Post by Ross FinlaysonPost by Ross FinlaysonPost by Thomas HegerPost by Ross FinlaysonPost by J. J. LodderPost by Ross FinlaysonPost by LaurenceClarkCrossenRiemann was a brilliant geometer who made the elementary error of
reifying space by claiming parallel lines could meet. Schwarzschild and
Einstein carried through with that mistake, making people believe it was
intelligent.
Art students know there's a point at infinity.
'at' and 'point' mean essentially the same thing.
But it is, of course, wrong to assign a point to infinity, because
infinity is not a point and it is impossible to be there (hence there is
no 'at').
Post by Ross FinlaysonPost by J. J. LodderA whole line at infinity of them, even,
Jan
One idea about the quadrant is to shrink it to a box,
It is also impossible to shrink infinity in any way, because infinity
will remain infinitely large, even after significant shrinking.
Post by Ross Finlaysongiven that the ray from origin (in a Cartesian space)
in x = y is an "identity dimension" and rather "original"
itself, then that the hyperbola, xy = 1 andx = 1/y and y = 1/x,
its corner, is parameterized to go out the identity line
and result in the limit connecting (0, \infty) and (\infty, 0).
inf = 1/0
hence
inf * 0 =1
hence
0/inf = 1/inf²
;-)
but infinity is also not a number!
TH
...
The "infinity, mathematical" is an interesting thing,
I enjoy studying it and have studied it since at least
thirty years, though also at least about forty-five
years ago the word "INFINITY" was in the language.
Sort of like "ALL" and other universals - INFINITY
is always in the context.
That "infinity-many iota-values either sum to or produce 1",
is the idea of standard infinitesimals that just like a
line integral and the line elements or path integral, in
a line, and path elements, makes that mathematical and
the mathematical physics particularly has infinity.
Are you familiar with "mathematical formalism the
modern mathematics way: axiomatic set theory with
descriptive set theory in model theory"?
See, here there are at least three models of continuous
domains, where the usual account of "set theory's" (really
meaning the "a standard linear curriculum" as with regards
to what "mathematical foundations", is, i.e. set theory
plus models of rationals after integers then LUB and
measure 1.0 furthermore axioms), the usual account, has
one, the Archimedean field reals, that here there are
first line reals, or infinitely-many constant iota-values
in a row, line-reals, then field-reals for example by
the standard formalism, then signal-reals, and getting
involved with real halving- and doubling- spaces that
taking individua of continua sometimes doubles and
sometimes halves, the real analytical character.
So, I must imagine that you have each these three
kinds of continuous domains in your theory, as with
regards then to various law(s), plural, of large
numbers (infinities, actually, effectively, practically,
or potentially).
Surely your mathematical physics for real analysis at some
point employs these three, not inter-changeable or
equi-interpretable, yet according to "bridges" or
"ponts" pretty much the integers or bounds, like they
are called the path integral or real numbers or
signal theory.
Yes, no?
Another one gets involved to have concentric cyclotrons,
in opposite directions, then getting into helping illustate
that electromagnetism's behavior of moving influence,
that is not observed in light yet reflects particularly
the electrical fields' contents, then with a neutral linac
adjacent and across those, makes a rather simple idea.
The advanced and retarded in the electromagnetic has a
lot to do with the "opposites" in the fluid model,
electrical current and liquid current, with regards
the "opposite" meaning "super-classical" effects like
skin effect versus core effect, then about curls and
eddies and vortices about magnetic moments and poles,
axoi and polloi, vis-a-vis the static, in electrodynamics,
and static, in hydrodynamics.
Anyways it's rather simple this configuration of experiment
a "neutral linac and charged cyclotron" that sees arrived
at achievable experiments with clearly obvious what would
be "non-null".
The Sagnac effect shows up a lot for light, Sagnac and Ehrenfest,
"space-time wheel" type bits, that anyways once a "neutral linac",
for example accelerated charged decaying particles that decay
to neutral, makes a quite simple describe experiment.
... That would falsify, or not, space-contraction-linear,
and, space-contraction-rotation, each.
Of course equipping mathematics with more and better and
true and real mathematics of infinities and infinitesimals
may automatically then make for equipping the physical models
with more real true things about continuity and infinity
in nature.
So, mathematics has a great linear curriculum, yet at the
same time the mathematics of infinity and continuity has
multiple perspectives, as it were, to fulfill, that there
are multiple mathematical models of a continuous domain,
and multiple law(s) of large numbers, and these things that
make for what "is" the continuous mani-fold, in what "is"
an un-bounded or in-finite universe.
Thusly, any theory of everything must need resolve all
the logical paradoxes first, then make the _replete_
of the mathematical "complete", for it to be that
otherwise it's easy to derive contradictions arising
from things like the line integral and motion itself,
in the physical model the physical interpretation.
So, physics for a long time made its great efforts in
finding methods, mathematical, that yet keep infinity
"out", yet, being that it's yet always a thing, that
a measured approach to continuum mechanics being "in",
these days involves continuum mechanics, quasi-invariant
measure theory, law(s), plural, of large numbers, law(s),
plural, of convergence what make emergence, model(s), plural,
of continuous domains and spaces of 0's and 1's:
that each logic, mathematics, physics, science,
have that "mathematics _owes_ physics more and better",
about, more and better.
Continuity and infinity, ..., mathematically.
Then here for example that's "nutrino, muon, hadron physics
to make more super-symmetric continuity after electron physics",
and, "motion: change and infinitely-many higher orders of acceleration".
It's a continuum mechanics, ....
Then, with regards to singularity theory, one should
keep in mind that singularities, are just branches,
in multiplicity theories.
Of course it sort of requires a theory of truth and all, ....
It's a continuum mechanics.