The AI Era: A Different Beast Entirely

  1. The Internet scaled through openness; AI scales through control.
  2. What was once a software problem has become a physics problem—governed by energy, compute, and material constraints.
  3. The AI stack is geopolitically entangled: each layer is a chokepoint in great-power competition.

Geopolitical Transformation: From Cooperation to Competition

The Internet thrived in an era of US-led globalization.
The AI era begins under strategic bifurcation—a shift from shared innovation to nationalized competition.

USA + AlliesCHINA
Network ExpansionVertical Integration
• Build global alliances• Pursue self-sufficiency
• Control chokepoints (chips, software, IP)• National champions under state control
• Export restrictions on advanced compute• Closed ecosystem and domestic supply chain
• Dual-use framing: civilian + defense tech• Military-civil fusion in AI infrastructure

The Internet’s open web became the AI era’s divided map.


The Interdependence Paradox: Critical Control Points

AI depends on a fragile global supply chain that links physical materials, precision engineering, and digital models.
Each layer introduces a potential chokepoint—and therefore a lever of geopolitical power.

LayerControl PointDominance
Rare Earth MaterialsMining, refining, and export90% China-controlled
LithographyExtreme ultraviolet (EUV) machinesASML (Netherlands), under Western regulation
Chip FabricationAdvanced node manufacturingTSMC (Taiwan), geopolitical flashpoint
AI ModelsTraining & frontier capabilityUS firms (OpenAI, Anthropic, Google)

Each step is interdependent—but governed by opposing political blocs.

This creates the interdependence paradox: nations must collaborate across a supply chain they simultaneously seek to control.


The Physics of AI: Why This Isn’t Software

AI breaks from the Internet model in one fundamental way:
scaling is no longer virtual—it’s physical.

1. Energy

  • 1–5 GW per hyperscale AI facility
  • Dependent on nuclear, gas, or solar grids
  • Permitting and grid expansion take years
  • Geographic concentration around power hubs

💰 Cost: Billions
Time: Multi-year infrastructure cycles


2. Data Centers

  • Specialized cooling and compute environments
  • Water-intensive (up to millions of liters/day)
  • Only ~3–5% of existing data centers are AI-ready
  • Multi-year retrofits and greenfield builds required

💰 Cost: Billions
🌍 Constraint: Geography + sustainability


3. GPUs

  • H100/H200/B200 scarcity; TSMC production bottleneck
  • NVIDIA dominates; supply chain politicized
  • Years required to scale fabrication
  • Geopolitical controls restrict exports

⚙️ Constraint: Physical scarcity + political control


4. Model Training

  • $100M–$1B per foundation model
  • Months of compute time
  • Thousands of GPUs operating simultaneously
  • Requires elite research teams and energy coordination

🎓 Barrier: Not VC-scale — sovereign or corporate capital only


Structural Comparison: Internet vs. AI

DimensionInternet Era (1995–2020)AI Era (2022– )
Core AssetCode & dataCompute & energy
Scale DriverSoftware economics (near-zero cost)Physical infrastructure (high marginal cost)
Capital SourceVenture fundingSovereign + hyperscaler CapEx
Speed of ScalingInstant (cloud-enabled)Slow (multi-year facility buildouts)
Primary ConstraintAttentionEnergy + GPUs
Geopolitical ModeGlobal cooperationStrategic competition

The Internet scaled horizontally; AI scales vertically.


Economic Reversal: From Infinite Scalability to Finite Physics

The Internet’s economics were defined by abundance — once built, marginal cost per user approached zero.
AI’s economics are defined by scarcity — every inference consumes real power, chips, and cooling.

Internet ParadigmAI Paradigm
Code = cheap, replicableCompute = scarce, expensive
Growth = exponentialGrowth = capacity-bound
Capital = privateCapital = strategic
Marginal cost = near zeroMarginal cost = per query
Network effectsEnergy constraints

AI reintroduces hard economics into the digital age — turning infrastructure into the primary competitive advantage.


The Strategic Implication: Industrialization of Intelligence

The AI revolution is not a continuation of the software era — it’s the industrialization of computation.
Where the Internet abstracted physical limits, AI reimposes them.

To scale AI, you must:

  • Secure raw materials (rare earths, power)
  • Build compute infrastructure (data centers, chips)
  • Coordinate capital at national scale
  • Manage regulatory and geopolitical risk

In short: software startups wrote code; AI startups must build empires.


The New Reality: Sovereign Compute Economies

AI infrastructure now defines national competitiveness.
Power, not protocol, dictates who leads.

Strategic VariableKey ActorNature of Control
Compute FabricationTaiwan (TSMC)Technological chokepoint
Energy InfrastructureUS, Gulf States, NordicsPhysical scalability
AI Model CapabilityUS Big TechCognitive layer
Rare Earth SupplyChinaMaterial leverage
Regulatory InfluenceEU, OECDNormative control

The global AI order will likely be multi-speed:

  • US-led compute hegemony
  • China-led vertical integration
  • EU-led regulatory standardization

Together, they define the architecture of the next decade.


Conclusion

AI doesn’t inherit the Internet’s DNA — it mutates it.
Where the Internet was open, AI is strategic; where code was abundant, compute is scarce.
Power has shifted from protocol designers to infrastructure sovereigns.

The AI economy will not run on venture capital
it will run on energy, silicon, and state alignment.

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