Inter-connectedness
So this could be abstract or in some ways more concrete.
The two simplest examples of inter-connectedness might be
the area of a square and the way one moment follows the next.
In the case of moments, it would be a very jarring experience
if one moment was not followed by another.
In the case of the area of a square, if you divide a square into
four parts, and you know the area, and you know the length
of one part you can determine the length of the other. This
sort of extends itself into the fundamental theorem of algebra.
At the end of the day, we can find many example of how, things
that might not appear to be connected at first, do in fact have
sometimes " mysterious " connections and sometimes these
connections are a lot more obvious. It might be natural then
to assume that " everything " is connected, but un-fortunately
that is a bit difficult to claim because it's hard to put
your finger on, what exactly " everything " might be. When
we think of numbers, which generally have a great amount
of utility, we just don't find " gaps ", like 1,2,3 and no four.
but 5 shows up just fine.
It is of course extremely intriguing when we throw some
appropriate concept of mind into all that. For one thing,
it seems kind of evident that it is mind that discerns these
connections. In fact, as we ponder this situation we might
ask if the connections are really there as a result of the
behavior of mind or mind simply discerns it. Very difficult
to unravel that thought. But when we think about how
people inter-connect with each other, it can be pretty easily
related back to behaviors which are " mind " like.
So, in conclusion, I will simply end this without trying to connect it
all together with a statement of Noether's Theorem from google:
Noether's theorem or Noether's first theorem states that
every differentiable symmetry of the action of a physical system
with conservative forces has a corresponding conservation law.
The theorem was proven by mathematician Emmy Noether
in 1915 and published in 1918.
And also from google:
A differentiable symmetry is a symmetry of the functional that does not change the action. S[φ′]−S[φ]=0. It is a differential symmetry because when this expression is interpreted as an action on the lagrange density L it does so by a differentiation.
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