In October 1927, twenty-nine of the greatest scientific minds in history gathered in Brussels for the Solvay Conference, a meeting that would reshape our understanding of reality.
Among them were Albert Einstein, Niels Bohr, Werner Heisenberg, and Erwin Schrödinger—along with other giants like Marie Curie. Of the 29 attendees, 17 were or would become Nobel laureates.
Up for discussion and debate: quantum mechanics. A strange new theory suggesting that particles could behave like waves, exist in multiple states at once, and didn’t really “decide” what they were doing until someone observed them.
Einstein couldn’t accept this. At one point, he snapped, “God does not play dice with the universe.” Bohr calmly replied, “Einstein, stop telling God what to do.”
Meanwhile, Heisenberg—just 26 years old—introduced something even more unsettling: the Uncertainty Principle.
He argued that the more precisely you know where a particle is, the less you can know about how fast it’s moving—and vice versa. It wasn’t a flaw in measurement, it was a fundamental limit of nature. The universe, at its core, was uncertain.
Einstein hated that too. He called one especially bizarre effect “spooky action at a distance”—his term for entanglement, the idea that two particles could become so deeply connected that if you measured one, the other would react instantly, even if it were light-years away.
Quantum mechanics gave us a world where particles could be in two places at once, where just observing something changes its outcome, and where entangled particles could influence each other instantly—even from across the universe. But time has proven Bohr and Heisenberg right. These bizarre concepts have become central to modern science and technology—and now, these strange principles are giving rise to quantum computing.
What is quantum computing? Let’s start with your current computer. It runs on bits—tiny electrical switches that are either 0 or 1. Everything from spreadsheets to social media posts is built from those two binary decisions.
Quantum computers, however, use qubits, which can be 0 and 1 at the same time, thanks to something called superposition. And when qubits become entangled, they can work together in ways that provide infinitely more computing power than current computers.
It’s like having a combination lock with millions of possibilities. A traditional computer tries one combination at a time, but a quantum computer can try all possible combinations at once.
This kind of computing power opens the door to breakthroughs in drug discovery, cybersecurity, artificial intelligence, energy optimization, logistics, and financial modeling—solving problems that today’s fastest computers still can’t touch.
We’re not making concentrated bets on individual quantum computing company stocks. It’s still too early, and the path forward will be full of trial and error. But we are watching closely. Because companies that learn to use quantum computing—not just build it—could gain massive advantages in efficiency, speed, and insight.
This is why we stay curious. Not to chase every new tech fad, but to stay prepared for real innovation when it becomes investable, scalable, and transformative.
In 1927, Einstein was fighting for certainty. He believed that with enough data, you could predict anything—that is essentially how AI works. Bohr, Heisenberg, and Schrödinger saw things differently. They accepted that uncertainty was a feature of the universe.
Uncertainty is constant in investing. Markets shift; surprises come and go—but long-term success doesn’t depend on perfect predictions. It comes from staying balanced, staying informed, and adjusting as the world changes.
This is going to be truly fascinating—and a little spooky—to watch develop over the coming years.
