Semiconductors are no longer just the backbone of the technology sector — they’re the backbone of global stability. Every major innovation wave today, from generative AI to quantum research, from electric vehicles to modern defense systems, depends on consistent access to advanced silicon. Yet the world’s manufacturing base for that silicon remains dangerously concentrated. More than 90% of leading-edge logic devices come from Taiwan, and the global economy now relies on this single geographic point in a way that is historically unprecedented.

That imbalance wasn’t an urgent issue when demand scaled predictably and geopolitics stayed relatively calm. But that is not the world we’re operating in today. AI has rewritten the rules. Training clusters that once required hundreds of accelerators now require tens of thousands. Inference traffic is exploding as enterprises operationalize AI workloads. And every credible projection signals that semiconductor demand will double, or even triple, by decade’s end.

The current model wasn’t designed for this level of strain. If we accept the premise that AI adoption will continue at pace, then the geography of semiconductor manufacturing becomes a first-order strategic concern. The question the industry must now answer is direct: Where should the world’s semiconductor manufacturing reside if we want innovation, economics, and national security to remain intact?

AI Has Blown Up the Old Economics

For decades, the semiconductor ecosystem could optimize around cost efficiency. Moore’s Law advanced steadily, design complexity followed predictable curves, and East Asia became the logical clustering point for high-volume manufacturing. Taiwan and South Korea built scale, and global designers took advantage of it.

That equilibrium no longer holds. AI-driven demand has broken linear models. The performance and memory bandwidth required for modern AI workloads necessitate that fabs operate at the highest possible process nodes, and those nodes are the ones most heavily concentrated in Taiwan. The fragility is obvious: a single geopolitical event, a miscalculation in the Taiwan Strait, or even a natural disruption could create a catastrophic global supply shock on multiple levels.

Put simply, the world cannot meet AI’s trajectory with a manufacturing footprint built for yesterday’s risk profile. Geography now matters as much as process technology.

Designing the End-State: Sovereignty, Efficiency, and Stability

Any credible “ideal state” for semiconductor manufacturing must reconcile three forces. (1) Nations want more technological sovereignty. (2) The industry still requires the economic efficiency that comes from scale. (3) The entire global system needs greater geopolitical resilience.

But here’s the challenge: A strategy focused solely on domestic sovereignty becomes economically unsustainable. A strategy focused exclusively on efficiency leaves the world exposed to chokepoint risk. And a strategy built purely on stable geographies will fail to support the pace of leading-edge innovation.

The realistic end-state sits between these extremes: a distributed but strategically anchored manufacturing model, where multiple regions hold meaningful advanced-node capacity and no single country, or single island, determines the fate of global innovation.

Why Full U.S. Onshoring Isn’t the Answer

At first glance, bringing all leading-edge semiconductor manufacturing back to U.S. soil looks like the safest option. After all, America already dominates chip design IP. It also leads in EDA software, systems architecture, cloud infrastructure, and AI frameworks. In theory, an end-to-end domestic semiconductor supply chain would maximize U.S. national security and ensure supply continuity.

But theory doesn’t survive contact with manufacturing economics. A leading-edge fab costs $20 to $30 billion to stand up. It also requires enormous quantities of power and water, deep supplier ecosystems, and a high-skill workforce. Even with CHIPS Act incentives, the United States cannot, and should not, attempt to replicate global capacity within its borders.

Additionally, the supply chain for semiconductors is inherently global. ASML in the Netherlands provides EUV lithography tools. Critical materials come from Japan, South Korea, and Germany. Packaging expertise remains concentrated in Asia. The industry’s strength has always been its distributed specialization.

Full onshoring may sound reassuring, but it is not economically viable. And candidly, it’s not strategically necessary.

The Durable Model: Distributed Manufacturing with Strong U.S. Anchors

A far more resilient configuration is a manufacturing ecosystem that is intentionally global but no longer dangerously concentrated. In this model, the United States hosts a significant share of leading-edge capacity — not monopolizing it, but holding enough of it to ensure continuity for AI, cloud, and defense needs. Taiwan remains essential but is no longer the single point of failure. Japan and South Korea expand their roles as stable, technologically sophisticated partners. Europe provides advanced equipment, R&D leadership, and incremental production. And advanced packaging, which has become even more important in this chiplet-driven AI era, is near-shored so that critical assembly isn’t stranded offshore.

In this configuration, innovation accelerates, supply-chain risk declines, and no single country controls the world’s technological lifeline. This world preserves cost efficiency while reducing systemic vulnerability. And it creates a semiconductor ecosystem capable of absorbing the growth curve AI is generating. But achieving this balance requires a missing piece the U.S. has not had in more than a decade: a domestic foundry that can operate at the leading edge.

The Intel Factor: A Strategic Pillar for a Resilient Future

No matter how one models the next decade of advanced-node manufacturing, the United States needs at least one domestic chip manufacturing champion capable of competing with TSMC and Samsung. And Intel is the only company in a position to fill that role.

Intel is the only U.S.-based manufacturer that designs and fabricates advanced processors domestically. Its fabs in Arizona and Oregon are among the most sophisticated in the world. And its process technology roadmap — RibbonFET gate-all-around transistors, PowerVia backside power delivery, and Foveros 3-D packaging technology — represents not just a recovery but a leap in transistor innovation.

These advances matter because AI workloads are now bounded by physics more than architecture. Power delivery, routing efficiency, transistor density, and packaging bandwidth increasingly determine performance ceilings. Intel’s leadership in these areas directly shapes the future of AI compute.

Equally important is Intel’s foundry strategy. Opening Intel’s advanced fabs to third-party designers gives the U.S something it hasn’t had in a decade: a sovereign, high-end alternative to relying exclusively on a single offshore manufacturer. The industry does not need Intel to replace TSMC. It needs Intel to uphold competitive balance and supply-chain resilience.

The outcome of Intel’s efforts will determine whether the U.S. regains a critical strategic pillar in semiconductors, or if the industry continues to heavily rely upon a single geographic region for leading-edge chip production

Taiwan’s Centrality – and Its Limits

To envision a semiconductor landscape without Taiwan as a central and important contributor is shortsighted. Taiwan is and will remain core to the global semiconductor ecosystem for the foreseeable future. TSMC’s operational discipline, yield performance, and ecosystem depth are unmatched. It has earned its position.

But Taiwan’s security environment introduces unavoidable risk. Numerous independent assessments from CSIS, RAND, and Brookings converge on the same conclusion: any disruption — whether political pressure, blockade, cyberattack, or military conflict — would send shockwaves through the global economy. The world cannot afford for advanced-node semiconductor manufacturing to live behind a single geopolitical firewall.

The solution is not to diminish Taiwan’s role. Instead, the goal is to build parallel capacity so that the global system no longer hinges on a single geography.

A Distributed Future Built on Strategic Pillars

The takeaway is unambiguous: manufacturing geography is now part of the competitive equation. Yet the semiconductor industry is not moving toward either full reshoring or unchecked globalization. It is moving toward a distributed, resilient model in which multiple regions share responsibility for advanced-node production. That is the only configuration that can support AI’s explosive growth while accounting for geopolitical risk.

And in that world, Intel is not just another participant. It is a necessary pillar. Its design heritage, manufacturing footprint, and renewed process leadership give the United States, and by extension, the global economy, a vital anchor in an increasingly interdependent system.

The future of semiconductors will be defined by geography as much as physics. A distributed system with strong anchors is the only path that keeps innovation on track and risk in check. Intel’s role in that system is not guaranteed, but it is indispensable.

Related MI&S Coverage

• BROADCAST ANALYSIS: Patrick Moorhead Discusses Intel’s New Cutting-Edge Fab on CNBC, December 19, 2025
• ANALYST INSIGHT: Why Intel’s Onshore Chip Production Is So Important for U.S. Industrial Policy — Patrick Moorhead — December 1, 2025
• RESEARCH BRIEF: The Importance of Onshore Semiconductor Innovation — Matt Kimball — October 31, 2025
• ANALYST INSIGHT: Why Intel Foundry Matters More Than You Think — Anshel Sag — October 31, 2025
• RESEARCH NOTE: Intel’s Panther Lake — A Crucial Moment in Intel’s Product and Foundry Turnaround — Anshel Sag — October 14, 2025