| He might also be referring to Heisenberg's uncertainty principle, which
states that the product of what we know about a piece of mass's momentum
and mass has an upperbound on accuracy.
(because data such as location, mass, momentum etc. are actually probability
functions, not absolute numbers, so when we say "the golf ball is here",
we're fudging. More accurately, we should say "with probability 99.999%,
the golf ball is between here and 1.000001 inches away from here")
The example I once saw involved attempting to drop a pingpong ball on
another pingpong ball glued to a table. The object is to accurately
design a smooth ball and accurately drop it from a vertical position
such that the number of times it bounces off the fixed ball before
bouncing away is maximized.
The Heisenberg uncertainty principle applied to the mass of the ball says
that no matter how accurately we measure, we'll never guarantee that
the ball will bounce more than FIVE times before missing.
In other words, due to the accumulated errors on each bounce, the accuracy
with which we'd have to aim the first bounce in order to guarantee more
than five bounces is more accuracty than the Heisenberg Uncertainty Principle
allows us to "know" the location, velocity, smoothness of a pingpong ball.
So, applying this to a hole-in-one, I see no problem with managing to HIT
the ball. However, even in no air, smooth ball, a hole sufficiently small
or sufficiently far away from ball would be impossible to GUARANTEE a
hole-in-one for, again because to do so would mean being more precise about
the stroke speed, force, mass of ball etc., than Heisenberg allows us to
know.
I guess it's analagous to asking "How many times must I flip a fair coin
to guarantee that the ratio of heads to tails differs from the expected
1.00 by no more than X % ?"
/Eric
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