Bell's inequality refuted via elementary algebra
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Link: http://vixra.org/pdf/1812.0437v7.pdf (5 pages.)
Abstract: Bell’s inequality is widely regarded as a profound impediment to any intuitive understanding of physical reality. We disagree: for elementary algebra allows us to refute Bell's inequality, identify his errors, dismiss his work generally. We thus begin reiterating the anti-Bellian ideas that we’ve advanced since 1989: ie, we seek to restore commonsense/intuitive ideas to physics and make physical reality intelligible—like Einstein argued, according to Bell—‘by completing the quantum mechanical account in a classical way'.
Request: I look forward to critical comments, suggestions, etc -- by Bellians and anti-Bellians alike -- especially by gill1109 and Heinera in view of their recent confusing/false claims in http://www.sciphysicsforums.com/spfbb1/viewtopic.php?f=6&t=373
eg, claims to the effect that nonlocality is OK, or that a six-sided dice showing a number greater that 6 is somehow OK to a Bellian.
Let me add that many "anti-Bellian" arguments and claims are also challenged; eg, even Fred's claim (his emphasis) makes me wonder: "Once more... IT IS MATHEMATICALLY IMPOSSIBLE FOR ANYTHING TO VIOLATE BELL'S INEQUALITIES!"
For [as shown in the above essay] Bell's inequalities -- supposedly derived in the context of EPRB -- are mathematically AND experimentally false under EPRB: imho, to the point that Bell inequalities are nonsense!
I therefore support Jay's suggestion
For [coincidentally] I'm rewriting an old essay that explains EPRB in classical terms: thereby making the point that reality can be understood via a a truly LRHV theory.
Also making the point that QM is an advanced probability theory -- based on a theorem known to mathematicians since 1915: see the Fröhner (1988) reference in the above essay.
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Link: http://vixra.org/pdf/1812.0437v7.pdf (5 pages.)
Abstract: Bell’s inequality is widely regarded as a profound impediment to any intuitive understanding of physical reality. We disagree: for elementary algebra allows us to refute Bell's inequality, identify his errors, dismiss his work generally. We thus begin reiterating the anti-Bellian ideas that we’ve advanced since 1989: ie, we seek to restore commonsense/intuitive ideas to physics and make physical reality intelligible—like Einstein argued, according to Bell—‘by completing the quantum mechanical account in a classical way'.
Request: I look forward to critical comments, suggestions, etc -- by Bellians and anti-Bellians alike -- especially by gill1109 and Heinera in view of their recent confusing/false claims in http://www.sciphysicsforums.com/spfbb1/viewtopic.php?f=6&t=373
eg, claims to the effect that nonlocality is OK, or that a six-sided dice showing a number greater that 6 is somehow OK to a Bellian.
Let me add that many "anti-Bellian" arguments and claims are also challenged; eg, even Fred's claim (his emphasis) makes me wonder: "Once more... IT IS MATHEMATICALLY IMPOSSIBLE FOR ANYTHING TO VIOLATE BELL'S INEQUALITIES!"
For [as shown in the above essay] Bell's inequalities -- supposedly derived in the context of EPRB -- are mathematically AND experimentally false under EPRB: imho, to the point that Bell inequalities are nonsense!
I therefore support Jay's suggestion
So while I know it is vogue, why don't we set aside all of the "inequalities" discussion and focus directly on the theoretical physics of the mechanisms which bring about the strong correlations?
And especially, why don't we see if we are overlooking something in quantum mechanics itself, which actually reveals QM to be an LRHV theory which to date has simply not been understood as such?So while I know it is vogue, why don't we set aside all of the "inequalities" discussion and focus directly on the theoretical physics of the mechanisms which bring about the strong correlations?
For [coincidentally] I'm rewriting an old essay that explains EPRB in classical terms: thereby making the point that reality can be understood via a a truly LRHV theory.
Also making the point that QM is an advanced probability theory -- based on a theorem known to mathematicians since 1915: see the Fröhner (1988) reference in the above essay.
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