The thorny way of truth - Free Energy Community

i:rv.;-^^;;;•those- 123 -mirror reflection and that the electric field nodes are locked tothe mirror surface . The translational motion of the Mlchelson-Morley apparatus through space could therefore be forcing theenergy in the standing wave oscillations to share the motion of theapparatus. If- the wave energy is 'forced' to share that motion,how can we be so sure that the wave velocity is not equallyconstrained to be referenced on that energy field and so on theapparatus that shares the motion of the earthly observer? If thephenomenon owes its existence to relativistic principles, thenprinciples must in some way arise from the ' forced' behaviourof the standing wave system. Does relativity involve us in thedifferences between standing waves and free waves and how does the'observer' relate to standing waves nodes that lock themselves ontonirror surfaces?This theme then leads us to ask what happens if a free wavecomponent having no reflected counterpart is superimposed upon astanding wave system having the same frequency. Will the free wavetravel at a speed referenced on some other frame, perhaps apreferred frame? This, of course, is easily tested because thefree wave would then modulate the standing wave along its length asa linear function of motion of the apparatus relative to thatpreferred frame.-.;'>• -^"w--.;.; .,'If we can contend that the standing wave energy, being forced toshare the motion of the mirror and so of the apparatus, entrains,as it were, the effective electromagnetic reference frame so far asthat standing wave system is concerned, are we to Imagine that adifferent electromagnetic reference frame can operate in the samevacuum region? If so, then what role do we assign to the notionalobserver in Einstein's theory?The essential point which emerges from the context of the abovequestions is that what we know as Lorentz invariance has come fromobservations on free particles with data derived from measurementsin which field energy is entrained by the apparatus. A physical