This work presents a neo-Bohrian interpretation of quantum mechanics, building on Niels Bohr's key ideas about the primacy of classical concepts. The author turns to the mathematical apparatus of infinite direct products, introduced by von Neumann, to show that the so-called measurement problem is not a fundamental difficulty. Just as a map cannot exist without a cartographer, quantum phenomena only make sense in the context of a classical description. This approach strengthens the philosophical foundations of physics.
A quantum particle—an inhabitant of the elementary particle world—resembles a coin spinning in the air: neither heads nor tails, but a blend of possibilities. Yet when it lands on the table, the outcome becomes definite. What serves as the table in a measurement?
The mathematician von Neumann showed that if the device is infinitely complex, its collective behavior inexorably squeezes a definite value out of the particle—much like how disorder inevitably grows in a closed system. The new work fuses Bohr's views with this mathematics: classical concepts are not a choice, but a necessity. The measurement problem vanishes. An unexpected twist: the same logic applies to black holes—there, quantum uncertainty hides behind the horizon, just like the faces of a spinning coin.
🎯 Von Neumann, who invented computer architecture, also brought his love for infinite systems to quantum mechanics: his measurement mathematics echoes the processing of crisp bits from quantum noise.