EPR Paradox, Quantum Nonlocality and Physical Reality
Marian Kupczynski

TL;DR
This paper critically examines the foundations of quantum nonlocality, arguing that violations of Bell inequalities do not definitively prove nonlocality, and highlights potential flaws in experimental tests and interpretations.
Contribution
It provides a critical analysis of Bell inequality proofs, challenges the interpretation of experimental violations, and discusses loopholes affecting conclusions about locality.
Findings
Violations of Bell inequalities do not necessarily imply nonlocality.
Sample homogeneity loophole can invalidate statistical tests in experiments.
Winning the Bell game demonstrates local models can reproduce quantum correlations under certain conditions.
Abstract
Eighty years ago Einstein demonstrated that a particular interpretation of the reduction of wave function led to a paradox and that this paradox disappeared if statistical interpretation of quantum mechanics was adopted. According to the statistical interpretation a wave function describes only an ensemble of identically prepared physical systems. Searching for an intuitive explanation of long range correlations between outcomes of distant measurements, performed on pairs of physical systems prepared in a spin singlet state, John Bell analysed local realistic hidden variable models and proved that correlations consistent with these models satisfy Bell inequalities which are violated by some predictions of quantum mechanics. Several different local models were constructed, various inequalities proven and shown to be violated by experimental data. Some physicists concluded that Nature is…
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