A real result, Doron. Not just some nonsense you assume must be true, then declare it a result.
They are real results, unlike your nonsense reasoning that can't comprehend them.
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Some example:
A = True
B = False
AB
AND AB has non-strict result because the input is non-strict.
AB
AND A or A
AND AB has non-strict result because the input is non-strict (the commutativity of
AND connective has no impact on the non-strict result).
AB
AND B or B
AND AB has non-strict result because the input is non-strict (the commutativity of AND connective has no impact on the non-strict result).
A
AND B or B
AND A is strictly False (the commutativity of
AND connective has no impact on the strict result).
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You and The Man simply can't get that the commutativity of
AND connective has no impact on these results.
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Furthermore, the suggested framework has no entropy exactly because no collection of lower dimensional spaces has the magnitude of higher dimensional space. For example |
R| < |1-dimensional space|, where in this case
R members are 0-dimensional spaces (known as points).
The following diagram illustrates |
R| < |1-dimensional space| as follows:
As can be seen, the cardinality of the intersection points along the line segments with different lengths is the same, whether it is finite or infinite cardinality. So only the sets of points with the same cardinality can't provide the solution for the existence of 1-dim elements with different lengths.
This fundamental fact is exactly the incompleteness of
R w.r.t 1-dimensional space, which preserves the openness of
R and enables its endless further development.
The claim of Traditional Mathematics about 0-dimensional
R members that completely cover a 1-dimensional space, is actually "death by entropy" of the considered framework.
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Actually You and The Man simply can't provide a logical solution of the fact that line segments have different lengths even if the cardinality of the the set of points (where a point is the smallest existing element) along them is the same, where by your assertion this set of points (notated as
R) completely covers these 1-dimensional elements.