Alan,
"'The most recent sixty years of physics are curve fittings incapable of self-correction. Physics as business model is knowingly fraudulent as funding to do so, theory and experiment. Undecidability, uncomputability, and unpredictability are derivative protective diversions. Empirical reality is not a superposition of states, a statistical extrapolation...or magical . Empirical reality is empirical." Amen.
My own drumbeat is that physicists project math structures on the world and come to believe that these structures represent physical reality. [I certainly agree that chemists have a much better understanding of atomic reality than physicists or mathematicians.]
Most physicists believe that 'qubits' are real; Bell demands qubits in his first equation: (A,B = +1, -1). For spins in magnetic domains this is a good statistical model, and reasonable. Unfortunately, for the Stern-Gerlach model upon which Bell based his reasoning, it is not. The SG data shown on the "Bohr postcard' is anything but +1 and -1, whereas a 3-vector spin model In an inhomogeneous field produces almost exactly the SG-data.
As for entanglement, If one assumes that the deBroglie-like gravitomagnetic wave circulation is induced by the mass flow density of the particle [momentum-density], then the equivalent mass density of the field energy induces more circulation. This means that the wave field is self-interacting. For 'one free particle' a stable soliton-like particle plus induced circulation/wave is essentially deterministic. But for many interacting particles, all of whose fields are also self-interacting, then 'determinism' absolutely vanishes, in the sense of calculations or predictions, and the statistical approach becomes necessary. This clearly supports 'local' entanglement, as the waves interact and self-interact, while rejecting Bell's 'qubit'-based projection: A, B = +1, -1 consistent with the Stern-Gerlach data (see Bohr postcard). For Bell experiments based on 'real' spin (3-vector) vs 'qubit' spin (good for spins in magnetic domains) the physics easily obtains the correlation which Bell claims is impossible, hence 'long distance' entanglement is not needed and local realism is preserved.
John Schultz's essay suggests that the algorithmic limitations of knowability do not apply to non-algorithmic patterns, of the self-interacting type I just described. If so, this is not a matter of math; it is a matter of ontology. I believe ontology is the issue for the number of authors who also seem to support more 'intuition' in physics. My current essay, Deciding on the nature of time and space treats intuition and ontology in a new analysis of special relativity, and I invite you to read it and comment.
Edwin Eugene Klingman