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Europe’s fruit industry does more than preserve the harvest. It transforms biological variation into industrial reliability, using agronomy, processing, energy, logistics and ingredient technology to make seasonal fruit available in predictable forms throughout the year.
Europe’s AI Gigafactories are about far more than computing power. They represent a new generation of strategic infrastructure where energy, semiconductors, photonics, connectivity and industrial ecosystems determine whether Europe’s AI ambitions can become reality.
Europe’s AI ambitions extend far beyond algorithms. The proposed AI Gigafactories raise fundamental questions about infrastructure, energy, semiconductors, governance and industrial strategy. Before Europe can build artificial intelligence at scale, it must first define the physical systems that will sustain it.
Digital energy systems are becoming the intelligence layer of Europe’s emerging energy architecture. As renewable generation, storage and flexible demand expand, the defining challenge is no longer collecting data, but transforming information into coordinated decisions across an increasingly complex energy system.
Renewable energy integration is no longer simply about deploying more wind turbines or solar panels. It is increasingly about orchestrating millions of interconnected assets into a coherent system capable of balancing variability, flexibility and abundance in real time.
As artificial intelligence becomes increasingly dependent on energy, a new geography of computing may be emerging. Project Enki explores whether the future of AI infrastructure will be built around technology hubs—or around locations where energy is abundant.
Artificial intelligence is often discussed in terms of algorithms and computing power. Yet the future of AI may depend just as much on the physical infrastructure beneath it. From photonics to energy systems, intelligence remains constrained by the laws of physics.
Global trade appears fluid and resilient, but depends on a handful of narrow chokepoints. The Strait of Hormuz reveals how energy, logistics and geopolitics converge — and how fragile a system becomes when continuity is assumed rather than secured.
Long dismissed as “dumb pipes”, telecom operators control something increasingly scarce in the digital age: geographically distributed infrastructure with power, connectivity and proximity to users. As energy and latency become binding constraints, networks may evolve from transport systems into Europe’s most valuable compute platforms.
For years, photonics has been presented as a technology of the future — elegant, powerful and perpetually just over the horizon. It appears in research agendas and innovation strategies alongside quantum computing and other long-term breakthroughs. As a result, it is still widely perceived as experimental rather than structural.
