Every Converging Technology Shares the Same Vulnerability. Hormuz Just Proved It.

The Iran war shut one strait. Energy, semiconductors, food systems, and AI supply chains broke simultaneously. That’s not a coincidence — it’s a design flaw. And it tells you where the next decade of strategic value actually sits.

Est. read time: 9 min

Thirty-five days into the Iran war, here’s what one chokepoint has done.

Brent crude past $109. Goldman and Wood Mackenzie forecasting $150 by early summer. Fuel prices across import-dependent economies up as much as 81%. Airlines that projected record profits are bleeding cash as jet fuel doubles. India in what analysts are calling an acute crisis. Japan and South Korea sitting on weeks of LNG reserves, not months. Fertiliser trade disrupted across three continents. Filling stations from Nairobi to New Delhi running dry.

That’s the headline story. The one underneath it is worse.

Iranian missile strikes on Qatar’s Ras Laffan Industrial City knocked out roughly 30% of global semiconductor-grade helium supply in days. Repairs will take up to five years — not a funding problem, a global turbine shortage. Samsung and SK Hynix have lost over $200 billion in combined market value since the war started. South Korea’s industry ministry has flagged dependence on the Middle East for at least 14 semiconductor inputs beyond helium. Israel and Jordan — two-thirds of global bromine production between them — have seen exports disrupted, which hits the photoresist chemistry that AI chip fabrication runs on.

One strait. And energy, semiconductors, food, and AI supply chains all broke at the same time.

That simultaneity is the point. These systems weren’t supposed to be connected. Energy policy sits in one ministry. Mineral strategy in another. Digital infrastructure in a third. Semiconductor supply chains are managed by procurement teams that have never thought about helium sourcing from Qatar. And yet they all failed together, because underneath the surface they all depend on the same physical inputs, routed through the same chokepoints, controlled by the same small set of actors.

What the Innovation Thesis Misses

There’s a thesis gaining mainstream traction — Cathie Wood at ARK has been the most visible champion — that we’re living through a convergence of transformative technologies. AI, robotics, energy storage, genomics, autonomous systems. Each accelerates the others. AI makes genomics computable. Robotics makes manufacturing autonomous. Energy storage makes renewables dispatchable. The convergence creates exponential value.

I think that’s right. But it’s half the picture.

What I don’t hear anyone talking about is what sits underneath all of it. Every AI model needs chips fabricated with helium and rare earths. Every robot needs cobalt, lithium, and copper. Every genomics lab needs reliable power. Every battery system needs nickel, manganese, and graphite. Every autonomous vehicle needs all of the above.

The technologies are converging upward. The physical inputs they depend on are concentrating downward — into fewer geographies, fewer supply routes, fewer hands.

The Hormuz crisis made this visible in a way you can’t ignore. But the vulnerability was there before the first strike. The world built a multi-trillion-dollar innovation economy on top of a physical supply layer it never thought about as a system.

Where the Dependencies Actually Sit

Here’s what the current crisis clarifies. The chokepoint problem isn’t only about shipping lanes. It’s about where the physical inputs of the convergence are located — and who has access to them.

Africa holds roughly 30% of the world’s critical mineral reserves. The DRC alone produces 70% of global cobalt. Zambia and the DRC together are building out a copper-cobalt corridor. Zimbabwe banned raw lithium exports outright, which forced China’s Huayou Cobalt to invest $400 million in domestic processing. At least 13 African countries have enacted similar export restrictions since 2023.

The continent also holds the world’s largest untapped renewable energy potential. The UN climate chief said it plainly in the wake of Hormuz: “Sunlight doesn’t depend on narrow and vulnerable shipping straits.”

And the numbers are moving. Renewables now account for 49.4% of global installed energy capacity. 85.6% of all new capacity added in 2025 was renewable. Every week the Hormuz blockade continues, the transition away from fossil fuel dependency accelerates — and demand for the minerals that power that transition intensifies.

So the convergence of technologies is creating a convergence of demand for physical inputs. And those inputs have a geography.

But the geographies holding these assets — across Africa, Latin America, Southeast Asia, Central Asia — are still managing them in silos. Minerals in one policy stream. Energy in another. Digital infrastructure in a third. No integrated strategy connecting the assets that the entire global innovation economy now runs on.

The result is playing out in real time. A continent that exports 68% of its crude unrefined, then imports 61% of the refined fuel its people actually use. A semiconductor industry that routed 30% of its helium through a single Qatari facility in a conflict zone. An innovation economy worth trillions with no redundancy in its physical supply chain.

These silos aren’t just inefficient. They’re structurally dangerous.

What an Integrated System Actually Looks Like

The $200 billion wipeout at Samsung and SK Hynix isn’t a market correction. It’s the cost of not thinking in systems.

Take a concrete example. A critical minerals processing hub in the DRC or Zambia, powered by integrated renewable energy, with AI-driven supply chain intelligence providing real-time visibility from extraction through processing to logistics. The mineral processing creates stable energy demand that makes the renewable investment bankable. The renewable energy makes processing cost-competitive against Chinese-subsidised alternatives. The AI layer provides the transparency global investors require and the supply chain resilience that this crisis proves is non-negotiable.

That’s not three separate investment cases. It’s one system where each component makes the others viable.

Extend it further. The same AI systems that track mineral supply chains can monitor agricultural logistics, grid performance, infrastructure deployment — across dozens of jurisdictions simultaneously. The same energy infrastructure powering processing hubs can serve data centres, addressing the fact that less than 1% of the world’s data centres sit in Africa. That’s a sovereignty gap the UN flagged this week when it urged African governments to borrow more for AI infrastructure.

Borrowing for AI in isolation is the wrong move. Building connected systems where mineral assets, energy infrastructure, and intelligence capability reinforce each other — that’s the move. Not because it’s elegant. Because the alternative is what we’re watching right now: cascading failure across every sector that assumed its supply chain was someone else’s problem.

I spend every day building a version of this. At AfCEN, we run AI-powered intelligence across 54 African markets — mineral supply chains, energy projects, investment signals — in real time. What that work has taught me is that the technology isn’t the bottleneck. AI can synthesise regulatory environments across dozens of jurisdictions. It can track commodity flows and flag disruptions before they cascade. It can compress due diligence on a $50 million energy deal from months to weeks.

The bottleneck is institutional architecture. The same thing I learned building AI agent systems applies at this scale: the hierarchy of connections matters more than any individual capability. The most sophisticated intelligence in the world has nothing to work with if the systems underneath it — minerals, energy, data — were never designed to talk to each other.

What Has to Change

The Hormuz crisis isn’t a one-off. It’s a preview. The technologies will keep converging. Demand for the physical inputs underneath them will keep concentrating. And the chokepoints will keep getting tested — by conflict, by competition, by climate.

The question every government, sovereign wealth fund, and technology company building for the next decade has to answer: who controls the physical layer of the convergence?

The technologies will be built everywhere. The dependencies won’t.

Here’s what I’d be doing if I were advising any of them:

Finance systems, not sectors. A mineral processing investment without integrated power planning is half a deal. An AI data centre without a data sovereignty strategy is a liability. A semiconductor supply chain that funnels 30% of its helium through one facility is a systemic risk dressed up as efficiency. Structure investments that connect these components from the start.

Use asset leverage to set the terms. Every major power is competing for critical minerals right now. The Pentagon was asking mining companies to boost supply of 13 critical minerals the day before the Iran strikes started. If that’s the demand environment, then the terms of access should include integrated infrastructure — processing, energy, digital systems. Not concessions. Whole systems.

Build intelligence infrastructure before the next crisis. The IEA called Hormuz “the greatest global energy security challenge in history.” It’s a data problem as much as a supply problem. Real-time visibility into supply chains, energy systems, and commodity flows is what turns a crisis into something you can navigate. Most of the world cannot see the physical layer it depends on. That has to change.

Design for resilience, not just efficiency. The logic that concentrated helium in one Qatari facility, routed 20% of global oil through one strait, and left import-dependent economies with weeks of reserves — that’s the logic of optimising for cost without thinking about what breaks. The physical layer of the convergence needs to be distributed, redundant, and sovereign. That’s not a policy preference. It’s an engineering requirement.

The Signals Are Already There

Zimbabwe forcing domestic lithium processing. South Africa’s G20 Critical Mineral Framework pushing capacity building and technology transfer. Saudi Arabia’s Manara Minerals expanding into African mineral markets. The AfDB piloting new climate finance instruments for fragile states. 85.6% of all new global energy capacity being renewable.

Capital, policy, and technology are all moving toward the same point. The convergence of demand for physical assets is real and accelerating.

What doesn’t exist yet is the connected infrastructure to capture it. The world’s most powerful technologies are converging on a physical layer that was never built as a system. The Iran war didn’t create that problem. It showed everyone what the problem costs.

The question now is whether the infrastructure gets built deliberately — or whether we keep finding out the price of its absence one crisis at a time.

Joseph Ng’ang’a is the founder and CEO of AfCEN, the AI-powered infrastructure intelligence platform operating across 54 African markets. He advises governments, development finance institutions, and investors on energy, climate, and the convergence of physical assets, innovation platforms, and global capital.

This is Edition #4 of The Nexus Brief. Subscribe at josephnganga.com.