We are thus faced with the following dilemma: either the organism is a purely statistical system, and then it is certainly not a quantum mechanical system, or it is a quantum mechanical system, and then it is certainly not a statistical system.
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"The total number of minds in the universe is one. In fact, consciousness is a singularity."
"I am no friend of probability theory, I have hated it from the first moment when our dear friend Max Born gave it birth."
"The important thing is not to stop questioning."
"I insist upon the view that 'all is waves'."
"The human organism is a highly ordered and organized system, which maintains its order by continually drawing order from its environment."
Austrian physicist who shared the 1933 Nobel for the wave equation that bears his name and the famous cat thought-experiment. Closely associated with Werner Heisenberg (matrix-mechanics rival who reached the same physics by different math) and Albert Einstein (his pen-pal on quantum interpretation). For an intellectual contrast, see Niels Bohr, Danish physicist and architect of the Copenhagen interpretation — Schrödinger's cat thought-experiment was specifically designed to ridicule Bohr's 'observer-dependent reality' reading of quantum mechanics — Schrödinger thought the Copenhagen interpretation was absurd; the cat was meant as reductio ad absurdum.
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Living organisms present a logical trap: treat them as purely statistical systems governed by probability and averages, and quantum mechanics cannot apply. Treat them as quantum mechanical systems, and pure statistical descriptions break down. Schrödinger identifies that life occupies a paradoxical middle ground—biological precision demands something stricter than statistics, yet organisms resist reduction to clean quantum systems. He is probing whether physics, as then understood, could ever fully explain life.
Schrödinger pioneered wave mechanics and the equation bearing his name, uniting particle behavior with wave mathematics. His 1944 book 'What is Life?' extended quantum thinking into biology, arguing chromosomes must be 'aperiodic crystals' encoding hereditary information—directly inspiring Watson and Crick's DNA discovery. This quote reflects his lifelong refusal to accept comfortable boundaries between physics and biology, or animate and inanimate matter.
Written in 1944 amid World War II, physics was split between quantum triumphs and deep biological mystery. DNA's structure remained unknown until 1953; heredity was understood statistically but unexplained mechanically. Classical thermodynamics handled inert matter but couldn't account for life's astonishing reproductive precision. Schrödinger's challenge galvanized physicists to enter biology, seeding molecular biology as a discipline and reframing life as an information problem rather than merely a chemical one.
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