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International Journal of Quantum Chemistry

On the axioms of quantum theory formulated as a trace algebra

Per‐Olov Löwdin

Published Jan 1, 1982• 50 citations
Publisher
DOI
10.1002/qua.560210126

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The usual formulation of quantum theory is based on rather obscure axioms (employing complex Hilbert spaces, Hermitean operators, and the trace rule for calculating probabilities). In this paper it is shown that quantum theory can be derived from five very reasonable axioms. The first four of these are obviously consistent with both quantum theory and classical probability theory. Axiom 5 (which requires that there exists continuous reversible transformations between pure states) rules out classical probability theory. If Axiom 5 (or even just the word "continuous" from Axiom 5) is dropped then we obtain classical probability theory instead. This work provides some insight into the reasons quantum theory is the way it is. For example, it explains the need for complex numbers and where the trace formula comes from. We also gain insight into the relationship between quantum theory and classical probability theory.

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The philosophy of measurement theory Measurements(Axiom 1) The relation among systems(Axiom 2) Boltzmann’s equilibrium statistical mechanics Fisher’s statistics I(under Axiom 1) Fisher’s statistics II(related to Axioms 1 and 2) Practical logic Statistical measurements in C*‐algebraic formulation Statistical measurements in W*‐algebraic formulation Newtonian mechanics in measurement Theory Measurement error Heisenberg’s uncertainty relation

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The usual formulation of quantum theory is based on rather obscure axioms (employing complex Hilbert spaces, Hermitean operators, and the trace rule for calculating probabilities). In this paper it is shown that quantum theory can be derived from five very reasonable axioms. The first four of these are obviously consistent with both quantum theory and classical probability theory. Axiom 5 (which requires that there exists continuous reversible transformations between pure states) rules out classical probability theory. If Axiom 5 (or even just the word "continuous" from Axiom 5) is dropped then we obtain classical probability theory instead. This work provides some insight into the reasons quantum theory is the way it is. For example, it explains the need for complex numbers and where the trace formula comes from. We also gain insight into the relationship between quantum theory and classical probability theory.
The philosophy of measurement theory Measurements(Axiom 1) The relation among systems(Axiom 2) Boltzmann’s equilibrium statistical mechanics Fisher’s statistics I(under Axiom 1) Fisher’s statistics II(related to Axioms 1 and 2) Practical logic Statistical measurements in C*‐algebraic formulation Statistical measurements in W*‐algebraic formulation Newtonian mechanics in measurement Theory Measurement error Heisenberg’s uncertainty relation