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"George Dishman" <[EMAIL PROTECTED]> wrote in message
news:[EMAIL PROTECTED]
>
> "ralph sansbury" <[EMAIL PROTECTED]> wrote in message
> news:[EMAIL PROTECTED]
> >
> > "George Dishman" <[EMAIL PROTECTED]> wrote in message
> > news:[EMAIL PROTECTED]
> > >
> > > No particle increases its mass, charged or otherwise. Only
> > > their energy changes.
> >
> > This is double talk. If by mass you mean the
gravitational
> > interaction then the mass increases.
>
> How about a little test. What is the mass of an electron
> moving at 0.9999c? I say it is 9.1095*10^-31 kg. What do
> you say?
I say the mass is greater (1-.9998)^-1/2 about times
9.1095*10^-31 kg.
You say the product of this times .9999c is what is greater
which implies that the mass as observed in mass spectrometers
Kaufmann's experiemtn is greater.
Of course you can play semantic games but they are only
sematic games unless you can say where the increased momentum
resides.
I say it resides inside the charged particle and that the mass
does not increase as the spectrometer says but that the magnetic
interaction in Kaufmann's experiment becomes noticeably non
linear as v approaches c.
> > If you want to change the
> > definition so that this change is attributed to an increase
in
> > energy to make it more compatible with the concept of the
photon
> > etc,
>
> The energy a particle possesses due to motion has been
> known as "kinetic energy" for a very long time, I just
> stick to that. As for mass, again from the FAQ:
>
> "Technically, it is the invariant length of the
> particle's four-momentum."
You should look at Kaufmann's experiment FAQ
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