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Natural Science Forum / Physics / General Physics / February 2008



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LEE SMOLIN AGAINST ISAAC NEWTON

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Pentcho Valev - 06 Feb 2008 07:34 GMT
http://philipball.blogspot.com/2007/09/arthur-eddington-was-innocent-this-is.html
"With the technology then available, measuring the bending of
starlight was very challenging. And contrary to popular belief,
Newtonian physics did not predict that light would remain undeflected
- Einstein himself pointed out in 1911 that Newtonian gravity should
cause some deviation too. So the matter was not that of an all-or-
nothing shift in stars' positions, but hinged on the exact numbers."

However Budding Young Einsteins are taught in a different way:

http://pirsa.org/speaker/Lee_Smolin
Lee Smolin - ISSYP Keynote Session
Speaker(s): Lee Smolin
Abstract:
Date: 01/08/2007 - 1:00 pm

http://streamer.perimeterinstitute.ca/mediasite/viewer/?peid=5f32739a-624d-4ec8-
9ecc-4d44d3d16fe9

Lee Smolin: "Newton's theory predicts that light goes in straight
lines and therefore if the star passes behind the sun, we can't see
it. Einstein's theory predicts that light is bent...."

Pentcho Valev
pvalev@yahoo.com
srp2inc@gmail.com - 06 Feb 2008 15:33 GMT
> http://philipball.blogspot.com/2007/09/arthur-eddington-was-innocent-...
> "With the technology then available, measuring the bending of
[quoted text clipped - 3 lines]
> cause some deviation too. So the matter was not that of an all-or-
> nothing shift in stars' positions, but hinged on the exact numbers."

Right.

Classical Newtonian mechanics predicts that light will bend with
twice the angle observed.

Relativistic Newtonian mechanics however predicts the correct
angle since it is now understood that only half a photon's energy
is sensitive to transverse interaction.

> However Budding Young Einsteins are taught in a different way:
>
[quoted text clipped - 11 lines]
> Pentcho Valev
> pva...@yahoo.com

Agreed. Outright falsehood. Probably plain ignorance on the part
of this author.

André Michaud
Pentcho Valev - 06 Feb 2008 15:52 GMT
On Feb 6, 5:33 pm, srp2...@gmail.com wrote:

> >http://philipball.blogspot.com/2007/09/arthur-eddington-was-innocent-...
> > "With the technology then available, measuring the bending of
[quoted text clipped - 12 lines]
> angle since it is now understood that only half a photon's energy
> is sensitive to transverse interaction.

If you wish your analysis to be complete, you should discuss
Einstein's 1911 equation c'=c(1+V/c^2) showing how the speed of light
varies with the gravitational potential V. Note that c'=c(1+V/c^2) is
consistent with the gravitational redshift factor 1+V/c^2 confirmed
experimentally:

http://www.blazelabs.com/f-g-gcont.asp "The first confirmation of a
long range variation in the speed of light travelling in space came in
1964. Irwin Shapiro, it seems, was the first to make use of a
previously forgotten facet of general relativity theory -- that the
speed of light is reduced when it passes through a gravitational
field....Faced with this evidence, Einstein stated:"In the second
place our result shows that, according to the general theory of
relativity, the law of the constancy of the velocity of light in
vacuo, which constitutes one of the two fundamental assumptions in the
special theory of relativity and to which we have already frequently
referred, cannot claim any unlimited validity. A curvature of rays of
light can only take place when the velocity of propagation of light
varies with position."......Today we find that since the Special
Theory of Relativity unfortunately became part of the so called
mainstream science, it is considered a sacrilege to even suggest that
the speed of light be anything other than a constant. This is somewhat
surprising since even Einstein himself suggested in a paper "On the
Influence of Gravitation on the Propagation of Light," Annalen der
Physik, 35, 1911, that the speed of light might vary with the
gravitational potential. Indeed, the variation of the speed of light
in a vacuum or space is explicitly shown in Einstein's calculation for
the angle at which light should bend upon the influence of gravity.
One can find his calculation in his paper. The result is c'=c(1+V/c^2)
where V is the gravitational potential relative to the point where the
measurement is taken. 1+V/c^2 is also known as the GRAVITATIONAL
REDSHIFT FACTOR."

Note also that, by applying Einstein's equivalence principle, you can
prove that c'=c(1+V/c^2) is equivalent to c'=c+v, an equation given by
Newton's emission theory and showing how the speed of light varies
with v, the relative speed of the light source and the observer, in
the absence of a gravitational field.

Pentcho Valev
pvalev@yahoo.com

> > However Budding Young Einsteins are taught in a different way:
>
[quoted text clipped - 16 lines]
>
> André Michaud
srp2inc@gmail.com - 06 Feb 2008 17:50 GMT
> On Feb 6, 5:33 pm, srp2...@gmail.com wrote:
>
[quoted text clipped - 27 lines]
> speed of light is reduced when it passes through a gravitational
> field....

This simply is impossible. From electromagnetic theory and
confirming observation, when em radiation moves deeper into
a gravity field, its energy increases but its velocity doesn't
change, and the opposite when radiation moves away from a
gravity field, its energy diminishes but its velocity remains
constant.

Doppler radars would not work even here on earth if this
was not the case, and they do work perfectly, based on
the underlying principle that the speed of light is
constant.

> Faced with this evidence, Einstein stated:"In the second
> place our result shows that, according to the general theory of
[quoted text clipped - 23 lines]
> with v, the relative speed of the light source and the observer, in
> the absence of a gravitational field.

My analysis is complete. The verified invariance of the speed of
light has nothing to do with GR or even SR. It is an electromagnetic
property of em radiation.

Whatever Einstein or anyone else could have said to the contrary
reveals only partial understanding of electromagnetism at the time
of statement.

André Michaud
Pentcho Valev - 07 Feb 2008 06:56 GMT
On Feb 6, 7:50 pm, srp2...@gmail.com wrote:

> > On Feb 6, 5:33 pm, srp2...@gmail.com wrote:
>
[quoted text clipped - 75 lines]
> reveals only partial understanding of electromagnetism at the time
> of statement.

No you cannot just avoid the discussion of the following five points:

(1) Frequency shift in a gravitational field (confirmed experimentally
by Pound and Rebka): f'=f(1+V/c^2)

(2) Speed of light shift in a gravitational field (Einstein's 1911
equation): c'=c(1+V/c^2)

(3) Textbook equation demonstrating consistency between (1) and (2):
(frequency)=(speed of light)/(wavelength)

(4) Newton's emission theory's equation (absence of a gravitational
field): c'=c+v

(5) Einstein's equivalence principle allowing one to PROVE equivalence
between (2) and (4).

If you do not agree with (2) and insist on the speed of light being
constant in a gravitational field, then your should (re)interprete
(1), (3), (4) and (5) accordingly.

Pentcho Valev
pvalev@yahoo.com
Pentcho Valev - 23 Feb 2008 13:20 GMT
> On Feb 6, 9:34 am, Pentcho Valev <pva...@yahoo.com> wrote:
>
[quoted text clipped - 91 lines]
> simple and familiar. He introduced his second postulate, more or less
> evident as one thinks in terms of waves in aether."

Yes criminal Einsteinians are mysterious individuals. They are either
extremely silly or extremely dishonest or both but one can never be
sure:

http://edge.org/3rd_culture/smolin03/smolin03_index.html
Lee Smolin: "Now, here is the really interesting part: Some of the
effects predicted by the theory appear to be in conflict with one of
the principles of Einstein's special theory of relativity, the theory
that says that the speed of light is a universal constant. It's the
same for all photons, and it is independent of the motion of the
sender or observer. How is this possible, if that theory is itself
based on the principles of relativity? The principle of the constancy
of the speed of light is part of special relativity, but we quantized
Einstein's general theory of relativity. Because Einstein's special
theory is only a kind of approximation to his general theory, we can
implement the principles of the latter but find modifications to the
former. And this is what seems to be happening! So Gambini, Pullin,
and others calculated how light travels in a quantum geometry and
found that the theory predicts that the speed of light has a small
dependence on energy. Photons of higher energy travel slightly slower
than low-energy photons....A very exciting question we are now
wrestling with is, How drastically shall we be forced to modify
Einstein's special theory of relativity if the predicted effect is
observed? The most severe possibility is that the principle of
relativity simply fails....But there is another possibility. This is
that the principle of relativity is preserved, but Einstein's special
theory of relativity requires modification so as to allow photons to
have a speed that depends on energy. The most shocking thing I have
learned in the last year is that this is a real possibility. A photon
can have an energy-dependent speed without violating the principle of
relativity!"

Pentcho Valev
pvalev@yahoo.com
Androcles - 06 Feb 2008 16:48 GMT
On 6 fév, 02:34, Pentcho Valev <pva...@yahoo.com> wrote:
> http://philipball.blogspot.com/2007/09/arthur-eddington-was-innocent-...
> "With the technology then available, measuring the bending of
[quoted text clipped - 3 lines]
> cause some deviation too. So the matter was not that of an all-or-
> nothing shift in stars' positions, but hinged on the exact numbers."

| Right.

| Classical Newtonian mechanics predicts that light will bend with
| twice the angle observed.

How?
srp2inc@gmail.com - 06 Feb 2008 16:58 GMT
> <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 15 lines]
>
> How?

Lapsus. Its the reverse.

I meant to write half the angle observed. and for corrected
relativistic
Newtonian, the angle is twice that of classical Newtonian, as is
observed.

André Michaud
Androcles - 06 Feb 2008 17:15 GMT
On 6 fév, 11:48, "Androcles" <Headmas...@Hogwarts.physics> wrote:
> <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 15 lines]
>
> How?

| Lapsus. Its the reverse.

| I meant to write half the angle observed. and for corrected
| relativistic
| Newtonian, the angle is twice that of classical Newtonian, as is
| observed.

Ok, but my real question is how does classical Newtonian mechanics
prophesy that light will bend at all? It does, I'm wondering if you,
Eddington or Einstein knows how.
srp2inc@gmail.com - 06 Feb 2008 17:36 GMT
> <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 31 lines]
> prophesy that light will bend at all? It does, I'm wondering if you,
> Eddington or Einstein knows how.

They certainly did since Einstein did the calculation himself.
And I do too.

Explained summarily, to proceed, for the requirements of
calculation he converted the energy of a photon to its
equivalent mass (m=E/c^2) and proceeded to calculate
the deflection of theoretical "masses" for visible light
photons as they grazed the Sun mass.

This gave half the deflection angle that was later observed.

His calculations are in a paper from 1911 titled
"Über den Einfluß der Schwerkraft auf die Ausbreitung
des Lichter"

He later 1915 corrected the figures and obtained the
right deflection (twice that of classical Newtonian).

However, the same correct deflection angle can easily
be obtained from upgraded relativistic Newtonian,
something that has never been documented, since the
1919 Eddington et al. observation was specifically
meant to prove the superiority of GR over classical
mechanics.

Just like the community never considered confirming
atomic clock speeding up with altitude with parallel
mechanical clocks experiments.

They were not looking for the truth, but to prove
a point.

André Michaud
Androcles - 06 Feb 2008 20:04 GMT
On 6 fév, 12:15, "Androcles" <Headmas...@Hogwarts.physics> wrote:
> <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 30 lines]
> prophesy that light will bend at all? It does, I'm wondering if you,
> Eddington or Einstein knows how.

| They certainly did since Einstein did the calculation himself.
| And I do too.

| Explained summarily, to proceed, for the requirements of
| calculation he converted the energy of a photon to its
| equivalent mass (m=E/c^2) and proceeded to calculate
| the deflection of theoretical "masses" for visible light
| photons as they grazed the Sun mass.

| This gave half the deflection angle that was later observed.

| His calculations are in a paper from 1911 titled
| "Über den Einfluß der Schwerkraft auf die Ausbreitung
| des Lichter"

| He later 1915 corrected the figures and obtained the
| right deflection (twice that of classical Newtonian).

| However, the same correct deflection angle can easily
| be obtained from upgraded relativistic Newtonian,
| something that has never been documented, since the
| 1919 Eddington et al. observation was specifically
| meant to prove the superiority of GR over classical
| mechanics.

| Just like the community never considered confirming
| atomic clock speeding up with altitude with parallel
| mechanical clocks experiments.

| They were not looking for the truth, but to prove
| a point.

Androcles' third law:
For every photon there is an equal and opposite rephoton.
http://www.androcles01.pwp.blueyonder.co.uk/rephoton.gif
(from Newton's third law and Huygens's wave superposition,
photons have direction and come in pairs)

The equivalent mass of a photon is  m = 2E/c^2, from which
one might surmise the gravitational deflection, should one know
the energy.

However,
 http://ww2010.atmos.uiuc.edu/(Gh)/guides/mtr/fw/gifs/coriolis.mov
Riding the Earth, you, Eddington and Einstein (who didn't bother
to look anyway, the only one that did is Eddington who obtained ONE
suitable photograph)  are observers on the roundabout. The light has
to curve. From simple trigonometry, the deflection has to be ~v/c.
A star in the direction of the Earth's travel will show no aberration,
a star at right angles will show maximum aberration. The observed
star close to the sun has to be identified in daylight and there is
further curvature as a result of refraction in Earth's atmosphere.
Fripounette - 06 Feb 2008 20:12 GMT
> On 6 fév, 12:15, "Androcles" <Headmas...@Hogwarts.physics> wrote:
>> <srp2...@gmail.com> wrote in message
> The equivalent mass of a photon is  m = 2E/c^2
Yes.
E=m*c^2   ----> m=E/c^2  multiplié par deux.
Parce qu'un photon passe par les deux fentes..... dans l'exprérience
de Young. et non par une seule fente. C'est bon?
Fripounette.
srp2inc@gmail.com - 06 Feb 2008 20:32 GMT
On 6 fév, 15:12, "Fripounette" <clementine.nectar...@mandarine.fr>
wrote:

> > <srp2...@gmail.com> wrote in message
> >news:6ba03bd0-12cf-4b68-a7e7-0b84a3e036c6@i12g2000prf.googlegroups.com...
> > On 6 fév, 12:15, "Androcles" <Headmas...@Hogwarts.physics> wrote:
> >> <srp2...@gmail.com> wrote in message
> > The equivalent mass of a photon is  m = 2E/c^2

Possible erreur d'attribution. Cette ligne n'a pas été écrite par
moi,
mais par Androcles

André Michaud

> Yes.
> E=m*c^2   ----> m=E/c^2  multiplié par deux.
> Parce qu'un photon passe par les deux fentes..... dans l'exprérience
> de Young. et non par une seule fente. C'est bon?
> Fripounette.
srp2inc@gmail.com - 06 Feb 2008 21:05 GMT
> <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 73 lines]
> (from Newton's third law and Huygens's wave superposition,
> photons have direction and come in pairs)

My view is de Broglie's on photons. I see them as complex
standing harmonic oscillators in motion, with only half
their energy oscillating electromagnetically. The other
half is is oriented in the direction of motion and is
thus impervious to transverse force interaction.

> The equivalent mass of a photon is  m = 2E/c^2,

Yes. Obvious and perfectly explained by relativistic Newtonian.

> from which one might surmise the gravitational deflection,
> should one know the energy.

Since it invariantly amounts to half the full quantum,
we always know the energy that maintains the velocity.

> However,
>  http://ww2010.atmos.uiuc.edu/(Gh)/guides/mtr/fw/gifs/coriolis.mov
> Riding the Earth, you, Eddington and Einstein (who didn't bother
> to look anyway, the only one that did is Eddington who obtained ONE
> suitable photograph)  are observers on the roundabout. The light has
> to curve. From simple trigonometry, the deflection has to be ~v/c.

This does not take into account that the permanent half-half
equilibrium of the photons energy (directed half plus oscillating
inert half) continuously takes up the slack so that v can equal no
other velocity than c.

Any energy added adds to both halves and any energy expended
subtracts from both halves.

This is what the de Broglie photon structure reveals.

>  A star in the direction of the Earth's travel will show no aberration,
> a star at right angles will show maximum aberration. The observed
> star close to the sun has to be identified in daylight and there is
> further curvature as a result of refraction in Earth's atmosphere.

Agreed.

André Michaud
Androcles - 06 Feb 2008 21:36 GMT
On 6 fév, 15:04, "Androcles" <Headmas...@Hogwarts.physics> wrote:
> <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 74 lines]
> (from Newton's third law and Huygens's wave superposition,
> photons have direction and come in pairs)

| My view is de Broglie's on photons. I see them as complex
| standing harmonic oscillators in motion, with only half
| their energy oscillating electromagnetically. The other
| half is is oriented in the direction of motion and is
| thus impervious to transverse force interaction.

Whilst I concur with "harmonic oscillators in motion"
 http://www.androcles01.pwp.blueyonder.co.uk/AC/AC.gif
 http://www.androcles01.pwp.blueyonder.co.uk/AC/Photon.gif
 http://www.androcles01.pwp.blueyonder.co.uk/photon.gif

inasmuch as a spinning bullet has energy in the spin and
energy of forward motion, I cannot agree to the ratio 1/2.
If one travels alongside the spinning bullet then it has no energy
of forward motion (which is necessarily relative) but retains
its energy of spin.

> The equivalent mass of a photon is  m = 2E/c^2,

Yes. Obvious and perfectly explained by relativistic Newtonian.

> from which one might surmise the gravitational deflection,
> should one know the energy.

| Since it invariantly amounts to half the full quantum,
| we always know the energy that maintains the velocity.

BUT!....
An object falling in a gravitational field accelerates alongside
an object with the same mass or twice that mass.
A photon of mass 2 will curve exactly the same as a photon
of mass 1. Therefore the mass or (mass equivalent) is irrelevant.

> However,
>  http://ww2010.atmos.uiuc.edu/(Gh)/guides/mtr/fw/gifs/coriolis.mov
> Riding the Earth, you, Eddington and Einstein (who didn't bother
> to look anyway, the only one that did is Eddington who obtained ONE
> suitable photograph)  are observers on the roundabout. The light has
> to curve. From simple trigonometry, the deflection has to be ~v/c.

| This does not take into account that the permanent half-half
| equilibrium of the photons energy (directed half plus oscillating
| inert half) continuously takes up the slack so that v can equal no
| other velocity than c.

You've misunderstood, v is the velocity of the Earth at right-angles
to the direction of the light and is approximately 0.0001c.
sin(v/c) ~= v/c for small angles. This has nothing to do with the
intrinsic oscillation, it is strictly the Coriolis effect.

| Any energy added adds to both halves and any energy expended
| subtracts from both halves.

| This is what the de Broglie photon structure reveals.

>  A star in the direction of the Earth's travel will show no aberration,
> a star at right angles will show maximum aberration. The observed
> star close to the sun has to be identified in daylight and there is
> further curvature as a result of refraction in Earth's atmosphere.

| Agreed.

André Michaud
srp2inc@gmail.com - 06 Feb 2008 21:54 GMT
> <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 90 lines]
>  http://www.androcles01.pwp.blueyonder.co.uk/AC/Photon.gif
>  http://www.androcles01.pwp.blueyonder.co.uk/photon.gif

I see. Standing dephased pi/2.

Does not accomodate real physical quantum localization.

In the 3-spaces model, the dephasing is 180 and 2 orthogonal
spaces allow the electromagnetic oscillation while a 3rd
orthogonal space (normal space) harbor the directed energy
sustaining the motion of the oscillating half.

> inasmuch as a spinning bullet has energy in the spin and
> energy of forward motion, I cannot agree to the ratio 1/2.
> If one travels alongside the spinning bullet then it has no energy
> of forward motion (which is necessarily relative) but retains
> its energy of spin.

This is where we differ. In relativistic Newtonian, if you
travel alongside the bullet, it can only mean that you have
sufficient energy in the forward motion yourself to be
able to travel alongside the moving bullet.

In the underlying 3-spaces model, the energy is not relative
but has physical existence. The energy of the speeding bullet
does not diminish as your own increases to catch up with it.

> > The equivalent mass of a photon is  m = 2E/c^2,
>
[quoted text clipped - 11 lines]
> A photon of mass 2 will curve exactly the same as a photon
> of mass 1

In the 3-spaces model, this is because its velocity sustaining
energy also falls to 1

For photons, acceleration only increases the total quantum
of energy. Does not affect the equilibrium velocity, which
is c.

> Therefore the mass or (mass equivalent) is irrelevant.

Yes.

> > However,
> >  http://ww2010.atmos.uiuc.edu/(Gh)/guides/mtr/fw/gifs/coriolis.mov
[quoted text clipped - 12 lines]
> sin(v/c) ~= v/c for small angles. This has nothing to do with the
> intrinsic oscillation, it is strictly the Coriolis effect.

Right. My bad.

André Michaud

> | Any energy added adds to both halves and any energy expended
> | subtracts from both halves.
[quoted text clipped - 7 lines]
>
> | Agreed.
Androcles - 06 Feb 2008 23:03 GMT
On 6 fév, 16:36, "Androcles" <Headmas...@Hogwarts.physics> wrote:
> <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 91 lines]
>  http://www.androcles01.pwp.blueyonder.co.uk/AC/Photon.gif
>  http://www.androcles01.pwp.blueyonder.co.uk/photon.gif

| I see. Standing dephased pi/2.

Of course... the magnetic field cannot be zero at the same
time as the electric field or energy would not be conserved.
E = -dB/dt

| Does not accomodate real physical quantum localization.

"If the facts don't fit the theory, change the facts." - Einstein.
I don't care about your real physical quantum localization, that
means nothing. Energy is conserved.

| In the 3-spaces model, the dephasing is 180 and 2 orthogonal
| spaces allow the electromagnetic oscillation while a 3rd
| orthogonal space (normal space) harbor the directed energy
| sustaining the motion of the oscillating half.

Then your model is wrong.

> inasmuch as a spinning bullet has energy in the spin and
> energy of forward motion, I cannot agree to the ratio 1/2.
> If one travels alongside the spinning bullet then it has no energy
> of forward motion (which is necessarily relative) but retains
> its energy of spin.

| This is where we differ. In relativistic Newtonian, if you
| travel alongside the bullet, it can only mean that you have
| sufficient energy in the forward motion yourself to be
| able to travel alongside the moving bullet.

We certainly do differ, I have no idea what "relativistic Newtonian" is.
In the real world I can spin a top while sitting in my chair, but I
certainly have enough energy to travel alongside it as it goes around
the Sun.

| In the underlying 3-spaces model, the energy is not relative
| but has physical existence. The energy of the speeding bullet
| does not diminish as your own increases to catch up with it.

A brick on a shelf has enough energy to break your toe, but
not if you happen to be in the attic with the shelf below you.
Energy is relative.

> > The equivalent mass of a photon is  m = 2E/c^2,
>
[quoted text clipped - 11 lines]
> A photon of mass 2 will curve exactly the same as a photon
> of mass 1

| In the 3-spaces model, this is because its velocity sustaining
| energy also falls to 1

KE = 1/2mv^2, v is relative, hence energy is relative.
More correctly, KE = 1/2mv^2.cos(phi).
A bullet traveling away from you can do no work on
your body and is therefore harmless. cos(pi) = -1
To reverse the bullet, first you must stop it, absorbing its
energy in (say) compressing a spring, and then give it back.

The energy of the cordite is converted to the KE of the bullet,
converted again to compress the spring and then converted
back into the KE of the bullet which is then absorbed as
heat tearing in hole in you.
 http://www.youtube.com/watch?v=HjYJTs4I5uY

| For photons, acceleration only increases the total quantum
| of energy. Does not affect the equilibrium velocity, which
| is c.

Acceleration is rate of change of velocity by definition.
Only in crackpot relativity does light travel at 2AB/(t'A-tA) = c,
both ways at once.
  http://www.fourmilab.ch/etexts/einstein/specrel/www/figures/img7.gif

> Therefore the mass or (mass equivalent) is irrelevant.

| Yes.

> > However,
> >  http://ww2010.atmos.uiuc.edu/(Gh)/guides/mtr/fw/gifs/coriolis.mov
[quoted text clipped - 12 lines]
> sin(v/c) ~= v/c for small angles. This has nothing to do with the
> intrinsic oscillation, it is strictly the Coriolis effect.

Right. My bad.

André Michaud

> | Any energy added adds to both halves and any energy expended
> | subtracts from both halves.
[quoted text clipped - 7 lines]
>
> | Agreed.
srp2inc@gmail.com - 07 Feb 2008 14:40 GMT
> <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 102 lines]
> time as the electric field or energy would not be conserved.
> E = -dB/dt

In 3D + time classical wave theory yes. But with 9D + time
it is perfectly possible. In fact, the only possibility turns
out to be pi dephasing to accomodate the full em oscillation
for localized em events.

> | Does not accomodate real physical quantum localization.
>
> "If the facts don't fit the theory, change the facts." - Einstein.
> I don't care about your real physical quantum localization, that
> means nothing. Energy is conserved.

Of course energy is conserved.

> | In the 3-spaces model, the dephasing is 180 and 2 orthogonal
> | spaces allow the electromagnetic oscillation while a 3rd
> | orthogonal space (normal space) harbor the directed energy
> | sustaining the motion of the oscillating half.
>
> Then your model is wrong.

Fine. Your loss.

André Michaud

> > inasmuch as a spinning bullet has energy in the spin and
> > energy of forward motion, I cannot agree to the ratio 1/2.
[quoted text clipped - 97 lines]
>
> > | Agreed.
Androcles - 07 Feb 2008 17:26 GMT
On 6 fév, 18:03, "Androcles" <Headmas...@Hogwarts.physics> wrote:
> <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 103 lines]
> time as the electric field or energy would not be conserved.
> E = -dB/dt

| In 3D + time classical wave theory yes.

Fine, that's the world I live in.

| But with 9D + time

Go away, crank, go live in your 9D universe.
Albertito - 06 Feb 2008 17:39 GMT
> <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 15 lines]
>
> How?

I'll tell you how. In order to see how newtonian gravity can
bend the trajectory of a photon, relativists fake it. They
magically tranform a photon with energy E into a particle
with mass m = E/2c^2, it is saying  half the mass in E = mc^2.
Then, relativists assume that particle passes by the massive
body from infinity travelling locally at c, and then they can
apply newtonian gravity to see how its trajectory is deflected
into a hyperbolic one. As a result there is a deflection angle
twice the observed one. A particle with mass m = E/c^2,
travelling locally at c from infinity, would be deflected in
the correct angle, under newtonian gravity.
Dono - 06 Feb 2008 18:30 GMT
On Feb 6, 9:39 am, AlbertShito <albertito1...@gmail.com>

> I'll tell you how. In order to see how newtonian gravity can
> bend the trajectory of a photon, relativists fake it. They
[quoted text clipped - 4 lines]
> apply newtonian gravity to see how its trajectory is deflected
> into a hyperbolic one.

No, little sh.t, the relativists don't do any of the above idiocies
you attribute to them.
Right now, you are just a little sh.t, when you grow up you will be a
big sh.t, like Kobee-Wublee for example.
Albertito - 06 Feb 2008 18:41 GMT
> On Feb 6, 9:39 am, AlbertShito <albertito1...@gmail.com>
>
[quoted text clipped - 11 lines]
> Right now, you are just a little sh.t, when you grow up you will be a
> big sh.t, like Kobee-Wublee for example.

dunnoshito dunnoshito still the same shito,
you punky
http://www.upload-images.net/imagen/58a516b007.jpg
Dono - 06 Feb 2008 19:00 GMT
On Feb 6, 10:41 am, AlbertShito <albertito1...@gmail.com>

> > No, little sh.t, the relativists don't do any of the above idiocies
> > you attribute to them.
> > Right now, you are just a little sh.t, when you grow up you will be a
> > big sh.t, like Kobee-Wublee for example.

I see, you are ALREADY a BIG sh.t.
Sorry for downgrading you to little sh.t. :-)
Randy Poe - 06 Feb 2008 18:54 GMT
> > <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 27 lines]
> travelling locally at c from infinity, would be deflected in
> the correct angle, under newtonian gravity.

Why don't you do the Newtonian calculation before
making this claim?

         - Randy
Albertito - 06 Feb 2008 19:00 GMT
> > > <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 32 lines]
>
>           - Randy

The calculations have been already done by you relativists,
http://www.theory.caltech.edu/people/patricia/obsertop.html
I'm only witness of that, and I see that if we double the mass
assumed for a photon we attain the correct answer.
Dono - 06 Feb 2008 19:11 GMT
On Feb 6, 11:00 am, AlbertShito <albertito1...@gmail.com> wrote:

> The calculations have been already done by you relativists,http://www.theory.caltech.edu/people/patricia/obsertop.html
> I'm only witness of that, and I see that if we double the mass
> assumed for a photon we attain the correct answer.>

Dumbshit,

In the link you cited, do you see the naive Newtonian approach?
Do you see the relativitic approach?
Do you see the difference, you despicable pile of dung?
Lady Chacha - 24 Feb 2008 14:59 GMT
Supertroll Dono trolled:

Dumbshit,

Do you see the difference, you despicable pile of dung?

Signature

Dono is concubine Lady Chacha

http://en.wikipedia.org/wiki/Yodo-Dono

Randy Poe - 06 Feb 2008 19:15 GMT
> > > > <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 34 lines]
>
> The calculations have been already done by you relativists,http://www.theory.caltech.edu/people/patricia/obsertop.html

Correct.

> I'm only witness of that, and I see that if we double the mass
> assumed for a photon we attain the correct answer.

There are a great many assumptions in those
equations which you are not aware of. You are trying
to change the meaning of the symbols midstream.

Here's what those orbital mechanics equations look like for
planetary orbits:
http://www.go.ednet.ns.ca/~larry/orbits/kepler.html
Note that E is the sum of kinetic energy and potential
energy. So what are you going to use for this E? Do
you really want to use mc^2 and claim it's a Newtonian
model?

If you were doing Newtonian gravitation the way Newton
did it to calculate the planetary orbits, you'd say
the kinetic energy is (1/2)*mc^2, and the potential
energy is -GMm/r. Then you'd find out that the mass m
drops out, that is the parameter E/m = [c^2/2 - GM/r]
does not depend on m.

Let's start from the basics: What is the initial velocity,
what is the acceleration, what is the result?

Start out with a velocity c, mass m, distance R
as it passes near mass M.

The acceleration experienced by the mass m is
GM/R^2. That is what you would apply to the velocity
vector to get the change in velocity. It does not
depend on m.

Trajectories of small bodies through solar systems do
not depend on mass.

           - Randy
Albertito - 06 Feb 2008 19:57 GMT
> > > > > <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 73 lines]
>
>             - Randy

It's simpler than that. Under newtonian gravity you never
can say that a photon is predicted to be deflected by twice
the correct angle, because under newtonian gravity photons
can't be addressed at all, only bodies with mass. You never
can fake a photon to behave as a particle with non-zero mass,
that's unphysical. If you do fake a photon to behave so, then
you attain a particle with mass travelling at c, which is impossible
under your assumptions (i.e nothing with mass can travel at c).
Randy Poe - 06 Feb 2008 20:10 GMT
> > > > > > <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 76 lines]
> the correct angle, because under newtonian gravity photons
> can't be addressed at all, only bodies with mass.

Right. Unless you assume it has mass, as people did
long before Einstein.

Once you do, the path is independent of whatever
mass you assume, just as any Newtonian path is.

> You never
> can fake a photon to behave as a particle with non-zero mass,
> that's unphysical. If you do fake a photon to behave so, then
> you attain a particle with mass travelling at c, which is impossible
> under your assumptions (i.e nothing with mass can travel at c).

What point are you trying to make? If the photon
truly has no mass (as we believe) then the Newtonian
model says it won't be deflected. Therefore gravitational
lensing won't happen.

Yet you seemed to be making a claim that there is
a Newtonian model that would predict light
bending. Presumably that would involve assuming
a nonzero mass.

So which model are you proposing? Is it
(a) the photon has no mass, so Newton says it
doesn't bend, or

(b) the photon has a mass, so Newton says it
bends (at half the GR prediction) independent
of mass?

You seemed to be proposing a third model which
was
(c) the photon has a mass, and unlike every other
calculation with Newtonian gravity, the trajectory
depends on mass.

Is that your claim? Stick to one model and we
can follow the consequences. Does the photon have
mass or not? Do you claim Newton predicts bending
or not?

         - Randy
Albertito - 07 Feb 2008 10:08 GMT
> > > > > > > <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 93 lines]
> model says it won't be deflected. Therefore gravitational
> lensing won't happen.

To claim that a theory predicts a photon will
not be deflected and to claim photons are outside
the domain of applicability of a theory are not
the same claim. Photons are outside the domain of
applicability of newtonian gravity. Therefore,
newtonian gravity gives no answers to questions
concerning photons. Newtonian gravity is concerned
with neutral bulk matter, not with bosons. Even if
it were found out that photons have mass, newtonian
gravity would still remain without answers for them,
because they would still be bosons. If it were found
out that photons can decay into neutrinos, then
newtonian gravity would account for the gravitational
behavior of those neutrinos. Finally, I can conclude
saying that newtonian gravity deals only with fermionic
particles (half-integer spin), not with bosonic particles
(integer spin).

[snipped already answered redundant questions, above]
Randy Poe - 07 Feb 2008 14:55 GMT
> > > > > > > > <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 99 lines]
> the same claim. Photons are outside the domain of
> applicability of newtonian gravity.

If massless. This is part of the standard model and would
certainly upset a lot of modern physics if false, but
it's still a caveat in all your statements, an assumption
you're making.

Thus the only theory which predicts deflection of photons
in gravitational fields (to date) is GR. Are we agreeing
on this?

If so, I can't figure out what anti-relativistic stance
you're trying to make.

> Therefore,
> newtonian gravity gives no answers to questions
> concerning photons.

Unless you assume gravitational mass which is nonzero.

Once you do, you get a deflection which is half the
GR prediction.

What YOU stated was that the deflection depends on the
assumed mass. It does not.

YOU are the one claiming that a Newtonian calculation
is possible which will show deflection, if you assume
the right mass. Are you backing off of that?

> Newtonian gravity is concerned
> with neutral bulk matter, not with bosons.

Newtonian gravity is concerned with anything with
mass.

> Even if
> it were found out that photons have mass, newtonian
> gravity would still remain without answers for them,
> because they would still be bosons.

???

And where are you getting this from?

So what's your point? Are you backing off your claim
that the evil relativists goofed on the Newtonian
calculation and if they did it right, Newtonian
gravity would predict the correct deflection?

Because that seems to contradict this post.

           - Randy
Albertito - 07 Feb 2008 16:11 GMT
> > > > > > > > > <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 108 lines]
> in gravitational fields (to date) is GR. Are we agreeing
> on this?

Yes, GR tries to predict deflection of photons, and it works
nearly fine :-)

> If so, I can't figure out what anti-relativistic stance
> you're trying to make.

Are you seeing in my stance any anti-relativist fashion?.
I only say that newtonian gravity can't address bosons,
and that it is not correct claiming that newtonian gravity
predicts half the correct deflection angle. Even for W(+),
W(-) and Z bosons, which have mass, newtonian gravity
can't predict their respective deflection angles. Bosons
are outside the domain of applicability of newtonian gravity.

> > Therefore,
> > newtonian gravity gives no answers to questions
[quoted text clipped - 4 lines]
> Once you do, you get a deflection which is half the
> GR prediction.

No. It is clear that gravity behaves differently for fermions
that for bosons (included bosons with nonzero mass).

> What YOU stated was that the deflection depends on the
> assumed mass. It does not.
>
> YOU are the one claiming that a Newtonian calculation
> is possible which will show deflection, if you assume
> the right mass. Are you backing off of that?

No, I only said that if you can say that newtonian
gravity predicts half the correct angle, then I could
also say that newtonian gravity can predict the correct
angle if you assume the right mass for a fake photon.

> > Newtonian gravity is concerned
> > with neutral bulk matter, not with bosons.
>
> Newtonian gravity is concerned with anything with
> mass.

No. Newtonian gravity is not concerned with bosons,
regardless they are massless or not.

> > Even if
> > it were found out that photons have mass, newtonian
[quoted text clipped - 4 lines]
>
> And where are you getting this from?

This should need a new dedicated thread to
explain you where :-) . But, I'll give you a clue.
Pauli exclusion principle.

> So what's your point? Are you backing off your claim
> that the evil relativists goofed on the Newtonian
> calculation and if they did it right, Newtonian
> gravity would predict the correct deflection?
>
> Because that seems to contradict this post.

No, see above
Randy Poe - 07 Feb 2008 16:51 GMT
> > Thus the only theory which predicts deflection of photons
> > in gravitational fields (to date) is GR. Are we agreeing
> > on this?
>
> Yes, GR tries to predict deflection of photons, and it works
> nearly fine :-)

Where does it fail in predicting deflection of
photons?

> > If so, I can't figure out what anti-relativistic stance
> > you're trying to make.
>
> Are you seeing in my stance any anti-relativist fashion?.

Yes. Since you've been on the newsgroup. In practically
every post.

> I only say that newtonian gravity can't address bosons,
> and that it is not correct claiming that newtonian gravity
> predicts half the correct deflection angle. Even for W(+),
> W(-) and Z bosons, which have mass, newtonian gravity
> can't predict their respective deflection angles. Bosons
> are outside the domain of applicability of newtonian gravity.

Why do you declare this? Newtonian gravity predicts
the interaction of masses. What is special about these
masses that makes them exempt?

> > > Therefore,
> > > newtonian gravity gives no answers to questions
[quoted text clipped - 7 lines]
> No. It is clear that gravity behaves differently for fermions
> that for bosons (included bosons with nonzero mass).

It is clear from what? Show your reasoning. By
"Newtonian gravity" you still seem to have something
other than F = GMm/r^2 in mind, since that is silent on
fermions, bosons, or any property other than mass.

> > What YOU stated was that the deflection depends on the
> > assumed mass. It does not.
[quoted text clipped - 7 lines]
> also say that newtonian gravity can predict the correct
> angle if you assume the right mass for a fake photon.

Ah... finally we get to an assertion about Newtonian
gravity. So the answer is "Yes", not "No". You claim
that you could do a Newtonian prediction with a different
mass and get a different deflection. Or by saying
"can predict the correct angle" you don't really
mean getting a different answer from "half the correct
angle".

Once again, you are saying that if you change the
mass, you'll get a different angle. Yes?

Fine. The answer is No. Not in standard Newtonian
mechanics. There is nothing about the trajectory
of small masses near large ones which depends on the
small mass.

What you are talking about is the parameter E/m,
the ratio of total energy (kinetic plus gravitational
potential) to mass.

In Newtonian mechanics, KE = 0.5*mv^2. So there is
no possible ratio E/m except [0.5*v^2 - GM/r], a
quantity which you will note does not depend on m.

Now, what you are REALLY claiming is that if we use
E/m = c^2, then the "Newtonian" prediction would be
a different angle. Look at the web page you cited
again.

On that I certainly agree. But that's not Newtonian
mechanics. You are using a non-Newtonian expression
for KE. If you use Newtonian mechanics, then E/m = c^2
for any mass moving at c. And if you don't change
E/m, then what happens to those formulas you were
looking at?

I tried to get you to see this by talking about
planetary orbits. The orbital parameters of a satellite
around the earth, or of a planet around the sun, do
NOT depend on the mass of the satellite/planet. You
won't get a different trajectory by changing mass.

            - Randy
> > > Even if
> > > it were found out that photons have mass, newtonian
[quoted text clipped - 8 lines]
> explain you where :-) . But, I'll give you a clue.
> Pauli exclusion principle.

Your hint fails. Newtonian gravity is silent on the
Pauli exclusion principle, as Pauli is silent on
gravitational potential between two masses. There
is no relation between these things.

If you think otherwise, state why. In a new thread
if you like.

But one small sanity check: Do you really think it
should be called "Newtonian mechanics" if it includes
the Pauli exclusion principle?

           - Randy
rbwinn - 09 Feb 2008 10:29 GMT
> > > > > <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 75 lines]
>
> - Show quoted text -

Well, you are also using the concept of absolute time if you say
this.  But according to scientists, they have proven that a clock in
S' will run slower than a clock in S, so my question is, What does
that do to Newton's equations?
If a clock in a satellite is running slower than a clock on earth,
then an astronaut in the satellite will compute his velocity to be
faster in an orbit around the earth than a scientist on earth would
compute it if they are both using Newton's equations and the concept
of absolute time, believing the two clocks agree with each other.  As
far as I can see, the concept of absolute time is a correct principle,
but you cannot keep track of it with clocks without making adjustments
for relative velocities.  In other words, a moving clock has to have
its rate adjusted in order to agree with a clock that is not moving,
so Newton's equations, as he used them, describe a system with clocks
that automatically adjust according to velocity within a gravitational
system to agree with a clock at the center of gravity.
   But since scientists say they have proven that a moving clock is
slower than a stationary one, that has to be figured into the
equations.
Robert B. Winn
Randy Poe - 09 Feb 2008 13:37 GMT
> > > > > > <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 78 lines]
> Well, you are also using the concept of absolute time if you say
> this.

If I'm doing a Newtonian calculation, I do it with Newtonian
physics.

> But according to scientists, they have proven that a clock in
> S' will run slower than a clock in S, so my question is, What does
> that do to Newton's equations?

Whatever it does (and I have no interest in your nonsense),
the result is not Newtonian physics. Call it something else.
If you want to ask, "what does pure Newtonian physics predict"
then the answer is done with Newtonian physics, not some
hybrid.

             - Randy
rbwinn - 09 Feb 2008 15:38 GMT
> > > > > > > <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 95 lines]
>
> - Show quoted text -

Well, OK, Randy, let's use pure Newtonian physics.  Newton is sitting
under a tree trying to figure out the orbit of the moon, and an apple
falls and hits him on the head.  So Newton remembers Galileo's
experiment with the two different size rocks on the leaning tower or
Pisa and decides that the moon is falling toward the earth at a rate
that keeps it always at the same altitude.  So he uses Kepler's
equation for the radius of an orbit and figures the force required.
   All I asked was how a slower clock on the moon would apply to the
equations.  You people were the ones who said that a clock on the moon
would be running slower.  Now you have all of these GPS satellites,
etc.  How do the times on the clocks in those satellites relate to
their orbits?
    You keep claiming that the equations that Newton used are
scripture of some kind.  Kepler's number was just an approximation.
It did not exactly match the orbit of anything from the start.  It was
just an average taken from the orbits that could be observed.
     Maybe if clock time was used instead of absolute time, Kepler's
calculation of the orbits would be closer, maybe it would be less
accurate.  I have no way of determining any of this.  I have no time
to run an experiment of that kind.  I have to work every day welding.
     So I ask a scientist.  No, Newton's equations are scripture.
You cannot use them any way except the way Newton did.  OK, I do not
want to get into an argument with you over your religion.  Just go
ahead and use Newton's equations the same way he did.  He used
absolute time.  According to him, a clock in a satellite would read
the same as a clock on earth.
     I don't want to get you all irrational over something like this.
Robert B. Winn
Randy Poe - 09 Feb 2008 16:34 GMT
> > > > > > > > <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 103 lines]
> that keeps it always at the same altitude.  So he uses Kepler's
> equation for the radius of an orbit and figures the force required.

Garbled. But at any rate, in Newtonian physics we can write the
equation
   GMm/r^2 = d^2/dt^2 [m*x ]

and calculate the behavior of mass m in the presence of mass M.

>     All I asked was how a slower clock on the moon would apply to the
> equations.

Didn't you start this post with this statement:
"let's use pure Newtonian physics."?

There's no "slower clock on the moon" in pure Newtonian
physics.

> You people were the ones who said that a clock on the moon
> would be running slower.

Faster, actually. In the theory called GR. Not in
"pure Newtonian physics".

> Now you have all of these GPS satellites,
> etc.  How do the times on the clocks in those satellites relate to
> their orbits?

Well, that's a different question. Did you want to ask
a question about satellite orbits in GR or in Newtonian
mechanics? Don't say "Newtonian" and then ask a GR question.

I'm going to try to make an analogy with a subject you
might understand: welding. If I weld the left half of
a Mercedes-Benz to the right half of a Volkswagon Beetle,
and find this creates all sorts of problems, does this
tell me that the Benz is poorly designed?

OK, OK, let's just talk about the pure Benz and how
poorly it handles. I took my welded Benz-Beetle out
for a drive and found... what's that? That's not a pure
Benz anymore? What's wrong with you? I'm just trying
to ask you a question about handling of the Mercedes
Benz!

>      You keep claiming that the equations that Newton used are
> scripture of some kind.

No, I'm claiming that if you want to claim you're
doing Newtonian mechanics, you should be using the
Newtonian physics. If you want to throw something else
in there, you can certainly do it, there's no law against
it. But it's no longer Newtonian physics.

What, is the Mercedes Benz some holy grail that I'm
not allowed to weld onto? Was it created by St. Peter
or something? What's wrong with my welding job? Just
answer the question about why the handling of the
Mercedes is so bad, based on my experiments with
my welded vehicle!

> Kepler's number was just an approximation.

What number?

> It did not exactly match the orbit of anything from the start.

But Newton's equations matched the behavior astonishingly
well, and could even be extended to model the interaction
of multiple bodies with high accuracy. To the extent that
NASA still uses them, and so does every agency which
tracks the thousands of bits of spacecraft and rubble
traveling around the earth.

> It was
> just an average taken from the orbits that could be observed.

That's nice, but we were talking about Newton's theory,
not Kepler's. Newton explained Kepler's Laws, and also
in what way they are an approximation.

>       Maybe if clock time was used instead of absolute time, Kepler's
> calculation of the orbits would be closer, maybe it would be less
> accurate.  I have no way of determining any of this.  I have no time
> to run an experiment of that kind.  I have to work every day welding.
>       So I ask a scientist.  No, Newton's equations are scripture.

If you ask me about Newton's equations, then those are
the equations I'm going to use. You've dragged both
pre-Newton and post-Newton science into this discussion.
Are you asking about Newton's equations or not?

What the hell is wrong with this Mercedes Benz
anyway? It's just a terrible car.

> You cannot use them any way except the way Newton did.

I can use them any way I want. And I can even change
them. But then I have to say they aren't Newton's
equations any more.

What's wrong with saying that? Why do you want to
change them and then pretend they're unchanged?
You want to explore the welded theory, let's do it.

            - Randy
rbwinn - 10 Feb 2008 00:53 GMT
> > > > > > > > > <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 209 lines]
>
> - Show quoted text -

OK, so you do not believe Kepler had a number.  Kepler thought that he
did.  It was R^3/T^2 = 3.353, more or less.
Newton used Kepler's number in his equation for the centripetal force
on a planet.

                      F=4(pi)^2 Km/R^2

Now I don't know what you are saying about welding.  So is this
equation used according to time on a clock on earth a Mercedes Benz
and this equation used according to time on a clock in a satellite a
Volkswagen?
Well, all right.  But the fact remains that you get two different
values for the centripetal force on the satellite.  That means you
will get two different values for a gravitational constant, depending
on which clock you use.  Now here is something you may not realize
about welding.  Just because you have a Mercedes Benz and a
Volkswagen, it does not mean you have to cut both cars in half and
weld them together.  You could leave both cars in their original
condition.  I do not know if you ever considered two cars this way.
Anyway, it is something you might want to consider, just leaving the
Mercedex Benz as a Mercedes Benz and the Volkswagen as a Volkswagen.
But, then, if your religious beliefs require you to cut the cars in
half, who am I to criticize?
Robert B. Winn
Randy Poe - 10 Feb 2008 03:42 GMT
> OK, so you do not believe Kepler had a number.

I didn't say whether I believed Kepler had a number of not.
I asked you what number you were referring to.

> Kepler thought that he
> did.  It was R^3/T^2 = 3.353, more or less.

OK, that's a number. What about it?

> Newton used Kepler's number in his equation for the centripetal force
> on a planet.

No, Newton didn't "use Kepler's number". Newton
proved why R and T have this relation from more fundamental
considerations.

> Now I don't know what you are saying about welding.

I'm asking you what theory you want to talk about.

(1) Newton's theory, which would be the theory that, you know,
was Newton's. I will only insist on sticking to Newton physics
if you say that we are having a "pure Newtonian" discussion.
That would be what is implied by the words "Newtonian"
and "pure".

(2) GR, where time is affected by gravitational potential
and orbits are geodesics, or

(3) Some theory where you have welded GR results with
Newtonian equations, which is neither GR nor Newton but
a hybrid monster, and possibly not drivable.

I'm happy to talk about one, but you have to pick. Don't
say you're talking about (1) and then immediately switch
to (3).

You have some question about the GR effect of time
and gravitational fields. So we're in either (2) or
(3). Which is it, and what's your question?

       - Randy
rbwinn - 10 Feb 2008 04:46 GMT
> > OK, so you do not believe Kepler had a number.
>
[quoted text clipped - 39 lines]
>
> � � � � - Randy

I don't really have any questions any more.  I had a question about 20
years ago which I posted in this newsgroup which was about the two
little equations Einstein extracted from the Lorentz equations, x=ct,
x'=ct'.   After years and years of nonsense, I finally figured out the
answer to my question.  Einstein's two little equations were wrong.
The Lorentz equations were not the correct equations for what Einstein
said he was doing.
    What I was discussing with you was the difference that according
to scientists exists in Newton's equations if you use time from a
clock in a satellite as compared with time from a clock on earth.
Newton knew of no such time difference, so he never considered it.
According to you, since Newton never considered it, it does not apply
to his equations, and it would be "impure" in some way to compare this
difference.
      I say that if Newton's equations are applied using clock times
from two different frames of reference, and two different
gravitational constants are found, then one or the other or something
in between must be the actual constant, since two different answers
are not constant.
  As for whether or not Newton used Kepler's ratio, I was basing what
I said on what is said in a physics book, "Newton explained many years
later that he was led to the correct force law by working backwards
from Kepler's third law."
So the fact of the matter is that either Newton did use Kepler's ratio
R^3/T^2 or else the writers of that physics book lied about it.  It
does not matter to me.  Kepler's ratio definitely fits into Newton's
equation, whether the writers of that physics book lied about Newton
using it or not.  Scientists lie all the time.  Possibly the writers
of that book did lie as you are claiming, or maybe they just came to a
wrong conclusion because it seemed logical to them.  Perhaps we will
never know.  Why was it so important to you that Newton got his
equation from somewhere else than Kepler's third law?
Robert B. Winn
Eric Gisse - 10 Feb 2008 11:40 GMT
> > > OK, so you do not believe Kepler had a number.
>
[quoted text clipped - 47 lines]
> The Lorentz equations were not the correct equations for what Einstein
> said he was doing.

20 years and you still don't understand? Nice.

[...]
rbwinn - 10 Feb 2008 14:12 GMT
> > > > OK, so you do not believe Kepler had a number.
>
[quoted text clipped - 49 lines]
>
> 20 years and you still don't understand? Nice.

Well, yes, I do understand, Eric.  If you had read the entire post,
you would have read the sentence that said, Scientists lie all the
time.  As I recall, you were going to prove that these equations are
wrong.  Just take a few minutes and show all of these scientists how
well you understand.

                       x'=x-vt
                       y'=y
                       z'=z
                       t'=t

                       w=velocity of light
                       x=wt
                       x'=wn'
                       wn'=wt-vt
                        n'=t(1-v/w)

Robert B. Winn
Eric Gisse - 10 Feb 2008 23:35 GMT
> > > > > OK, so you do not believe Kepler had a number.
>
[quoted text clipped - 55 lines]
> wrong.  Just take a few minutes and show all of these scientists how
> well you understand.

What chance do I have of making you understand anything through 20+
years of failure?

Go back to whatever it was you were doing before you decided to
pollute USENET with your shitposting.

>                         x'=x-vt
>                         y'=y
[quoted text clipped - 8 lines]
>
> Robert B. Winn
srp2inc@gmail.com - 10 Feb 2008 23:01 GMT
> > > OK, so you do not believe Kepler had a number.
>
[quoted text clipped - 65 lines]
> So the fact of the matter is that either Newton did use Kepler's ratio
> R^3/T^2 or else the writers of that physics book lied about it.

Your quote is correct. Georges Gamow even explained how Newton
mathematically proceeded in his small book "Gravity", Science
Study Series, Doubleday, 1962, chapters 2, 3 and 4.

André Michaud

> It
> does not matter to me.  Kepler's ratio definitely fits into Newton's
[quoted text clipped - 5 lines]
> equation from somewhere else than Kepler's third law?
> Robert B. Winn
rbwinn - 10 Feb 2008 23:32 GMT
On Feb 10, 4:01 pm, srp2...@gmail.com wrote:

> > > > OK, so you do not believe Kepler had a number.
>
[quoted text clipped - 85 lines]
>
> - Show quoted text -

Thank you for clearing that up, Andre.
Robert B. Winn
Randy Poe - 06 Feb 2008 19:02 GMT
> > > <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 30 lines]
> Why don't you do the Newtonian calculation before
> making this claim?

I'll give you a hint: When you have a mass moving
under the influence of a much heavier mass (say, a
planet moving under the influence of the sun, or
a moon moving around the planet), does anything in
the orbit depend on the mass of the lighter object?

That is, if the moon's mass were half what it is,
would it have a different path around the earth?

If you started a satellite in orbit around the
earth, and another satellite with half the mass in
the same starting orbit, would they continue in
the same orbit?

If you fire a projectile from a gun, and then
another with the same initial velocity but half
the mass, does it follow a different path (neglecting
air resistance)?

Once you've pondered that, decide whether you really
believe that two particles with different mass but
the same starting trajectory as they approach the
sun follow different paths.

              - Randy
rbwinn - 09 Feb 2008 10:33 GMT
> > > > <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 58 lines]
>
> - Show quoted text -

Randy,
   Good to see that you decided to look up the principle of
equivalence.
Robert B. Winn
rbwinn - 09 Feb 2008 10:52 GMT
> > > <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 34 lines]
>
> - Show quoted text -

Well, going back to the astronaut with his slower clock, it appears to
me that he would come up with a different gravitational constant than
the observer on earth because the velocity of the satellite relative
to earth would be faster according to his clock.
Robert B. Winn
Androcles - 06 Feb 2008 20:04 GMT
On 6 feb, 16:48, "Androcles" <Headmas...@Hogwarts.physics> wrote:
> <srp2...@gmail.com> wrote in message
>
[quoted text clipped - 15 lines]
>
> How?

| I'll tell you how. In order to see how newtonian gravity can
| bend the trajectory of a photon, relativists fake it. They
[quoted text clipped - 7 lines]
| travelling locally at c from infinity, would be deflected in
| the correct angle, under newtonian gravity.

See my reply to Andre.
Rock Brentwood - 10 Feb 2008 10:25 GMT
> | Classical Newtonian mechanics predicts that light will bend with
> | twice the angle observed.
>
> How?

Good question. Actually, I think it's 1/2 the angle, not twice. To
come up with refined tests for Newtonian vs. Relativistic gravity;
it's common for people to embody the former in the framework of Newton-
Cartan geometry. This minimizes the differences between the classical
and relativistic theory (a necessity if you want to do experimental
tests), down to their minimal core differences. Newton-Cartan gravity
is a curved spacetime theory compatible with Newtonian physics and the
Galilean symmetry group that presides over Newtonian physics.

If you go with straight classical theory, treating Newtonian gravity
as a field on top of a flat spacetime, then I think Smolin is right --
no bending of light.

On the other hand, if you use the classical version of the Equivalence
Principle, then that would imply light undergoes the same acceleration
near a gravitating body as does everything else. Then, in effect,
you're back to the curved spacetime form of Newtonian gravity -- that
is, the same results follows ... a bending in Newtonian gravity at 1/2
the angle predicted by General Relativity.
Eric Gisse - 06 Feb 2008 22:38 GMT
On Feb 6, 6:33 am, srp2...@gmail.com wrote:

> >http://philipball.blogspot.com/2007/09/arthur-eddington-was-innocent-...
> > "With the technology then available, measuring the bending of
[quoted text clipped - 12 lines]
> angle since it is now understood that only half a photon's energy
> is sensitive to transverse interaction.

Uhhhhh....no. General relativity [is NOT "relativistic Newtonian
mechanics] makes the correct prediction without assuming _anything_
abut the photon other than it traveling along a null path.

[...]
mitchgrav@hotmail.com - 06 Feb 2008 22:46 GMT
> On Feb 6, 6:33 am, srp2...@gmail.com wrote:
>
[quoted text clipped - 22 lines]
>
> - Show quoted text -

Light falls. The null path is the space curvature itself.

Mitch Raemsch Twice Nobel Laureate 2008
srp2inc@gmail.com - 06 Feb 2008 23:10 GMT
> On Feb 6, 6:33 am, srp2...@gmail.com wrote:
>
[quoted text clipped - 17 lines]
> Uhhhhh....no. General relativity [is NOT "relativistic Newtonian
> mechanics] makes the correct prediction

So does relativistic Newtonian mechanics, in perfect harmony
with Maxwell's theory.

André Michaud
Eric Gisse - 07 Feb 2008 03:29 GMT
On Feb 6, 2:10 pm, srp2...@gmail.com wrote:

> > On Feb 6, 6:33 am, srp2...@gmail.com wrote:
>
[quoted text clipped - 20 lines]
> So does relativistic Newtonian mechanics, in perfect harmony
> with Maxwell's theory.

A relativistic Newtonian mechanics is a contradiction in terms.

The fact is that general relativity makes the predictions about light
bending /without/ reference to Maxwell's equations or anything about
light /other/ than it traveling on a null path. Is there a particular
reason you can't open up a textbook, see the derivation, repeat the
derivation, and compare with observation?

> André Michaud
mitchgrav@hotmail.com - 07 Feb 2008 04:28 GMT
> On Feb 6, 2:10 pm, srp2...@gmail.com wrote:
>
[quoted text clipped - 36 lines]
>
> - Show quoted text -

Light falls.

Mitch Raemsch Twice Nobel Laureate 2008
srp2inc@gmail.com - 07 Feb 2008 13:35 GMT
> On Feb 6, 2:10 pm, srp2...@gmail.com wrote:
>
[quoted text clipped - 28 lines]
> bending /without/ reference to Maxwell's equations or anything about
> light /other/ than it traveling on a null path.

Any theory that predicts anything about light without reference
to electromagnetism and Maxwell can only be a mathematical patchwork
doomed to end up in file 13.

> Is there a particular
> reason you can't open up a textbook, see the derivation, repeat the
> derivation, and compare with observation?

I have and have rejected the method. I have a much better integrated
one that can even explain the stuff that GR can't deal with.

André Michaud
Eric Gisse - 07 Feb 2008 18:26 GMT
On Feb 7, 4:35 am, srp2...@gmail.com wrote:

> > On Feb 6, 2:10 pm, srp2...@gmail.com wrote:
>
[quoted text clipped - 32 lines]
> to electromagnetism and Maxwell can only be a mathematical patchwork
> doomed to end up in file 13.

Where do you think the massless assumption came from?

You could, in theory, solve the field equations for a electromagnetic
stress-energy tensor with a plane wave solution. Good luck solving
that.

> > Is there a particular
> > reason you can't open up a textbook, see the derivation, repeat the
> > derivation, and compare with observation?
>
> I have and have rejected the method. I have a much better integrated
> one that can even explain the stuff that GR can't deal with.

If you still don't understand how GR can make the predictions it does
and that it doesn't assume the things you don't think it does, no, you
haven't.

Work on the mundane before you attack the subtle. If your theory can't
explain prosaic effects like perihelion precession, why would it
accurately explain whatever fringe effect you are focusing on this
time?

> André Michaud
srp2inc@gmail.com - 07 Feb 2008 19:51 GMT
> On Feb 7, 4:35 am, srp2...@gmail.com wrote:
>
[quoted text clipped - 36 lines]
>
> Where do you think the massless assumption came from?

From ignorance of the nature of electromagnetic energy.

> You could, in theory, solve the field equations for a electromagnetic
> stress-energy tensor with a plane wave solution. Good luck solving
> that.

The Copenhagen community's moto:

Why make things simple when you can make them complicated ?

> > > Is there a particular
> > > reason you can't open up a textbook, see the derivation, repeat the
[quoted text clipped - 11 lines]
> accurately explain whatever fringe effect you are focusing on this
> time?

You are so disconnected Eric that it edges on unconsciousness.

Why don't you wake up.

André Michaud
Eric Gisse - 07 Feb 2008 22:11 GMT
On Feb 7, 10:51 am, srp2...@gmail.com wrote:
[...}

> > > Any theory that predicts anything about light without reference
> > > to electromagnetism and Maxwell can only be a mathematical patchwork
[quoted text clipped - 3 lines]
>
> From ignorance of the nature of electromagnetic energy.

Wrong, try again.

1) Solid research places error bars on photon mass at the 10^-17 eV
level. Consistent with zero.
2) Maxwell's equations have no mass coupling.
3) Proca's equations - Maxwell's equations for a massive photon - are
distinctly different from Maxwell's equations.

> > You could, in theory, solve the field equations for a electromagnetic
> > stress-energy tensor with a plane wave solution. Good luck solving
[quoted text clipped - 3 lines]
>
> Why make things simple when you can make them complicated ?

You were the one bitching about me giving the simple answer. In the
optics limit, Maxwell's equations do not matter so long as waves
travel along null paths.

If you want the exact answer, yea it's gonna be complicated.
Pretending it isn't is dishonest.

> > > > Is there a particular
> > > > reason you can't open up a textbook, see the derivation, repeat the
[quoted text clipped - 15 lines]
>
> Why don't you wake up.

Why don't you prove your ability before making sweeping claims about
the physics community?

> André Michaud
srp2inc@gmail.com - 07 Feb 2008 22:20 GMT
> On Feb 7, 10:51 am, srp2...@gmail.com wrote:
> [...}
[quoted text clipped - 52 lines]
> Why don't you prove your ability before making sweeping claims about
> the physics community?

What conceit!

I have nothing to prove to you. You are meaningless.

André Michaud
Timo A. Nieminen - 07 Feb 2008 06:27 GMT
>> On Feb 6, 6:33 am, srp2...@gmail.com wrote:
>>
[quoted text clipped - 10 lines]
> So does relativistic Newtonian mechanics, in perfect harmony
> with Maxwell's theory.

OK, I'll bite. What is "relativistic Newtonian mechanics"? How is it in
perfect harmony with Maxwell's theory? To clarify, do you mean _Maxwell's_
theory, or do you mean modern classical electrodynamics?

Ordinary Newtonian mechanics is in perfect harmony with Maxwell's theory,
although not with modern classical EM.

Signature

Timo Nieminen - Home page: http://www.physics.uq.edu.au/people/nieminen/
E-prints: http://eprint.uq.edu.au/view/person/Nieminen,_Timo_A..html
Shrine to Spirits: http://www.users.bigpond.com/timo_nieminen/spirits.html

srp2inc@gmail.com - 07 Feb 2008 13:28 GMT
> >> On Feb 6, 6:33 am, srp2...@gmail.com wrote:
>
[quoted text clipped - 14 lines]
> perfect harmony with Maxwell's theory? To clarify, do you mean _Maxwell's_
> theory, or do you mean modern classical electrodynamics?

I mean Maxwell's wave theory.

The point is that Maxwell's theory can be seamlessly expanded,
contrary to belief, from a disregarded de Broglie hypothesis,
to directly describe localized photons and by linking it with
classical Newton, to also describe localized massive particles,
moving or not.

Now as to what it is, this media couldn't possibly allow full
explanation. but as an example, if you correct Newton's classical
kinetic energy equation to correctly include the energy he could
know nothing about and that goes into relativistic mass increase
and if you convert it to its correct exponential form, you then
end up with an equation that allows calculating the complete
range of possible velocities, from zero for massive particles
at rest to c for free photons not associated with massive
particles.

Here is a generalized form of this equation

f(x)=c [sqrt(4ax + x^2)) / (2a - x)]

where

f(x