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On an Algebraic Generalization of the Quantum Mechanical Formalism

Annals of Mathematics · 1934 · Vol. 35(1) · pp. 29–29
P. JordanJ. v. NeumannE. P. Wigner

Abstract

One of us has shown that the statistical properties of the measurements of a quantum mechanical system assume their simplest form when expressed in terms of a certain hypercomplex algebra which is commutative but not associative.1 This algebra differs from the non-commutative but associative matrix algebra usually considered in that one is concerned with the commutative expression ½(A × B + B × A) instead of the associative product A × B of two matrices. It was conjectured that the laws of this commutative algebra would form a suitable starting point for a generalization of the present quantum mechanical theory. The need of such a generalization arises from the (probably) fundamental difficulties resulting when one attempts to apply quantum mechanics to questions in relativistic and nuclear phenomena.

Quantum Mechanics and ApplicationsAdvanced Mathematical Theories and ApplicationsNoncommutative and Quantum Gravity TheoriesMathematicsFormalism (music)Algebraic numberQuantumGeneralizationAlgebra over a fieldPure mathematicsQuantum mechanicsMathematical analysisPhysics
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