If I've already sent this please forgive my senility.  8^)

I don't have the time for an extended discussion. However, I will try to answer your questions of the moment.

On Apr 7, 2007, at 3:15 AM, David Thomson wrote:

Hi Horace,

Would you consider gravitational charge to be the same thing as mass? If
not, why not?

Coulombic charge is the emitter/receiver of the messenger particle of the electromagnetic (EM) field. Gravitational charge is the emitter/ receiver of the messenger particle of the gravimagnetic (GK) field. Coulombic and gravitational charge can be bound into, be contained in, the same particle.

Gravitational charge defines gravitational mass, but not inertial mass. Inertial and gravitational mass are maintained in proportion only because in typical matter the two charge carriers are maintained in proportion. Neutrons carry EM charge, but the charges are balanced. Photons, on the other hand, carry no EM charge, but do carry GK charge.



How do you use the term "virtual" such that it applies to the real world?
That is, how can an object exist without really existing?

See: http://en.wikipedia.org/wiki/Virtual_particle

Messenger particles carry (are) the force of a force field. They travel at finite speed, thus, as Jefimenko Showed, their effects in dynamic systems are delayed, i.e. "retarded". This retardation accounts precisely for the magnetic component of both the EM and GK fields, thus there is no need for a magnetic field messenger particle of either the EM or GK variety. This accounts for why the electric and magnetic components of a field depend on the observer's relative motion. Jefimenko has further showed that retardation accounts fully for many relativistic effects.



Super massive black holes are hypothesized to exist, but as of yet, there is
no hard evidence that they do.

A search of the literature will show the above to be highly debatable. It is not a debate in which I have sufficient interest to spend time.


How can your theory prove the existence of
super massive black holes?


It can not. Proof of black holes only comes from observation. The gravimagnetic theory logically necessitates black holes, and further black holes with specific characteristics. The gravimagnetic theory was in fact derived to be consistent with a number of types of assumed observations. I think one of the indications of the power of the theory is the clarity of its explanation of polar jets emitted from black holes. Another is its wide range of quantified predictive abilities.



Also, there is evidence to suggest that the length scales of astrophysics are wrong. If it turns out the perceived distances between galactic objects is wrong, and the Newton calculations for gravitational force are correct,
would your theory still predict dark energy?


Yes, of course. Gravity must necessarily be reduced by the noted effects of propagation delay, gravitational red shift, and graviton absorption. Further, the predicted existence (by symmetry, as well as polar jets) of negative mass charge necessitates the existence of a repulsive gravitational force and negative gravitational matter. The existence of such matter has profound cosmological consequences. Overall, the universe must expand indefinitely, but in localized zones consisting primarily of one charge type or another, a phoenix effect takes place through generations of alternating black hole types. It is possible that negative gravitational mass matter arrives here on earth continuously in the form of cosmic rays, and that it thus occupies the volume of local space in surprisingly high amounts. The energy of cosmic rays greatly exceeds that necessary to overcome the earth or solar system's escape velocity. To my knowledge no determination of length scales has even considered all these things.


I find several ideas in your theory to be heading in the right direction,
such as the identification of "gravitational charge" as separate from
electrostatic charge.  However, it is unclear to me what dimensions
gravitational charge has in your theory.


Gravitational charge has the dimension of gravitational mass, e.g. kg_g. When it is clear you are talking about gravitational mass and not inertial mass you can simply dispense with the "sub g".

The more interesting and nebulous thing, and even not explored thing, is the space in which the graviton exists, which includes imaginary dimensions. The travel time between two particles for gravitons and virtual photons need not be the same at all times. If a space warping model is of use, the two subspaces might warp independently. The ratio of charge, or inertial mass, to gravitational mass is not necessarily constant. The change in proportions affects clocks, so manifests as time warp.


It is also unclear what the force
law is that mediates gravitational charge.  For example, Coulomb's
electrostatic force law and Newton's gravitational force law quantify the
forces between electrostatic charge and mass, respectively.

I think you just answered your own question. These two laws are analogs under the defined isomorphism. Optionally, you can can subscript everything in Coulomb's law with a "g" to obtain Newton's gravitational force law as defined by the nomenclature in:

http://mtaonline.net/~hheffner/Gravimagnetism.pdf


There are
empirically derived constants that mediate the forces between the dimensions
of charge and mass, respectively.

The force law "constants" depend on the ratio of GK charge to EM charge in ordinary matter particles, and, depending on other assumptions, the conditions of observation. However, the distinction between inertial mass and gravitational mass was not drawn when the force law constants were initially defined in prior centuries.


In your theory, it is unclear whether gravitational charge is the same thing
as mass, charge, or something completely different.

A fundamental premise of the theory is that gravitational mass and inertial mass are completely distinct. Forces from gravitational charge interactions are distinct from inertial f=ma forces, which can be shown to be due to EM forces resulting from the fact charged particles have finite dimensions. I think Puthoff (a former member of this list) and Ibbitson have written a number of articles about the EM source of inertia.

Coulomb charge and mass charge are utterly distinct under the gravimagnetic theory, though they are commonly bound together in ordinary matter.

I'll need to see your
answers before taking this further.

Perhaps you could take it in a basket for a picnic.  mmmmm.... picnic...

Regards,

Horace Heffner

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