They can be interpreted statistically, but they are not statistical.
At a very large scale, compared even to photons, which already escape both definitions.
Not because it was observed per se, but because an instrument was introduced into the system, affecting it, and changing its behaviour.
This is a little to vague for one to address. This is why I asked for a little more specificity. More precice language.
They are, just not in the same way that particles or waves are.
I mean, in a way, this is not entirely unfair. The first thing to be aware of is that the mathematics are not statistical, and the second thing that when you are working on the scales of quantum physics, much smaller than an atom, the readings are so sparse and unclear that most of you can even have about it are mathematical descriptions. You can’t “observe” it in any traditional sense, not because of some philosophical limitation, but because it is so very small.
We went over this already, I will post that below.
You are wrong about reality, but technically right about the extra dimensions. Those were introduced by string theory to address the readings given by quantum mechanics.
Like I said, they can be interpreted that way, but that is not how the math actually works. A very good experiment was done on this, I give you my solemn word that I will track it down and post it
It only seems like magic because you are trying to interpret them as observing particles or waves.
Nothing turns into anything in actual quantum mechanics and associated theories, they are, again, simply not studying particles or waves.