Have you ever wondered what the universe is actually made of? What lies beneath the building blocks we believe we understand? This is the essence of what CERN, the European Organisation for Nuclear Research, seeks to understand. It feels almost mythical, a modern-day labyrinth where scientists from all over the world work together to uncover the universe’s most fundamental secrets.
CERN’s story is more than just about physics; it demonstrates the unifying power of scientific curiosity. It was founded in 1954 from the ashes of postwar Europe, with the goal of bridging the Cold War divides. It became a beacon of international collaboration, creating a one-of-a-kind environment in which Iranians and Americans, Palestinians and Israelis could work together, driven by a shared desire for knowledge.

Consider this: a hundred metres beneath the bustling offices at CERN, a completely different world emerges. The Large Hadron Collider (LHC), a marvel of human ingenuity, reigns supreme. This massive machine is not for the faint of heart. It accelerates protons, the tiny building blocks of atoms, to incredible energies – 14 trillion electron volts, to be precise! That’s like throwing a tennis ball with the same force as launching a spaceship!
What is the purpose of this incredible feat? To solve some of the most profound mysteries of our universe. Why do fundamental particles, the smallest building blocks of matter, have the mass that they do? What is dark matter, the invisible substance that accounts for a quarter of the universe? Finally, why is there so much matter versus antimatter? These are the billion-dollar questions that the LHC is intended to address.
Consider this: inside the caverns of CERN, the coldest and hottest places in the universe collide. While the LHC operates at a temperature a hair’s breadth above absolute zero thanks to superfluid helium, mere metres away, particles collide at near-light speed, generating temperatures a billion times hotter than the sun!

Building and maintaining equipment that can withstand such extremes is not an easy task. At CERN, “invent” has become the everyday mantra. Every component and instrument is a one-of-a-kind masterpiece. Forget about off-the-shelf solutions; many components are handcrafted by skilled artisans, who transform raw materials into tools that push the limits of technology.
The LHC and its companion experiments, like the Colosseum and Florence Cathedral, are examples of large-scale human collaboration. However, the path to discovery is rarely smooth. The search for the Higgs boson, a particle thought to give mass to all others, was not a quick adventure. It was a twenty-year journey filled with obstacles overcome through grit, perseverance, and a shared desire for knowledge.
And the journey continues! The success of the LHC has only increased our collective thirst. We eagerly await the next breakthrough, the next revelation that will fundamentally alter our understanding of the universe. As scientists, we are brimming with excitement, ready to face the unknown and discover physics that we cannot even imagine today.
CERN is more than just a laboratory; it’s a testament to human ingenuity, a beacon of international cooperation, and a portal to the universe’s deepest secrets. The journey has only just begun, and what lies ahead promises to be truly breathtaking.