On Wed, Mar 22, 2017 at 1:11 PM, Frank Znidarsic <[email protected]> wrote:
> All static forces are conservative. An electrical dielectric of contains > forces of opposite charge which only reduces the strength of the static > electrical force. > > There is no opposite polarity for gravity so the static gravitational > force cannot be reduced. Static forces diverge, changing them, effects the > entire universe and requires enormous energies. Ref the previous > discussion, A magnetic mono pole would diverge and would require enormous > energies to produce. No possible with any technology but it is possible > that a few may be left over from the formation the universe. > > What if conservative forces are special cases of non-conservative forces. Conservative forces would appear to be fundamental only because of the big bang. In other words the high energy origins of the universe have tended to mask the non-conservative and low energy aspect of these forces. Conservation of energy would still hold in this zeitgeist. Harry > All magnetic forces are di-polar, curl, and have a limited range. They do > not effect the energy of the universe, and they are not conserved. The > magentic, gravitomagnetic ,and nuclear spin orbit forces are not > conserved. They come and go as need to conserve the momentum of a system > when the original static force fields cannot. > > > From my book. > > > "The arguments based on time and distances are not valid. For the sake > of argument let's first assume that forces propagate instantaneously. The > resulting forces are equal and opposite. The movement of local matter, > in such a system, immediately affects the distant regions of the universe. > No additional forces, other than the original exchange forces, are > required. These static fields would, conserve momentum through their own > actions. In the real universe forces do not propagate instantaneously. It > takes time for the gravitational field of matter to establish itself > throughout space. Moving matter immediately experiences the force of the > established gravitational field of distant matter. The fields of moving > matter require a finite amount of time to propagate outward. For a > period of time, distant matter will continue to be attracted to the moved > matter's old position. During this period, the original static forces > are not capable of conserving the system’s momentum. Additional forces > are required. Michael Faraday discovered that a moving electrical charge > induces a magnetic field. A magnetic field is produced by the dynamic > movement of an electrical charge. Its magnitude is proportional to the > charge's speed. When a moving electron passes through a changing > electrical field, a second magnetic field is produced. The magnitude of > this second field is proportional to the rate of change of the external > electrical field. A local force is produced by the interaction of these > two magnetic fields. The action of this local electro-magnetic force > balances the momentum of the moving electrical charges. " > > > Frank > > > > >
