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A new European photonics breakthrough demonstrates how electrical crosstalk in InP chips can be suppressed to the microvolt level—an invisible but crucial step toward scalable optical computing, AI infrastructure and Europe’s growing role in the emerging “Age of Light”.
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.
Blue light is emerging as the next frontier in chip technology. As photonics moves beyond infrared, new materials and architectures are redefining what chips can do—shifting from data transport toward precision, sensing and interaction with the physical world.
Black Semiconductor is redefining how chips communicate, using graphene and light to overcome the limits of copper. As AI systems scale, the real question shifts: who controls the connections that make intelligence work — and therefore, who controls power?
Smart Photonics is turning Europe’s photonics ambitions into industrial reality. As production shifts from lab to factory, a deeper question emerges: can Europe finally retain control over critical chip manufacturing — or will scale once again determine who holds power?
As Europe invests billions into Project Beethoven, Brainport Eindhoven is rapidly evolving from an innovation hub into a full-scale industrial ecosystem. But can it scale fast enough to meet geopolitical expectations, talent demands and the pressure of technological sovereignty?
Photonics is often framed as the next breakthrough in chips, but according to Professor Martijn Heck, the reality is more nuanced: real progress depends on hybrid integration, production scale and reliability—not technological promise alone.
