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Re: There's work, and then there's work



I suggest working from the other direction. Obtain a generator (I have in mind the Nakamura.) , fit it
with a pulley, wrap it with a cord and a hanging weight (mass). This way one measures directly the energy
deposited in the cap. I assume no one has a problem with using the necessary voltmeter. In a separate
experiment using a resistor and calorimeter substituted for the cap. one may determine the efficiency of
the generator. This leaves a final, I pray, problem; how does one measure the cap. If one uses integral
I*dT, we have the problem(s) already discussed. Does finding the time constant using only a clock and
voltmeter (o'scope) avoid this, or does the derivation of V = V0 * e^(-xT) beg the problem?

bc

David Rutherford wrote:

Bob LaMontagne wrote:

And, above all, do the simple calorimetry experiment suggested earlier by Ludwig. You asked for an
experimental proof that your theory produces an incorrect result - there could hardly be a better or
simpler one. It's time to move from suppositions to actual data. You have constantly claimed that
work must be done to constrain charges that are being assemble in a group - and have claimed that
work is associated with the term q dV. I don't see how this discussion can progress until we agree on
the actual results of this experiment. I'm fairly certain that most of us following this thread have
actually done this experiment as part of a Thermo or P-Chem lab - if you have not, then this would be
a good time to try it.

I claim that the results of the calorimetry may be due to the energy of
the positive atoms, not the free electrons. So if you combine the
results of the "current experiment" that you described, which only gives
the energy of the free electrons, with the calorimetry experiment, you
get 1/2 CV^2 + 1/2 CV^2 = CV^2 for the total energy stored in the
capacitor.

I'm not claiming that either one of the experiments, alone, will give
CV^2, but why couldn't you combine both experiments together in the same
experiment? That is, do the calorimetry experiment and the current
experiment at the same time, using the same circuit, and combine the
results of the two measurements.

--
Dave Rutherford
"New Transformation Equations and the Electric Field Four-vector"
http://www.softcom.net/users/der555/newtransform.pdf

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