
- The Internet scaled through openness; AI scales through control.
- What was once a software problem has become a physics problem—governed by energy, compute, and material constraints.
- 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 + Allies | CHINA |
|---|---|
| Network Expansion | Vertical 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.
| Layer | Control Point | Dominance |
|---|---|---|
| Rare Earth Materials | Mining, refining, and export | 90% China-controlled |
| Lithography | Extreme ultraviolet (EUV) machines | ASML (Netherlands), under Western regulation |
| Chip Fabrication | Advanced node manufacturing | TSMC (Taiwan), geopolitical flashpoint |
| AI Models | Training & frontier capability | US 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
| Dimension | Internet Era (1995–2020) | AI Era (2022– ) |
|---|---|---|
| Core Asset | Code & data | Compute & energy |
| Scale Driver | Software economics (near-zero cost) | Physical infrastructure (high marginal cost) |
| Capital Source | Venture funding | Sovereign + hyperscaler CapEx |
| Speed of Scaling | Instant (cloud-enabled) | Slow (multi-year facility buildouts) |
| Primary Constraint | Attention | Energy + GPUs |
| Geopolitical Mode | Global cooperation | Strategic 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 Paradigm | AI Paradigm |
|---|---|
| Code = cheap, replicable | Compute = scarce, expensive |
| Growth = exponential | Growth = capacity-bound |
| Capital = private | Capital = strategic |
| Marginal cost = near zero | Marginal cost = per query |
| Network effects | Energy 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 Variable | Key Actor | Nature of Control |
|---|---|---|
| Compute Fabrication | Taiwan (TSMC) | Technological chokepoint |
| Energy Infrastructure | US, Gulf States, Nordics | Physical scalability |
| AI Model Capability | US Big Tech | Cognitive layer |
| Rare Earth Supply | China | Material leverage |
| Regulatory Influence | EU, OECD | Normative 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.









