From: Sam Wormley on
On 7/4/10 12:57 PM, Thomas Heger wrote:

>
> The statement was not 'the universe is a fractal'. It was: the universe
> has a fractal structure.
> The difference is, that the universe means: everything.
> The assumption is, that the universe is organized with kind of steps,
> that are self-similar. The steps we know of are: sub-atomic, atoms,
> planets, planetary systems, galaxies, galaxy clusters, super-clusters.
>
> TH

Obviously not fractal. Atoms don't behave anything like planetary
systems and irregular galaxies.


From: hanson on
"Sam Wormley" <swormley1(a)gmail.com> wrote in message
news:UOydnQx999ddGq3RnZ2dnUVZ_jadnZ2d(a)mchsi.com...
>
On 7/3/10 10:07 PM, Robert L. Oldershaw wrote:
>> In journals like Nature and the Journal of Theoretical Biology, many
>> authors have demonstrated empirically and analytically how fractal
>> structures are energetically favored and maximize the efficiency
>> collecting light (see: Phyllotaxis), or maximizing the absorption of
>> oxygen in the lungs, or the absorption of nutrients in the intestines.
>
"Sam Wormley" <swormley1(a)gmail.com> wrote
> Doesn't work over the range of atoms to galaxies!
>
hanson wrote:
.... ahahahaha... Nobody made that claim, Sam. You being a
hardcore Einstein Dingleberry are of course not cognizant
of SEFC (Self Similarity/Emergence/Fractals&Chaos)....
Sam, like you so often say: "Google is your friend"... Try it, Sam.
ahahaha... ahahahanson


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From: Huang on

>
> > The statement was not 'the universe is a fractal'. It was: the universe
> > has a fractal structure.
> > The difference is, that the universe means: everything.
> > The assumption is, that the universe is organized with kind of steps,
> > that are self-similar. The steps we know of are: sub-atomic, atoms,
> > planets, planetary systems, galaxies, galaxy clusters, super-clusters.
>
> > TH



I will agree that galaxies looks like vortices.
I will agree that atoms looks like vortices.
I will agree that solar systems looks like vortices.
I will agree that eddie currents looks like vortices.
I would even agree that living organisms looks like vortices.

But so does my toilet when I flush. Makes a real nice vortice.

A vortice or eddie is nothing but a particular type of geometric /
dynamical thing. What is the difference between this form and lines,
points, or planes.

If I see large volumes, and inside the large volumes there are smaller
ones, and so on, they why cant I just say that spacetime itself is a
fractal because the property of volume exists on all scales and so you
have self similarity based on the notion of length, area, volume or
whatever ?

You want to do this with dynamics. I agree, the universe may look like
that in ways. But visual inspection and mathematical analysis are 2
dif things. What happens to the fractal on the quantum scale - thats
what I'd like to know. Kinematic equations do not work in QM, the
planetary model failed see : Neils Bohr, Bohr Atom, etc.


From: Sam Wormley on
On 7/4/10 1:33 PM, Huang wrote:
> I will agree that galaxies looks like vortices.

The majority of galaxies are not spirals!


> I will agree that atoms looks like vortices.

Atoms don't "look like" or behave like vortices!


> I will agree that solar systems looks like vortices.

Planetary system do not rotate like vortices. For our
solar system to rotate like a vortex, angular momentum
divided by mass for each planet would be the same. And
of course, that is not the case.

> I will agree that eddie currents looks like vortices.

Eddy currents are source, geometry and material dependent.
In general they are not vorticies in any sense.

> I would even agree that living organisms looks like vortices.

Perhaps you do, but my frog does not.

=
From: Thomas Heger on
Huang schrieb:
>>> The statement was not 'the universe is a fractal'. It was: the universe
>>> has a fractal structure.
>>> The difference is, that the universe means: everything.
>>> The assumption is, that the universe is organized with kind of steps,
>>> that are self-similar. The steps we know of are: sub-atomic, atoms,
>>> planets, planetary systems, galaxies, galaxy clusters, super-clusters.
>>> TH
>
>
>
> I will agree that galaxies looks like vortices.
> I will agree that atoms looks like vortices.
> I will agree that solar systems looks like vortices.
> I will agree that eddie currents looks like vortices.
> I would even agree that living organisms looks like vortices.
>
> But so does my toilet when I flush. Makes a real nice vortice.
>
> A vortice or eddie is nothing but a particular type of geometric /
> dynamical thing. What is the difference between this form and lines,
> points, or planes.
>
> If I see large volumes, and inside the large volumes there are smaller
> ones, and so on, they why cant I just say that spacetime itself is a
> fractal because the property of volume exists on all scales and so you
> have self similarity based on the notion of length, area, volume or
> whatever ?
>
> You want to do this with dynamics. I agree, the universe may look like
> that in ways. But visual inspection and mathematical analysis are 2
> dif things. What happens to the fractal on the quantum scale - thats
> what I'd like to know. Kinematic equations do not work in QM, the
> planetary model failed see : Neils Bohr, Bohr Atom, etc.
>

The fractal is created this way:

We take a spherical structure of some size, say an apple, (what is a
good example of this form of a vortex).
This is not perfectly a sphere, but has an axis, we call timelike. The
equator is spinning inside the connectors of the poles. This spin is
called spacelike and is perpendicular to the axis.
The system is 'lefthanded', what means the left hands thumb points
towards the future and the other fingers in the direction of the spin.
The connectors return to the other pole, while the sphere would spin.
Inside the sphere we have a screw (or a vortex, if we look from the top).
This is the general scheme. The size of this form is scaled up or down,
and the small vortices are embedded inside the larger ones, going up or
down to infinity.
Any such 'step' has a typical frequency, depending on the size of the
sphere. Larger spheres have lower frequencies, going up or down to
infinity. Infinitely low is zero frequency or stability. Infinitely high
frequency is a point or a singularity.
Now we need to rotate the picture and make the singularity expand, while
the infinite large sphere would contract, but simultaneously.
This alters the relations and the spacelike rotation gets timelike (or
contracts), while the timelike connections expand.

TH