From: Androcles on

"Darwin123" <drosen0000(a)yahoo.com> wrote in message
news:437862dd-1a19-4455-b44f-632e00637f59(a)z33g2000vbb.googlegroups.com...
On May 19, 5:14 pm, "Androcles" <Headmas...(a)Hogwarts.physics_z> wrote:
> "Darwin123" <drosen0...(a)yahoo.com> wrote in message
>
> news:b93ca8e1-c320-4220-8574-e9deb9c541d1(a)d12g2000vbr.googlegroups.com...
> On May 19, 4:21 pm, "Androcles" <Headmas...(a)Hogwarts.physics_z> wrote:
>
> > "Darwin123" <drosen0...(a)yahoo.com> wrote in message
>
> >news:00677df5-e6fd-4805-ae0f-7200db9d530c(a)s41g2000vba.googlegroups.com...
> > On May 19, 12:00 pm, "Androcles" <Headmas...(a)Hogwarts.physics_z>
> > wrote:> "Darwin123" <drosen0...(a)yahoo.com> wrote in message
>
> > >news:dec648e9-dee6-4500-8362-fb7d0aabc436(a)f14g2000vbn.googlegroups.com...
> > > The most definitive is a beautiful
> > > experiment performed at CERN, Geneva, Switzerland, in 1964.* The speed
> > > of time
>
> > > Ok, so it's beautiful, but what's "the speed of time", drosen?
>
> > Sorry, the "of time" was my typographical error. I don't have a
> > scanner so I have to type out the pragraphs. I made a slip. It is
> > merely the speed of the "6 GeV photons".
> > ==========================================
> > Ok...
>
> > "The pions were produced by bombardment of a beryllium target"
>
> > What is the beautiful speed of beautiful radiation inside beautiful
> > beryllium blocks?
>
> I don't think
>
> ====================================
> Of course you don't. Who accused you of thinking? Certainly not I.
>
> > they use blocks.
> >Physicists usually use thin foil,
>
> =============================================
> That has width, height and depth. It's a block to a pion.
The path length was up to 80 meters. Therefore, some of the pions
were up to 89 meters outside the beryllium target. The photons are
emitted by a neutral pion after the pion has left the beryllium
target. The speed of both light and pions were measured in a vacuum
over path lengths up to 80 meters.

================================================

So you have absolutely no idea where the photon came from.
"The timing was done by utilizing the rf structure of the beam."
So you have absolutely no idea what time the photon was emitted.

c = distance /time =
a beautiful somewhere along 80 meters divided by the beautiful
rf structure of the beam.

What was the beautiful half-life of the beautiful pion, ugly bullshitting
drosen?


From: BURT on
On May 19, 10:06 pm, "Androcles" <Headmas...(a)Hogwarts.physics_z>
wrote:
> "Darwin123" <drosen0...(a)yahoo.com> wrote in message
>
> news:437862dd-1a19-4455-b44f-632e00637f59(a)z33g2000vbb.googlegroups.com...
> On May 19, 5:14 pm, "Androcles" <Headmas...(a)Hogwarts.physics_z> wrote:
>
>
>
> > "Darwin123" <drosen0...(a)yahoo.com> wrote in message
>
> >news:b93ca8e1-c320-4220-8574-e9deb9c541d1(a)d12g2000vbr.googlegroups.com....
> > On May 19, 4:21 pm, "Androcles" <Headmas...(a)Hogwarts.physics_z> wrote:
>
> > > "Darwin123" <drosen0...(a)yahoo.com> wrote in message
>
> > >news:00677df5-e6fd-4805-ae0f-7200db9d530c(a)s41g2000vba.googlegroups.com....
> > > On May 19, 12:00 pm, "Androcles" <Headmas...(a)Hogwarts.physics_z>
> > > wrote:> "Darwin123" <drosen0...(a)yahoo.com> wrote in message
>
> > > >news:dec648e9-dee6-4500-8362-fb7d0aabc436(a)f14g2000vbn.googlegroups.com...
> > > > The most definitive is a beautiful
> > > > experiment performed at CERN, Geneva, Switzerland, in 1964.* The speed
> > > > of time
>
> > > > Ok, so it's beautiful, but what's "the speed of time", drosen?
>
> > > Sorry, the "of time" was my typographical error. I don't have a
> > > scanner so I have to type out the pragraphs. I made a slip. It is
> > > merely the speed of the "6 GeV photons".
> > > ==========================================
> > > Ok...
>
> > > "The pions were produced by bombardment of a beryllium target"
>
> > > What is the beautiful speed of beautiful radiation inside beautiful
> > > beryllium blocks?
>
> > I don't think
>
> > ====================================
> > Of course you don't. Who accused you of thinking? Certainly not I.
>
> > > they use blocks.
> > >Physicists usually use thin foil,
>
> > =============================================
> > That has width, height and depth. It's a block to a pion.
>
>     The path length was up to 80 meters. Therefore, some of the pions
> were up to 89 meters outside the beryllium target. The photons are
> emitted by a neutral pion after the pion has left the beryllium
> target. The speed of both light and pions were measured in a vacuum
> over path lengths up to 80 meters.
>
> ================================================
>
> So you have absolutely no idea where the photon came from.
>  "The timing was done by utilizing the rf structure of the beam."
> So you have absolutely no idea what time the photon was emitted.
>
>  c = distance /time  =
>       a beautiful somewhere along 80 meters divided by the beautiful
> rf structure of the beam.
>
> What was the beautiful half-life of the beautiful pion, ugly bullshitting
> drosen?- Hide quoted text -
>
> - Show quoted text -

If the train passes the station how can the station's clock run slow
yet it ages more?

Mitch Raemsch
From: Darwin123 on
On May 20, 1:06 am, "Androcles" <Headmas...(a)Hogwarts.physics_z> wrote:
> "Darwin123" <drosen0...(a)yahoo.com> wrote in message
>
> news:437862dd-1a19-4455-b44f-632e00637f59(a)z33g2000vbb.googlegroups.com...
> On May 19, 5:14 pm, "Androcles" <Headmas...(a)Hogwarts.physics_z> wrote:
>
> > "Darwin123" <drosen0...(a)yahoo.com> wrote in message
>
> >news:b93ca8e1-c320-4220-8574-e9deb9c541d1(a)d12g2000vbr.googlegroups.com....
> > On May 19, 4:21 pm, "Androcles" <Headmas...(a)Hogwarts.physics_z> wrote:
>
> > > "Darwin123" <drosen0...(a)yahoo.com> wrote in message
>
> > >news:00677df5-e6fd-4805-ae0f-7200db9d530c(a)s41g2000vba.googlegroups.com....
> > > On May 19, 12:00 pm, "Androcles" <Headmas...(a)Hogwarts.physics_z>
> > > wrote:> "Darwin123" <drosen0...(a)yahoo.com> wrote in message
>
> > > >news:dec648e9-dee6-4500-8362-fb7d0aabc436(a)f14g2000vbn.googlegroups.com...
> > > > The most definitive is a beautiful
> > > > experiment performed at CERN, Geneva, Switzerland, in 1964.* The speed
> > > > of time
>
> > > > Ok, so it's beautiful, but what's "the speed of time", drosen?
>
> > > Sorry, the "of time" was my typographical error. I don't have a
> > > scanner so I have to type out the pragraphs. I made a slip. It is
> > > merely the speed of the "6 GeV photons".
> > > ==========================================
> > > Ok...
>
> > > "The pions were produced by bombardment of a beryllium target"
>
> > > What is the beautiful speed of beautiful radiation inside beautiful
> > > beryllium blocks?
>
> > I don't think
>
> > ====================================
> > Of course you don't. Who accused you of thinking? Certainly not I.
>
> > > they use blocks.
> > >Physicists usually use thin foil,
>
> > =============================================
> > That has width, height and depth. It's a block to a pion.
>
>     The path length was up to 80 meters. Therefore, some of the pions
> were up to 89 meters outside the beryllium target. The photons are
> emitted by a neutral pion after the pion has left the beryllium
> target. The speed of both light and pions were measured in a vacuum
> over path lengths up to 80 meters.
>
> ================================================
>
> So you have absolutely no idea where the photon came from.
>  "The timing was done by utilizing the rf structure of the beam."
> So you have absolutely no idea what time the photon was emitted.
No, because I haven't read the original article or seen the
raw data. They did the timing using the rf structure of the beam. They
knew the speed of the pions, the distance of the pion from the target,
and the position of the detectors. These are more than enough to
determine when the photon was emitted.
>
>  c = distance /time  =
>       a beautiful somewhere along 80 meters divided by the beautiful
> rf structure of the beam.
They weren't integrating over the entire beam path. They were
detecting photons from a specific position on the beam path.
They had more than one way to calculate the position of the pion
when it emitted. The rf structure would be useful for synchronizing
the detectors. The rf structure would be useful determining the time
between emission and detection. The time of emission, relative to the
time leaving the beryllium target, would be calculated from the
position of the pion when it emitted the photon.
Directional filters could be used in such an experiment. A tube
aimed at a specific part of the beam would tell you exactly where the
photon was detected. There is a second way to tell where in the beam
the photon was emitted. They had detectors for detecting the charged
pions, which would provide another way to determine the position of
the pion pulse. They knew where on the beam the photon was emitted
(via directional filter), and the where the photon detector (they
placed it there), and the time between emission and detection (via rf
filter). So they had to ways to determine the time between emission
and detection.
>
> What was the beautiful half-life of the beautiful pion, ugly bullshitting
> drosen?
Yo' is not only signifying, yo' is dignifying.
The half life was not part of this determination of c'. The half
life of either pion doesn't enter the calculation. Speed of light is
distance photon travels divided by time of travel.
If you want to look up the half life of the neutral pion, go
ahead. Other people have measured the lifetimes of neutral pions and
charged pions. Neither could affect the determination of the speed of
light.
Sounds like you arbitrarily picked a phrase from that jumble in
your head. Lifetime is not relevant. The lifetime isn't used for
timing. I guess the word "time" fooled you.
Maybe Wilson will make more sense than you, when he responds.
From: Darwin123 on
On May 20, 4:29 pm, "Androcles" <Headmas...(a)Hogwarts.physics_z> wrote:

> A pion decays and vanishes. The object photon is driven away with
> momentum mc, velocity c.
>
The neutral pion doesn't "vanish". The neutral pion decays into an
electron, a positron, and a gamma ray. This is mentioned in the
following link.
http://hyperphysics.phy-astr.gsu.edu/hbase/particles/hadron.html
The neutral pion isn't colliding with a slow moving photon of
equal mass. The gamma ray has less momentum, and less energy, than the
initial pion. A lot of kinetic energy is taken away by the electron
and the positron. When that pion decays, the photon moves precisely at
a speed c in the laboratory frame. So your billiard ball analogy
doesn't work.
If the speed of the pion were 0, the speed of the photon would
be c. There seems to be no controversy about that. However, the speed
of the pion previous to the decay is 0.99975c. The speed of the gamma
ray was measured in this experiment to by c'=c. So the final photon is
actually going faster than the initial pion.
Please explain how come the photon is moving faster than the
neutral pion. Also explain why the speed of the photon is exactly c.

From: BURT on
On May 20, 8:19 pm, Darwin123 <drosen0...(a)yahoo.com> wrote:
> On May 20, 4:29 pm, "Androcles" <Headmas...(a)Hogwarts.physics_z> wrote:
>
> > A pion decays and vanishes. The object photon is driven away with
> > momentum mc, velocity c.
>
>     The neutral pion doesn't "vanish". The neutral pion decays into an
> electron, a positron, and a gamma ray. This is mentioned in the
> following link.http://hyperphysics.phy-astr.gsu.edu/hbase/particles/hadron.html
>        The neutral pion isn't colliding with a slow moving photon of
> equal mass. The gamma ray has less momentum, and less energy, than the
> initial pion. A lot of kinetic energy is taken away by the electron
> and the positron. When that pion decays, the photon moves precisely at
> a speed c in the laboratory frame. So your billiard ball analogy
> doesn't work.
>       If the speed of the pion were 0, the speed of the photon would
> be c. There seems to be no controversy about that. However, the speed
> of the pion previous to the decay is 0.99975c. The speed of the gamma
> ray was measured in this experiment to by c'=c. So the final photon is
> actually going faster than the initial pion.
>     Please explain how come the photon is moving faster than the
> neutral pion. Also explain why the speed of the photon is exactly c.

Particle physics is sciences hallucination that it knows something.