This investigation resolves the measurement problem in quantum mechanics, indicating implications for our understanding of dynamics.
The measurement problem—the inconsistency between unitary evolution and irreversible collapse—has been open since 1927. We resolve it by identifying its structural origin. Using PS-Lifted dynamics (push-sum consensus on non-reversible lifted Markov chains with Z2 doubling), we test 21 quantum mechanical properties and classify each as HOLD or FAIL. Result: 12 of 21 properties hold (57%), 9 fail (43%). The separation is exact: a property holds if and only if it requires only linearity, topology, or contraction. It fails if and only if it requires unitarity or Hilbert space structure. The Birkhoff contraction coefficient τ = 0.508 is the order parameter: τ < 1 is the classical phase, τ = 1 is the quantum phase. The measurement problem dissolves because it presupposes unitarity. If evolution is contraction (τ < 1), both dynamics and measurement are irreversible—no contradiction, no paradox. Comparison with five interpretations of quantum mechanics shows the pilot wave (de Broglie–Bohm) as the closest classical analog: the physical projection is the particle, momentum is the guiding wave. The Foss Interpretation is: quantum mechanics is a unitary extension of classical consensus. The 57% that works is contraction and topology. The 43% that fails is the price of unitarity.
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David Tom Foss (2026) studied this question.
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