If your results are highly counterintuitive
su3su2u1.tumblr.com
su3su2u1.tumblr.com
This is where those "A Pepperoni Pizza per day prevents Cancer" headlines come from.
true, but not in contradiction to the original statement that counter-intuitive claims are very likely to be wrong.
Carl Sagan said it well: "But the fact that some geniuses were laughed at does not imply that all who are laughed at are geniuses. They laughed at Columbus, they laughed at Fulton, they laughed at the Wright brothers. But they also laughed at Bozo the Clown."
There are many great results that are counter-intuitive, but there are vastly more completely stupid ideas that are counter-intuitive. Ask any academic about their green ink file.
Most new ideas are bad. That doesn't mean "give them a serious look", but it does mean "though you probably won't get far with them."
This relies on declaring that 2x == x for sufficiently large x. Which is clearly bullshit: they're not the same, you just can't tell the difference.
cantor sets
The wikipedia page doesn't make clear what's supposed to be contrary to intuition about this. Unless you mean the 2x == x issue wrt cardinality?
gabriel's horn
This one isn't counterintuitive at all; smaller things always have more surface area.
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Calculus with infinitesimals works by discarding (symbolic) terms known to be (numerically) below epsilon. Adding things to infinity works the same way.
Both of these will be intimately familiar to anyone who works with algorithmic complexity ("big-O notation") or the IEEE 'float' or 'double' data types.
(More info about the different types of infinites: http://en.wikipedia.org/wiki/Cardinal_number )
But they're not all the same, they're simply large enough that any non-infinite numbers are below epsilon.
Much like how infinitesimals are all equal to zero (below epsilon for any non-infinitesimal), but if they were all the same calculus wouldn't work.
I think the pertinent lesson here is that these are still very real problems in the world of "big data": just because you're map-reducing, and throwing around petabytes of data, what you can learn is still limited by the regime under which the data were collected.
If that prior experience is using a prism in a box to take the spectrum of the sun or various kinds of electric lights, and then studying where the bright and dark bands come from? Or shining a laser pointer at a hair to see the diffraction pattern?
Well, playing with that stuff for fun means that a lot of the QM stuff doesn't seem nearly as bizarre as it's said to be.
But then, heavier-than-air flying machines were for a while considered impossible, rather than merely counterintuitive. And now you can get kits to make small ones at the toy store.