In order to explane the soliton solution to dark matter, physics has invented particle ensembles with the count of members between 10^^15 and 10^^36 members. These ensembles are called Q-balls which carry large numbers of a conserved global charge, B-balls which B-balls containing baryonic charge which are stable because of the largeness of the nucleon mass,,,these sound like micro black holes, and L-balls which contain a large amount of leptonic charge. No body that I have come across has imagined the S-ball that contains a huge number of spin only particles. These S-balls would be well may well be at work inside the NiH reactor producing LENR reactions. Such S-balls would project a large anapole magnetic field which is ideally well suited to produce behavior demonstrated by dark matter observations.
For reference: http://en.wikipedia.org/wiki/Q-ball http://www.hs.uni-hamburg.de/DE/Ins/Per/Banerjee/WWW-ita/publications/PhysLettB_484_278.pdf On Fri, Jul 18, 2014 at 2:40 PM, Axil Axil <[email protected]> wrote: > There is a connection between the nature of a particle and the mass that > he Higgs field gives it. > > First some Higgs field background, all the particles that make up matter > have mass — from the lightest, the electron, to the heaviest, the top quark > — and can be left- or right-handed, that is the direction in which they > spin. This handedness of particles is the means of getting mass from the > Higgs field. > > Although the Standard Model cannot predict their masses, it does provide a > mechanism whereby elementary particles acquire mass. This mechanism > requires us to accept that the universe is filled with particles that we > have not seen yet or at least only at CERN. > > No matter how empty the vacuum looks, it is packed with particles called > Higgs bosons that have zero spin (and are therefore neither left- or > right-handed). Quantum field theory and Lorentz invariance show that when a > particle is injected into the "vacuum", its handedness changes when it > interacts with a Higgs boson. In that meeting with the Higgs boson, the > particle starts to spin in the direction that is opposite to the way it was > spinning originally. > > For example, a left-handed electron will become right-handed after the > first collision, then left-handed following a second collision, and so on. > Put simply, the electron cannot travel through the vacuum at the speed of > light because the Higgs field would force it to become massive. > > Similarly, muons collide with Higgs bosons more frequently than electrons, > making them 200 times heavier than the electron, while the top quark > interacts with the Higgs boson almost all the time and this type of quark > is just about all mass and very heavy. > > This picture also explains why neutrinos are originally thought to be > massless. If a left-handed neutrino tried to collide with the Higgs boson, > it would have to become right-handed. Since way back when it was thought > that such a state exists, the left-handed neutrino was thought to be unable > to interact with the Higgs boson and therefore did not acquire any mass. In > this way, massless neutrinos go hand in hand with the absence of > right-handed neutrinos in the Standard Model. > > More recently, it was found experimentally that the left handed neutrino > could turn into a right handed neutrino. > > This neutrino spin flip observation now predicts that the neutrino must > have mass. > > It is not the actual flipping of the particles spin that produced mass; it > is just the fact that a particle could have the ability to flip its spin > that gives it mass. > > The mass rule comes down to this: any particle that has an anti-particle > or in other words, can flip its spin also has mass given to it by the Higgs > boson. This includes particles that can be its own anti-particle call a > Majorana fermion, also referred to as a Majorana particle. This is a > fermion that is its own antiparticle. > > It is my contention that elementary particles like photons and electrons > can form more complex compound particles called quasiparticles that can > acquire mass from the Higgs field through their ability to flip their spin > or be their own anti-particle. For example, protons and neutrons are > compound particles of different quarks and they both get mass from the > Higgs field. > > Photons and electrons can form a soliton of surface plasmon polaritons. > This soliton like any soliton can be considered a particle > indistinguishable from real elementary particles. > > If this SPP soliton is its own anti particle then it can acquire mass from > the Higgs boson. This mechanism of SPP formation may be how light can > acquire mass. > > If LENR is occurring all over the cosmos and producing SPP solitons, when > photons join with electrons as a Majorana soliton particle, dark matter > could be dynamically formed adding a new source of mass to the universe. >
