Made a search for Synchrotron Radiation as a fundamental characteristic

of atom structure.

Not a secondary phenomenon as begot from many atoms but a fundamental
phenomenon of an *isolated single atom*.

Does an isolated single atom of radium display Synchrotron Radiation? Is
it
the luminescence of radium that is synchrotron radiation.

And the most important question, does plutonium and especially 231Pu
of a *single atom* possess Synchrotron-Radiation?

I suspect this question has never before been asked or raised.

Mon, 21 Jul 2003 02:59:50 -0500 Archimedes Plutonium wrote:

Archimedes Plutonium wrote:
(snipped)

One way for quasars to have to be the radioactive emissions of 231Pu

with its
6.7 MeV electron-capture emissions and its 8.6 minute halflife rate
of
decay,
would be for the locations of quasars. If they are patterned in the
cosmic skys
means they are locus points in the AtomTotality where radioactive
emissions from the Nucleus materialize on a regular basis.


I get the impression that all quasars to date are located very far
from
Earth. No nearby quasars. That in itself is a patterning.

In the past several years we have been entertained by Johns Hopkins
University with their report of a "whitish color Universe". They first

reported a "greenish color" erroring on not applying a factor.

The color of plutonium is whitish as are most metals are of a silvery
white.

But radioactive elements sometimes have not only a color but a
luminescence.
They glow. Some have a green glow such as radium as we see in dials of

watches and clocks.

Quasars would fit that physical attribute as locus points of the 6
lobes
of the 5f6 where the Nucleus of 231Pu with its halflife of 8.6 minutes

and its predominant emission of electroncapture of 6.7 MeV would be
emitting bursts of energy to locus points which we see as quasars.
Can we call the glow of radium as greenish glow in the dark as
a form of synchrotron radiation? And thus synchrotron radiation of
quasars is due to the fact of emission of rays from the AtomTotality
Nucleus. These quasars would demark the lobes themselves.

Cobalt 60 atom glows blue. And I wonder if that is synchrotron radiation as
the
cause of that blue glow. So that we can say an individual atom in isolation
can
produce synchrotron radiation. Whether all atoms which have some electron
related radioactive emissions also have synchrotron radiation.

If so, then that is the most simple explanations of quasars. Locus points
of the
231Pu Atom Totality of the 5f6 where electronemissions from the Nucleus
of the Atomtotality spew out emissions and where they end up in the 5f6 as
quasars.



Apparently the more precise figure for the halflife of 231Pu is (8.6 +-
0.5) min.

So the question becomes, in an AtomTotality of 231Pu do we observe new
gammaraybursts apart in an interval of about 8.6 minutes apart.

And then there is the issue of the energy of D-group decay in 231Pu.
This website lists the energy at (6.720 +- 0.030) MeV.

http://216.239.37.104/search?q=cache:FW4L2NNHSuIJ:www-
sd.lbl.gov/nsd/annual/rbf/nsd1998/nsr/lau_1.ps+231Pu&hl=en&ie=UTF-8

So the natural next question would be whether most Protonraybursts
(cosmicraybursts) observed, are most of them about 6.7 MeV
magnitude?????? And what would be the average magnitude MeV of
electroncapture or their counterpart in the night sky cosmos
of Gammaraybursts??? Perhaps the average magnitude of Gammaraybursts
is of the order of 6.7 MeV.