John,
'What properties does space have that require length?'
"I suppose infinity would be one."
You do? Is space infinitely long or infinitely short?
'How does something float in a void?'
"By not falling."
In what direction? If every direction, it isn't floating; it isn't moving at all. It isn't even "something."
'What's a void, anyway?'
"A space occupied by minimal mass."
What's the limit of that minimum and how do you know? Is the mass discrete or is it divisible? If not divisible, how does one know it exists it all?
John, I have gone on this long merely to demonstrate the naivete of "just so" assumptions that are not really foundational, and demonstrably not foundational. Not yours -- I already know about those. Believers in Bell's theorem make the same sort of assumptions about "reality" and take them to the same absurdly mystical lengths, trying to justify them, as you and some of the other respondents.
I will give the answer to the bags-of-coins puzzle from an episode of "Columbo" that I referenced earlier:
I made the solution easier, because I specified 3 bags -- I could have said choose any number of bags you please, with any number of coins in them that you please. The small finite number, though, makes the solution easier to explain:
Label the three bags, A, B, C. From bag A, remove one coin. From bag B, remove two coins. From bag C, remove three coins. Place all six coins on the scale.
Suppose the weight you assign to the real gold coins is 1 oz, and to the fake coins, .90 oz.
If the scale reads 5.1 oz, the fake coins are in bag A. If 4.2 oz, the fakes are in bag B, if 3.3 oz, in bag C.
Rob is absolutely correct that the quantum theorists don't know what information to look for. They assume that of an infinity of "bags" there are in each a uniform number of uniformly entangled "coins" so that no matter which bag is "weighed," it will always be a uniform multiple of the finite number of coins prepared for the weighing. In our puzzle example, the scale will always read 6 oz.
Assume on the other hand, that one has a number of bags of space and one bag of time. The bag of time, like the bag of fake coins, has to differ in weight from the bag of space (explained in relativity by a change of sign in the metric signature), such that for a continuous weighing of cumulative units chosen from an infinite number of bags of space, there will be somewhere a bag of time that tells us the single true measure of time we're looking for in any *finite* observation. This bag of time will be present in every finite measure, because if it weren't we could not choose units of space discretely; we couldn't assign any weight to units of space, because it's the move of time that facilitates the choice function.
The Bell-Aspect choice function assumes entangled units of space and no time parameter. The finite measure of a continuous function, however, acknowledges the move of time that in fact forces the measure to be finite. Only continuous spacetime guarantees a *scalar* result - a.b from n number of measures in the N finite set of measurements -- because the weight of the time vector differs from the weight of the space vector. Without a time parameter in fact, no scalar result is possible. And because there is only one true time measure in any sequence, the correlated "quanta" of continuous measurement functions in spacetime have minima and maxima that are self similar at every scale.
The simulation of Joy Christian's topological measurement framework shows this to be true. One should feel privileged to have seen the wave function of the universe.
Best,
Tom