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As Europe seeks independence from American tech giants, institutions like De Nederlandsche Bank are making deliberate trade-offs—accepting less mature technology today in exchange for greater control tomorrow.
In Italy, identity is rooted in place—region, city, community. This portrait explores how strong local ties hold society together, revealing a Europe where culture and connection persist beyond the limits of formal structure.
Europe’s fragmented quantum landscape may appear inefficient, but it enables multiple technological paths to evolve in parallel. In an uncertain field, this diversity creates resilience—reducing systemic risk and allowing innovation to adapt as the technology matures.
Quantum computing will not be defined by standalone machines, but by how systems are integrated. In Europe, this shift is visible in the coupling of quantum and classical computing—positioning infrastructure, rather than platforms, as the real source of control.
Europe is not leading the quantum race in headlines—but it may be shaping the infrastructure that will ultimately define it. Beneath the surface, a quieter strategy is taking shape.
In France, identity is shaped through tension between state and citizen. This portrait explores how authority and resistance coexist, revealing a Europe where engagement is constant and trust is negotiated rather than assumed.
As photonics moves from lab to platform, chips begin to sense, measure and interact with the physical world. From healthcare to quantum systems, this shift marks a transition from processing information to perceiving reality.
For the first time, photonics brings light generation, guidance and coupling together on a single chip. This shift transforms a long-standing experiment into a scalable platform—marking a turning point in how chips interact with the physical world.
The next generation of chips is not limited by code, but by materials. As photonics advances, the challenge shifts to integrating fundamentally different substances—where even atomic mismatches can determine whether light is guided or lost.
For decades, chips have relied on invisible infrared light to move data. A new shift is emerging, where visible light introduces precision, sensing and interaction—moving technology beyond transport toward a deeper connection with the physical world.
