From: Androcles on

"artful" <artful_me(a)hotmail.com> wrote in message
news:2060cdf4-c3d9-42a2-b530-68990885a929(a)u41g2000yqe.googlegroups.com...
On Jan 26, 6:31 am, cjcountess <cjcount...(a)yahoo.com> wrote:
> From same
> bookhttp://books.google.com/books?id=PDA8YcvMc_QC&pg=PA263&lpg=PA263&dq=e...

I've found a copy of the book and the relevant section.

The formula is for the mass-equivalence of the photon energy, not the
energy itself (ie it is a mass value, not an energy value)

So with

E = hf

E = Mc^2

you get

M = hf/c^2

It is unfortunate that Wheeler chose to use E for the mass-equivalence
value, instead of (say) M.

You usage of it as a formula for energy is incorrect, along with many
other basic physics / logic / math mistakes.
=================================================
So if f = Mc^2/h, and c^2/h is constant, is a gram B-sharp, C, E or F-flat?



From: kado on
On Jan 26, 3:36 pm, artful <artful...(a)hotmail.com> wrote:

>
> It is unfortunate that Wheeler chose to use E for the mass-equivalence
> value, instead of (say) M.
>
> You usage of it as a formula for energy is incorrect, along with many
> other basic physics / logic / math mistakes.

True.

But it's not only Wheeler that made this
mistake.

Einstein originated it.

So he (Einstein) converted the mathematical
equations of energy as if these were mass
equations, etc. and visa versa, to arrive at
the (mistaken) notion that energy and mass
are essentially alike. (That's why I stated
that Einstein employed a convoluted and
illogical means to arrive at E = mc^2 in an
earlier post.

This mistake is apparent in the title of the
paper that contains Einstein's math equation
of E = mc^2. The title is:

“Does the inertia of a body depend on its
energy content?”

The answer should have been in 1905, and
must now be a flat NO (in capitals) from
mainline science. A body exhibits inertia only
when a force acts upon it to change its state
of inertia (i.e., its momentum and/or moment
of inertia).

Furthermore, the 'energy content' (this is not
even a correct concept of a dynamic quality
of a body in motion) is immaterial to its
inertia.
(That is, the dynamic quality of a body
moving in a straight line at a constant speed
is momentum, not inertia!)

In other words; Einstein's Special Relativity
addresses only straight line motion at a
constant speed (i.e., velocity, wherein there
is no change of momentum) and the concept
of inertia just flat does not apply.

The acceptance of E = mc^2 just
demonstrates that in addition mass, force,
and time; most of mainline science does not
truly understand inertia, and even momentum.
(The latter most likely due to misconstruing
Newton's Three Laws of Momentum. There is
a whole lot of evidence that mainline science
has the concept of Newtonian momentum all
screwed up that are disclosed in my treatise,
but to convince mainline science this is so will
possibly take even longer than it took to try to
explain the nonphysical, that I know not all of
you accept.)


D. Y. Kadoshima

From: artful on
On Jan 27, 8:22 pm, k...(a)nventure.com wrote:
> On Jan 26, 3:36 pm, artful <artful...(a)hotmail.com> wrote:
>
>
>
> > It is unfortunate that Wheeler chose to use E for the mass-equivalence
> > value, instead of (say) M.
>
> > You usage of it as a formula for energy is incorrect, along with many
> > other basic physics / logic / math mistakes.
>
> True.
>
> But it's not only Wheeler that made this
> mistake.
>
> Einstein originated it.

As I understand, he didn't use 'E' as a symbol for mass, which was
Wheeler 'mistake'

> So he (Einstein) converted the mathematical
> equations of energy as if these were mass
> equations, etc. and visa versa, to arrive at
> the (mistaken) notion that energy and mass
> are essentially alike.

Was that before or after he had derived that mass is equivalent to
energy

> (That's why I stated
> that Einstein employed a convoluted and
> illogical means to arrive at E = mc^2 in an
> earlier post.
>
> This mistake is apparent in the title of the
> paper that contains Einstein's math equation
> of E = mc^2. The title is:
>
> “Does the inertia of a body depend on its
> energy content?”

If E = mc^2, then one can say that the energy equivalent of the rest
mass is part of the total energy.

> The answer should have been in 1905, and
> must now be a flat NO (in capitals) from
> mainline science.

Why?

> A body exhibits inertia only
> when a force acts upon it to change its state
> of inertia (i.e., its momentum and/or moment
> of  inertia).

And that inertia is measured by its inertial mass, which has an energy
equivalent.

Note that that doesn't necessarily mean that mass is the same as
energy .. just as E = hf doesn't mean that energy is the same as
frequency.

> Furthermore, the 'energy content' (this is not
> even a correct concept of a dynamic quality
> of a body in motion) is immaterial to its
> inertia.

If the total energy content includes the energy equivalent to its
mass, then it does

> (That is, the dynamic quality of a body
> moving in a straight line at a constant speed
> is momentum, not inertia!)

Indeed it is. But that distinction doesn't seem to help your
argument.

> In other words; Einstein's Special Relativity
> addresses only straight line motion at a
> constant speed (i.e., velocity, wherein there
> is no change of momentum) and the concept
> of inertia just flat does not apply.

The concept of mass does, and that is very closely related to inertia

> The acceptance of E = mc^2 just
> demonstrates that in addition mass, force,
> and time; most of mainline science does not
> truly understand inertia, and even momentum.

I don't think anyone does (mainline or not) .. perhaps we never will.
We can measure it, we cna find relationship between them. But we
don't *really* know what they are.

> (The latter most likely due to misconstruing
> Newton's Three Laws of Momentum. There is
> a whole lot of evidence that mainline science
> has the concept of Newtonian momentum all
> screwed up that are disclosed in my treatise,
> but to convince mainline science this is so will
> possibly take even longer than it took to try to
> explain the nonphysical, that I know not all of
> you accept.)

Yet Newtons laws, as mainstream science now understands/interprets
them, work very well. If they are somewhat different to Newtons
original notions, then does that necessarily mean they are wrong?
Surely the proof is in how well they model nature .. not how well they
were translated.
From: cjcountess on
Sure there are alot of things in my work that need clerifing, for it
is a very comprehensive and revolutionary idea, that goes against the
grain of lots of preconcieved postulates, like conservation of mass
and energy, and dimensional analisis, vector addition, the square root
of -1 is only imaginary number, uncertainty principle, and so on.
As such, I must be either very sure of this, and see it very clearly
in my own mind, or am very foolish to propose something so
revolutionary, thats goes against so much of the grain of modern
physics,
I assure you, it is the former. I see this very clearly and
geometricaly, and it is only a matter of time before it is clearly
seen by others as well.
But geometry reveals more than mere linier equations, and I even
collaborate with otheres who use geometry to explain, (sqrt-1) and
(uncertainty principle) geometricaly, and I use geometry to show that
(c^2 = c^circled), and that (c^2), is a frequency/wavelength, where
energy turns to and equals matter, because it takes on a circular and
or spherical rotation, when "c", in liniear direction, equals and
balences "c", in 90 degree angular direction, to create a 90 degree
arc, which if constant creates a circle, and balence of centripital
and centrifugal forces, and circular motion.
"c", as a natural unit 1, pointing straight up along vertical axis,
which gives rise to 90 degree arc counterclockwise rotation, (the
foundation for the circle which it creates if constant), also
represents (sqrt-1), in the geometrical sense, mentioned in book,
An Imaginary Tale: The Story of the Square Root of -1
by Paul J. Nahin

But I carry it further to show that (cxc or c^2), actualy leads to a
"standing spherical wave", making two rotations, in order to complete
one wave, cycle (spin1/2), spins backwaed counter to its trajectory,
(-1charge) and has angular momentum of (h/2pi/2).
All of this coincides with measurements of electron, and emperical
evidence, even the latest on utube, of electron, which seems to be a
"standing spherical wave orbiting about 2 axis"

Latest Evidence
Latest evidence on geometrical structure of electron from site:
http://www.youtube.com/watch?v=ofp-OHIq6Wo&feature=related
entitled: Scientists in Sweden film moving electron for the first
time.
It resembles a elongated standing spherical wave, rotating about two
axis, fitting description which I have geometrically demonstrated, as
opposed to a point particle or probability wave.


Conrad J Countess

P.S.
As for (E=hf/c^2), being wrong, its good to know that I am in good
company, "Wheeler and Einstein".
And as I said before, I realy don't need it to prove my idea, as there
is just so much evidence, that fits together so seamlessly, to form
such a clear and complete picture, backed by emperical evidence, that
it seems statisticaly very improbable, that it is wrong.

From: kado on
On Jan 26, 3:36 pm, artful <artful...(a)hotmail.com> wrote:
>
> I've found a copy of the book and the relevant section.
>

If you would, I would very much appreciate if you
would post the date this book was published and if
Wheeler used the kilogram or the gram as the
fundamental unit of measure for mass.

These may seem trivial, but these have a bearing on
how I try to clarify your next post.

Thanking you in advance.

D.Y.K.