Axil— Your conclusion “The indispensable role that Ultra dense hydrogen plays in this quark confinement disruption reaction is to reformat the stimulant EMF energy into the proper strong force disruption form” is right on IMHO. The strong force is The result of EM potentials and not virtual quark attraction.
The roll of neutrino interaction with electrons and positrons within the confines of a nucleon seems always neglected. The key may be in understanding the effect of intrinsic spin and angular momentum of the neutrino at the Planck scale. Bob Cook From: Axil Axil<mailto:janap...@gmail.com> Sent: Thursday, February 21, 2019 1:35 PM To: vortex-l<mailto:vortex-l@eskimo.com> Subject: Re: [Vo]:The EMC effect and proton disintegration Jones, You may be placing too much emphasis on the laser reaction mechanism with Ultra dense hydrogen here. Holmlid has found that the laser pulse can be replaced with a spark and that spark can still get the same reactions to occur as that low powered laser pulse can. The indispensable role that Ultra dense hydrogen plays in this quark confinement disruption reaction is to reformat the stimulant EMF energy into the proper strong force disruption format. The EMC Effect might be a result of a brief superposition of quarks between nucleons that reside in the constituent nucleons inside a nucleus. This observation seems to be a violation of the quark confinement rule. Quark confinement is the factor that produces high quark momentum. When quark momentum goes down, this means that quark confinement is relaxed proportionally. Superposition of quarks may be occurring were the strong force connections are shared between each interacting quark interconnection network regardless of what nucleon the quarks are in. What Ultra dense hydrogen might do is to reformat the EMF produced by the stimulant pulse whether that EMF pulse is from a laser or a spark into some sort of properly formatted strong force disruption pulse. >From my examination of multiple LENR experiments that show transmutation, I >think I know the details of what that strong force interaction/disruption >pulse looks like, and how that pulse is formed. On Thu, Feb 21, 2019 at 9:22 AM Jones Beene <jone...@pacbell.net<mailto:jone...@pacbell.net>> wrote: Why would it be easier, far easier in terms of applied force, to completely disintegrate a proton into quarks - using a laser - compared to fusing two deuterons in a plasma using extreme heat ? The answer is very likely related to the "EMC effect" which is in the Science News today (for other reasons). Wiki sez: The EMC effect is the surprising observation that the cross section for deep inelastic scattering from an atomic nucleus is different from that of free nucleons. From this observation, it can be inferred that the quark momentum distributions in nucleons bound inside nuclei are different from those of free nucleons. This is unexpected, since the average binding energy of protons and neutrons inside nuclei is insignificant when compared to the energy transferred in deep inelastic scattering reactions that probe quark distributions. Imagine that! The strong force, which holds nucleons together is in fact much weaker than a deep inelastic scattering event instigated by a laser pulse. While over 1000 scientific papers have been written on the EMC effect and numerous hypotheses have been proposed, no definitive explanation for the cause of the effect has been confirmed. "Determining the origin of the EMC effect is one of the major unsolved problems in the field of nuclear physics." For that reason alone, major funding should be applied to the simple phenomenon of laser irradiation of dense hydrogen (aka the Holmlid effect). Here is a (poorly written) report of recent work on the EMC effect Correlated nucleons may solve 35-year-old mystery<https://phys.org/news/2019-02-nucleons-year-old-mystery.html#nRlv> Correlated nucleons may solve 35-year-old mystery A careful re-analysis of data taken at the Department of Energy's Thomas Jefferson National Accelerator Facility...
