John von Neumann — "My own feeling is that the most important advances in the future will come from …"
My own feeling is that the most important advances in the future will come from the interaction of mathematics with other sciences.
My own feeling is that the most important advances in the future will come from the interaction of mathematics with other sciences.
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"The only way to understand a system is to build it."
"I'm told that the only difference between a mathematician and a physicist is that a mathematician thinks about mathematics and a physicist thinks about physics. And a physicist is always trying to get…"
"It is not at all certain that the mathematical method is appropriate for the description of the world."
"The more precisely the position is determined, the less precisely the momentum is known in this instant, and vice versa."
"Anyone who attempts to generate random numbers by deterministic means is, of course, living in a state of sin."
Lecture or interview, predicting the interdisciplinary nature of future scientific progress.
Date: 1950s
GeneralFound in 1 providers: grok
1 source checked
The biggest breakthroughs won't emerge from any single discipline working in isolation, but from mathematics colliding with empirical sciences. When rigorous formal reasoning is applied to physics, biology, or economics, entirely new fields emerge that neither could produce alone. Progress accelerates at disciplinary borders, not within them—mathematics provides the language, and other sciences provide the problems worth solving and the reality checks that keep abstraction honest.
Von Neumann lived this conviction across every decade of his career. He axiomatized quantum mechanics, co-invented game theory to mathematize strategic decision-making, and designed stored-program computer architecture to give scientists computational power. He contributed to fluid dynamics, nuclear weapons physics, and cellular automata. Each field he touched was transformed by importing mathematical structure into it, making him perhaps history's clearest embodiment of cross-disciplinary mathematical power.
The mid-20th century was validating exactly this thesis in real time. Quantum mechanics had mathematized physics, operations research optimized Allied logistics in WWII, and early computers promised to simulate nuclear reactions and weather systems. Von Neumann worked at the epicenter of this convergence—the Manhattan Project fused mathematics with physics and engineering, cybernetics bridged biology and information theory, and game theory reframed Cold War geopolitics through formal models.
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