that superstructure is premised on the idea that we can continue to access high energy–return-on–energy-investment sources and have processes that are also energetically efficient. Otherwise, the surplus energy and potential that we’re trying to capture, harness, store, and keep available to us progressively diminishes. Now, for a long time, much of that loss of energetic efficiency isn’t experienced or visible to us, right? Because these are usually slow-burn systems, if you will. The way we tend to deal with all of this is through the second component of the system, which is the pricing system—or what I call the system of exchange value. So we have use-values, the thermodynamic substrate of material existence on Earth, together with the fact that this circulation system requires ways of mobilizing these resources and of circulating and exchanging them among units within the economic system that are not internally self-sufficient. -- 3 of 16 -- We have divisions of labor, and so we have an exchange-value system that requires the injection of liquidity into the system—promises, right? The first and most generic form of liquidity is what we call money. And money is a claim on the future. Not only is it a unit of account, it’s also a right to make a claim on a future use value—some other energetic form in the future. I can buy something, I can eat it, I can buy fuel and put it in a machine, I can buy machines. Or it enables you to make claims on other kinds of claims. I can either exchange it for some other currency, or I can exchange it for conditional claims—shares, options, bonds. These are all conditional exchange-value claims. None of these things actually drive the thermodynamic system in and of itself; they are mobilizers of the resources necessary. #Pascal Hey, very brief intermission because I was recently banned from YouTube, and although I'm back, this could happen again at any time. So please consider subscribing not only here but also to my mailing list on Substack. That’s pascallottaz.substack.com—the link’s in the description below. And now, back to the video. Yeah, this is where it’s so important, this distinction you made between value in use and value in exchange. They’re fundamentally different, but of course linked to each other. #Warwick Powell They're linked, but not in a determinative way at every moment. In fact, the systems we've created over time see these two worlds diverge regularly. We inject liquidity into the system to grease the wheels. That liquidity expands, but the substrate—the speed at which we can harness energy, transform it, and all those things—has a different rhythm. It has its own cadence and temporality. It's a lot slower. We can create claims against the future instantly, either by way of government financing, credit from commercial banks, or private agreements between parties—you know, IOUs. Debt instruments, yeah—any kind of debt instrument, including banknotes. These are promissory notes of one sort or another, and we can create those instantly. The issue is whether the substrate— the material substrate—is able to redeem those claims when they come due. Now, when the material substrate can’t do that, what does the system actually do? Well, fortunately, humans are relatively creative, right? So the first thing we do is refinance—we kick the can down the road. We create new instruments, like, “Oh, we’ll just push that one further away.” That’s one thing. The second thing the system is actually doing all the time is withdrawing liquidity. So it's injecting liquidity and withdrawing liquidity at the same time. But the system must have net liquidity growth for GDP to actually expand—it can’t expand otherwise. And you can’t have profit without liquidity expansion either, because what is today’s profit, Pascal, is actually yesterday’s new liquidity -- 4 of 16 -- injection. If there was no new liquidity, then the system simply repeats itself, and the balances of income and expenditure always balance out to zero. You only get financial profits if there’s a net injection of liquidity into the system. #Pascal Yeah, I like that you put it this way, because there are a lot of commentators online who’ll tell you the biggest sin of a government is taking on more and more debt. But you’re actual