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Chapter 4: Why Energy Over Alternatives

"It costs roughly one million dollars to raise a child to productive adulthood in the developed world. A humanoid robot costs $30,000. The marginal cost of another AI instance is zero. What happens to labor-backed value when capital can manufacture unlimited workers?"

Overview

If the current fiat system is problematic and we seek a backed currency, why energy? This chapter evaluates alternative backings—gold, labor, carbon, commodity baskets—and argues that energy is uniquely suited for the role.

The analysis centers on a critical contemporary challenge: the impending collapse of labor scarcity. For millennia, human labor was the scarce factor of production. When capital accumulated too much power, labor scarcity eventually rebalanced the system—through plague, war, emigration, or bargaining power. That mechanism is breaking down. Understanding why this matters reveals why labor-backed currency fails and why energy-backed currency makes sense.

Chapter Structure:

  1. Criteria for Good Backing — What properties should a currency backing have?
  2. Gold — The historical default and its failures
  3. Labor — The looming crisis of artificial scarcity collapse
  4. Carbon — Pricing negatives, not positives
  5. Commodity Baskets — Complexity and manipulation
  6. Energy — The irreducible substrate
  7. Synthesis — Why energy wins

4.1 Criteria for Good Backing

Before comparing alternatives, we need criteria. What makes a backing good?

Desirable Properties

  1. Intrinsic value: The backing should have genuine utility, not just scarcity
  2. Scalable supply: The backing should be able to grow with economic needs
  3. Stable value: Backing value should not fluctuate wildly
  4. Verifiable: The backing should be measurable and auditable
  5. Production-linked: Ideally, the backing correlates with productive capacity
  6. Resistant to manipulation: Hard for any single actor to corner the market
  7. Future-proof: Will the backing remain relevant as technology evolves?

The Future-Proof Problem

This last criterion—future-proofing—is crucial and often ignored. A backing that works in 2025 may not work in 2050. We must consider:

  • Technological change (AI, robotics, automation)
  • Energy transitions (fossil to renewable to fusion?)
  • Geopolitical shifts
  • Fundamental changes in production functions

With these criteria, let us evaluate the alternatives.


4.2 Gold: The Historical Default

Why Gold Was Chosen

Gold has been humanity's monetary metal for millennia. Its properties:

  • Scarce: Gold cannot be manufactured (without nuclear processes)
  • Durable: Does not corrode or decay
  • Divisible: Can be split into small units
  • Portable (relatively): High value per unit weight
  • Recognizable: Distinctive color, density, properties

Why Gold Failed

Despite these properties, gold-backed systems repeatedly failed:

Deflationary Pressure: Gold supply grows ~1.5% per year. Economies grow faster. Under gold backing, either: - Prices must fall (deflation) - Economic growth must slow to match gold supply - The peg must be abandoned

All three have occurred historically. The gold standard's collapse (1930s) demonstrated this fatal flaw.

Arbitrary Value: Gold's value is aesthetic and historical, not functional. You cannot do anything with gold that requires it specifically. It's a coordination equilibrium—valuable because others value it.

Geographically Concentrated: Gold deposits are unevenly distributed. Gold-backed systems advantage nations with mines while penalizing others.

Assessment

Criterion Gold Score
Intrinsic value Aesthetic only Poor
Scalable supply ~1.5%/year Poor
Stable value Relatively stable Good
Verifiable Yes Good
Production-linked No Poor
Manipulation-resistant Moderate Moderate
Future-proof Yes (but irrelevant) Neutral

Overall: Gold provides scarcity but not functionality. It fails the key criteria of scalability and production linkage.


4.3 Labor: The Looming Crisis

The Traditional Labor Theory of Value

Labor-backed currency has intellectual pedigree. Marx argued that labor is the source of all value. Even mainstream economics recognizes labor as a fundamental production factor.

A labor-backed currency might work like this: - Currency units represent hours of labor - Money creation tied to verified work performed - Value derives from labor's productive contribution

Why Labor-Backing Faces a Crisis

The premise of labor value is scarcity. Human labor was valuable because: 1. Humans were the only source of cognitive and manual work 2. Training humans takes 20+ years 3. Population growth is biologically constrained 4. When labor was scarce, workers had bargaining power

This premise is breaking down.

The Economics of Human Production

Consider the "production cost" of a productive human adult:

Cost Component Estimate (US context)
Childhood (food, shelter, care) $300,000
Education (K-12 + university) $400,000
Healthcare $150,000
Opportunity cost (parental time) $200,000
Total ~$1,000,000

This figure varies by country but the order of magnitude holds for developed economies. Raising a human to productive adulthood is extraordinarily expensive.

The Economics of Artificial Labor

Now consider alternatives emerging today:

Physical Labor (Robotics): - Humanoid robot: $30,000 - $100,000 - Industrial robot arm: $20,000 - \(50,000 - Training time: Hours to days - Lifespan: 10+ years continuous operation - Energy cost: ~\)1,000/year electricity

Cognitive Labor (AI): - Large language model deployment: \(10,000/year (cloud costs) - Marginal cost of additional "instance": ~\)0 - Training time: Minutes (fine-tuning) - Scales infinitely with compute

The Crossover Point

We are approaching a crossover where:

\[Cost_{robot} < Cost_{human}\]

Not just for specific tasks, but for general-purpose labor. When: - A $30,000 robot can do 80% of physical tasks - A $100/month AI subscription can do 80% of cognitive tasks - Both improve exponentially while human costs rise

What happens to the value of human labor?

Historical Precedent: How Labor Scarcity Rebalanced

Historically, when capital gained too much power over labor, scarcity eventually restored balance:

  • Black Death (1347-1351): Killed 30-60% of European population → Labor became scarce → Wages rose → Serfdom declined
  • Labor movements (19th-20th century): Collective bargaining created artificial scarcity → Wages rose → Middle class emerged
  • Post-WWII boom: Labor scarcity in developed world → Wages rose → Golden age of capitalism

The pattern: When labor is scarce, labor has power.

The Unprecedented Shift

For the first time in history, capital can manufacture labor at scale:

  1. No biological constraint: Robots don't require 20 years to mature
  2. No population limit: Robot production scales with factory capacity
  3. No training cost: AI copies instantly; robots learn from each other
  4. Declining marginal cost: Moore's Law for compute; learning curves for manufacturing

In 10-20 years, labor scarcity may effectively end. Capital will be able to produce unlimited workers at marginal cost.

Implications for Labor-Backed Currency

A labor-backed currency in this world would:

  1. Deflate catastrophically: As labor value collapses, currency value collapses
  2. Become meaningless: If labor is abundant, it cannot serve as scarce backing
  3. Exacerbate inequality: Those who own capital (robots, AI) would have all the "labor"

Labor-backed currency is not future-proof. It is a backing whose value is actively being destroyed by technological progress.


4.4 Carbon: Pricing Negatives

The Carbon-Backed Proposal

Some propose currency backed by carbon—either: - Carbon credits: Currency represents right to emit - Carbon removal: Currency represents verified removal

Why Carbon Fails

Carbon is a negative, not a positive.

We want less carbon, not more. A carbon-backed currency would either: - Incentivize emissions (if backed by emission rights) - Create an inherently shrinking monetary base (if backed by removal)

Neither supports economic function.

Measurement challenges: - Emissions are estimated, not precisely measured - Removal verification is contested - Gaming is rampant in carbon markets

No intrinsic value: Carbon itself has no utility. It's not an input to production—it's an output (waste product) that we want to minimize.

Assessment

Criterion Carbon Score
Intrinsic value Negative (waste) Poor
Scalable supply Shrinking (hopefully) Poor
Stable value Volatile Poor
Verifiable Difficult Poor
Production-linked Inverse Poor
Manipulation-resistant Highly gameable Poor
Future-proof Should go to zero Poor

Overall: Carbon is fundamentally unsuited for currency backing.


4.5 Commodity Baskets

The Proposal

Instead of single-commodity backing (gold), back currency with a basket: - Oil + gold + wheat + copper + ... - Diversification reduces individual commodity risk - Basket represents "real stuff"

Why Baskets Fail

Complexity: - Which commodities? What weights? - Who decides? (Governance problem) - How often to rebalance?

Manipulation: - Any commodity market can be cornered with sufficient capital - Multiple markets = multiple attack surfaces - OPEC, commodity traders, weather events all manipulate prices

Arbitrage instability: - If basket composition is known, traders can front-run rebalancing - Creates destabilizing dynamics

No single unit of account: - Basket value in "basket units" is not intuitive - Translation to everyday prices is complex

Historical Example: The Bancor Proposal

Keynes's bancor was essentially a commodity-basket idea. It failed at Bretton Woods not only due to US power but also due to inherent complexity.

Assessment

Criterion Basket Score
Intrinsic value Mixed Moderate
Scalable supply Depends on components Variable
Stable value Diversified but not stable Moderate
Verifiable Each component verifiable Moderate
Production-linked Weakly Moderate
Manipulation-resistant Multiple attack surfaces Poor
Future-proof Depends on components Variable

Overall: Baskets reduce but don't eliminate single-commodity risk while adding complexity and governance burden.


4.6 Energy: The Irreducible Substrate

Why Energy Is Different

Energy has properties that other backings lack:

1. Genuine Utility

Energy does work. It is not merely scarce or agreed-upon-as-valuable. Energy: - Powers machines - Heats and cools buildings - Transports goods and people - Computes information - Grows food

Every economic activity requires energy. This is not a social agreement—it is physics.

2. Scalable with Investment

Unlike gold (constrained by geology), energy supply can grow through investment: - Build more solar panels - Construct more nuclear plants - Develop fusion (eventually) - Improve efficiency

Energy production reflects genuine productive capacity development.

3. Future-Proof: The Automation Amplifier

Here is the critical point that distinguishes energy from labor:

As automation increases, energy demand increases.

  • More robots → more electricity demand
  • More AI → more data center energy
  • More automation → more energy consumption

Energy is not replaced by automation. Energy powers automation. In a world where: - Labor is abundant (robots) - Capital is abundant (3D printing, AI design)

Energy remains the constraint.

The Post-Labor Economy Needs Energy-Backed Money

Consider the world in 2050: - Physical labor: Robots (powered by energy) - Cognitive labor: AI (powered by energy) - Capital goods: 3D-printed, automated (powered by energy)

What is scarce in this world? What requires genuine investment to produce? What cannot be conjured from nothing?

Energy.

Energy-backed currency is uniquely suited to a post-labor economy because it backs money with the one thing that cannot be automated away.

Addressing Concerns

"But energy forms are heterogeneous"

True. A joule of solar is not identical to a joule of coal. Chapter [X] addresses the energy basket design—how to weight different forms.

"But energy production can be measured inaccurately"

True. Chapter [X] addresses verification mechanisms—satellite imagery, smart meters, multi-party auditing.

"But energy is geographically concentrated"

Less so than gold. Every country has some energy potential—solar, wind, hydro, nuclear. And the energy transition is diversifying production.

Assessment

Criterion Energy Score
Intrinsic value Does real work Excellent
Scalable supply Grows with investment Excellent
Stable value Relatively stable Good
Verifiable Physical, measurable Good
Production-linked Direct correlation Excellent
Manipulation-resistant Distributed production Good
Future-proof Automation amplifier Excellent

Overall: Energy meets all criteria better than alternatives, especially the crucial future-proofing requirement.


4.7 Synthesis: The Backing Comparison

Backing Intrinsic Value Scalability Future-Proof Overall
Gold Aesthetic Poor Neutral Poor
Labor Productive but collapsing Artificial Failing Poor
Carbon Negative (waste) Shrinking Should → 0 Very Poor
Basket Mixed Variable Variable Moderate
Energy Real work Investment-linked Amplified by automation Excellent

The Labor-Energy Transition

This comparison illuminates a historical transition:

  • 19th century: Labor was the scarce factor. Labor theory of value made sense.
  • 20th century: Capital accumulated. Labor organized for artificial scarcity.
  • 21st century: Capital can manufacture labor. Energy becomes the binding constraint.

A currency system designed for labor scarcity will not survive the robot age. A currency system based on energy will strengthen as automation expands.

The Investment Thesis

Energy-backed currency creates a powerful incentive structure:

  1. Want more money? Produce more energy.
  2. Want to produce more energy? Build infrastructure.
  3. Building infrastructure develops genuine productive capacity.
  4. More productive capacity = more economic output.

The backing aligns monetary incentives with real development, unlike fiat (political incentives) or gold (mining incentives).


4.8 Key Takeaways

  1. Good backing needs intrinsic value, scalability, and future-proofing.

  2. Gold fails scalability. Deflationary by design.

  3. Labor is losing its scarcity premium. Automation is manufacturing abundant labor. Labor-backed currency would collapse.

  4. Carbon is a negative externality, not a productive input. Unsuited for backing.

  5. Commodity baskets add complexity without solving fundamental problems.

  6. Energy is the irreducible substrate. It powers all production, including automated production. It is future-proof because automation amplifies energy demand.

  7. Energy-backed currency is suited for the post-labor economy in ways no other backing can match.


Further Reading

  • Smil, V. (2017). Energy and Civilization: A History
  • Brynjolfsson, E. & McAfee, A. (2014). The Second Machine Age
  • Susskind, D. (2020). A World Without Work
  • Ford, M. (2015). Rise of the Robots

Next: Chapter 5: Kardashev Alignment