🚨 AI may live in the cloud. But its foundations are buried in the ground.
We talk about artificial intelligence as algorithms, compute and data.
Look beneath the surface and another story emerges, minerals, mines, processing plants, energy and geopolitics.
→ Rare earths are a group of 17 elements, including neodymium, yttrium and europium.
→ They sit inside technologies ranging from electronics and electric vehicles to advanced defence systems.
→ The challenge is not simply geological scarcity. Economically viable deposits, extraction, refining and processing capacity are concentrated.
→ Alongside rare earths, materials such as silicon, cobalt, lithium, copper and gallium are increasingly important to the wider digital and clean-tech economy.
This changes how we should think about technological power.
The sleekest AI system still depends on physical infrastructure. Data centres need chips. Chips need materials. Energy systems need minerals. And whoever controls extraction, processing and supply chains gains strategic leverage over the technologies built on top of them.
Technology, then, is never just code and glass. It is also geology, labour, energy, ecology and politics.
And therein lies an opportunity. The next generation of innovation will not only be about building better AI. It will also be about reinventing the materials, manufacturing processes and supply chains that make AI possible.
“Follow the critical minerals and you begin to see where the power behind tomorrow’s digital economy really lies.”
Could critical minerals become as strategically important to the AI age as oil was to the industrial age?
#CriticalMinerals #ArtificialIntelligence #DeepTech #SupplyChains #Innovation