Axil, I am in total agreement with your first 5 paragraphs and I agree with where you are going but disagree that magnetism will increase or decrease particle production... even used in conjunction with nano geometry which restricts larger virtual particles in a casimir like manner the magnetism is only segregating the virtual particles between regions of various suppression.. I can see this providing a spatial bias to virtual particles that would unbalance the normal cancelation of random uncertainty.. perhaps a self assembled maxwellian demon of sorts. Would like to see if you can still put your theory forward without relying on a breach of the isotropy or at least stipulating that the breach is a function of the geometry which your magnetism is leveraging somehow. Regards Fran
From: Axil Axil [mailto:[email protected]] Sent: Wednesday, February 26, 2014 3:04 PM To: vortex-l Subject: EXTERNAL: [Vo]:Progress to date The following post is a synthesis of a number of individual and disjointed posts that I have produced in recent months to make sense of a complicated issue. That issue is the confusion incipient in the vast differences and contradictions seen in a wide variety of LENR systems. >From system to system, LENR is subject to a variation of strength. To my way >of thinking, this variability in the characterization of the unique mix and >match LENR processes instantiated in each LENR system are directly based on >the strengths of magnetic fields inherent in each LENR system. Magnetic fields interact with the vacuum and produce a number of different breakdown mechanisms as a function of that field's strength. To start this detailing, virtual particle production in the vacuum is one of the sources of the uncertainty in quantum mechanics as particles come randomly into and out of existence. Tunneling and radioactivity is a result of this vacuum based uncertainty. Magnetic fields interact with the vacuum to produce particles in a deterministic way. As the strength of the magnetic fields increase, the probability that the vacuum will generate particles will also increase. This increase particle production in the vacuum increases the rates of tunneling and radioactivity. As the magnetic field gains strength to intermediate levels, the vacuum produces composite particles from fermions. The magnetic field interacts with the various types of fermions to catalyze virtual charge carrying quasi-particle pairs that are bound to the fermions as the fermions attempts to minimize its particular energy level. As the magnetic field reaches it maximum strength, this field produces mesons out of the vacuum which effectively guaranties nuclear disruption in terms of charge screening, cluster fusion, fission, and isotope and radioactivity stabilization In summary, a single primary magnetic field based causation produces strength based mix and match results centered on a hierarchy of magnetically catalyzed vacuum based particle production mechanisms.
