- The Monetary-Energy Singularity
The article argues that the global economy is approaching an irreversible thermodynamic financial crisis between 2026 and 2030. The core claim is that there is a structural collision between rapidly expanding monetary claims and a physically constrained, declining quality energy system, especially oil. This is framed not as a normal commodity cycle but as a one time phase shift from industrial abundance to durable energy scarcity.
I. Fundamental miscalculation
Modern economics treats energy as just another factor of production that can be substituted by capital and technology. The author says this is a fatal error. Since the pandemic, US M2 money supply has risen to over 22 trillion dollars while global oil output stayed roughly flat. The ratio of oil price to money supply is at levels previously associated with large supply shocks, but this time the underlying problem is structural, not cyclical.
II. EROI death spiral
Energy Return on Investment has been declining for decades. Old conventional oil once had EROI near 100 to 1, newer conventional discoveries about 30 to 1, deepwater around 10 to 1, and marginal US shale near 5 to 1. Research suggests that complex industrial society needs around 10 to 1 to function smoothly. The author estimates US weighted EROI at about 8 to 9 to 1 and falling a few percent each year as the best shale zones are exhausted. Gross production can look flat while net usable energy for the rest of the economy shrinks.
III. Capital starvation
Upstream oil and gas investment has dropped sharply in real terms compared with the mid 2010s. Most current spending only offsets natural decline in existing fields, with little directed to growth. The article estimates a cumulative global investment shortfall of more than 700 billion dollars since 2015 for capacity that should have been coming online in the late 2020s. Offshore final investment decisions collapsed around 2020 to 2022, creating a supply hole in the 2025 to 2027 window that cannot be quickly fixed. Supply chains and fabrication yards have shifted toward LNG and renewables, so the specialized deepwater ecosystem has atrophied.
IV. AI energy paradox
The author argues that standard forecasts underestimate data center and AI related electricity demand. Training large models is a significant one time cost, but inference becomes continuous baseload. As AI integrates into search, enterprise software, devices, and industry, total load can grow nonlinearly through network effects. Conservative estimates point to hundreds of terawatt hours per year by 2030, while aggressive scenarios imply demand that could rival or exceed current US grid capacity. Because grids, nuclear plants, and large renewables have long lead times, near term gaps will be filled mainly by fossil power. Big tech firms and states will pay very high effective fuel prices rather than allow AI outages, creating a new, price insensitive category of demand.
V. Buffer depletion
Historical stabilizers in the oil system are weakened. The US Strategic Petroleum Reserve is at its lowest level since the 1980s after large emergency drawdowns. OPEC claims large spare capacity, but effective, quickly deployable capacity is likely much smaller and concentrated in a few Gulf states. At the same time, China has been aggressively filling its strategic and commercial storage, taking hundreds of thousands of barrels per day off the open market. This reduces available buffers and tightens physical conditions even while prices appear moderate.
VI. Geopolitical accelerant
Sanctions on Russian oil, constraints on the so called shadow fleet, and logistical limits mean that further disruptions cannot simply be rerouted and would represent true losses to global supply. The Strait of Hormuz remains a major chokepoint, with roughly a fifth of world oil flows passing through it. The current oil price reflects almost no risk premium for a closure, even temporary. The author believes any incident there would instantly push prices into the 130 to 150 dollar range and keep markets in crisis mode until either flows resume or deep demand destruction occurs.
VII. Coordination failure
Long cycle energy projects need clear, durable price and policy signals. Instead, companies and financiers see backwardated futures curves, aggressive energy transition rhetoric, and ESG constraints. Rational firms respond by returning cash to shareholders and avoiding long duration hydrocarbon projects that may become stranded. No one actor can justify fixing the collective problem alone. This is described as a classic market failure and Nash equilibrium where individually rational choices produce a socially disastrous underinvestment outcome.
VIII. Coming repricing
Because supply investments have long lags, the underinvestment of 2020 to 2022 shows up as hard physical tightness later regardless of price moves in between. Markets tend to ignore this until inventory levels and data force a recognition, at which point prices jump sharply rather than drift. The author compares the set up to 2007 to 2008 and notes signs like falling shale rig counts and layoffs in the service sector as evidence of imminent production slowdown. The claim is that once reality is recognized, oil will move very quickly from current ranges to much higher levels in a matter of weeks.
IX. Systemic consequences
Sustained oil prices above about 120 dollars would absorb a large share of GDP as energy cost in both developed and emerging economies. This functions like a tax with no productive benefit, pushing up costs in transport, manufacturing, fertilizers, petrochemicals, and some power markets, while cutting consumer discretionary spending. Monetary authorities face a no win choice between inflation, recession, or stagflation, since a supply shock is not easily fixed by interest rate changes. Fiscal tools like fuel subsidies or windfall taxes also risk deepening the imbalance by either blowing out budgets or discouraging investment. The article argues that the rational response would be massive coordinated investment in new supply plus strong demand management, but calls such coordination politically unlikely.
X. Paradigm conclusion
The author concludes that we are entering a phase transition from energy abundance to structural scarcity, governed by physical constraints rather than ideology or pure market forces. This shift will affect geopolitics, social stability, and wealth distribution. Institutions may or may not manage the transition without systemic breakdown, but current market pricing assumes a much smoother adjustment than physics and investment trends justify. The author believes the recognition window is roughly 12 to 24 months away and that those who understand thermodynamic limits will be far better positioned than those who assume financial engineering can substitute for physical energy.
https://open.substack.com/pub/shanakaanslemperera/p/the-monetary-energy-singularity-how