For the first time, I like to put forward for your consideration a speculation which postulates the formation of a unified fundamental force. This is the elemental force that Einstein was after for over 40 years until his death. Produced in the right type of system, this long sought after global force is one in which the electromagnetic field gains sufficient strength through the additive accumulation of polarized angular momentum or spin to combine with both the weak force and the strong force.
This fundamental force tends to relax more energetic atomic systems to both transfer the resultant excess energy of excitation through a common wave based conduit and also down shift this energy to the matter that has produced the amplified EMF. The EMF amplification mechanism is the result of the additive nature of EMF. Like gravity, polarized spin can accumulate in unlimited amounts in the same way that gravity accumulates strength though the unlimited addition of mass to form the most powerful force in nature. In this way, the additive nature of gravity can transform this most feeble force in nature into a process that is so powerful that it can rip space and time apart to produce black holes of gigantic size. On Sun, Aug 25, 2013 at 3:48 PM, Eric Walker <eric.wal...@gmail.com> wrote: > I'm including a brief synthesis of some of the thoughts that have been > discussed on this list concerning a possibly novel interaction between > gamma-producing fusion branches and solid state matter. This synthesis > elaborates on a thought experiment that at this time lacks the rigor of > something that would be turned into in a paper. My hope is that it can > nonetheless be further refined as one step towards a more rigorous > presentation, should that come about at some point. > > Although the discussion below focuses on PdD somewhat, hopefully it will > be clear that it applies equally to NiH(D). I see more promise in NiH and > simply feel a desire to try to pick up some longstanding questions that > have been raised in connection with PdD, which for most investigators is a > system that is more familiar and better understood. For the most part I > have been focused on NiH. > > Eric > > > > > > Since late 2011 there has been a discussion about a new way that the > gamma-producing fusion branches might interact with matter, first set out > to my knowledge in a post by Ron Maimon to the physics site > physics.stackexchange.com [1]. During 2012 and into 2013 that thread has > been picked up on Vortex-L and the idea extended and modified. The > foundation for the speculations here is not yet rigorous, so they are only > a thought experiment at this point. But, phenomenologically, they go a > long way to explain persistent and quirky details of the cold fusion > experiments that have been described in Ed Storms's book and review > articles and by others, elsewhere. For this reason I think the thought > experiment merits a restatement and consideration of some observations it > might explain as well as some new predictions. I'll try to do each of > these things in turn. > > To recap, the original proposal was that in the context of a palladium > lattice the gamma-producing dd fusion branch interacts electromagnetically > with lattice site nuclei instead of producing a gamma photon. The result > is that you would get a prompt 4He that, when born, pushes off of a nearby > heavy palladium nucleus. The heart of the idea is that the energy is > yielded in a (near-) instantaneous electromagnetic transfer with the > palladium lattice site. The gamma, which takes a long time to be emitted, > is competetively suppressed and the energy is translated into kinetic > energy of the daughter 4He and the palladium lattice site. This happens > because the electromagnetic interaction is very fast compared to gamma > photon emission. The process is so fast in fact that it also competes > favorably with the other dd branches, which involve the production of > energetic charged particles and neutrons (a slower process). The > discussion here has run with Ron's idea and modified and extended it. The > extension is to all gamma-producing fusion branches, and not just > d(d,ɣ)4He, and to electromagnetic interaction not only with lattice site > nuclei but also with the ambient electronic structure of the metal > lattice. The modification involves how the chain reaction proceeds. > Whereas Ron proposes that energetic charged deuterons drive the reaction in > a very specific way (see [1] for the full discussion), the proposal here is > that all electromagnetic interactions, whether directly with the electronic > structure or indirectly through disruptions resulting from the motion of > fast charged particles, proceed to modify the charge density in the metal > lattice such that screening or possibly a mechanism similar to that of the > Polywell reactor [2] makes dd fusion and pd fusion orders of magnitude more > likely. > > The motivation for the approach of this thought experiment is twofold. > The first reason this hypothetical mechanism is attractive is that it has a > good phenomenological fit to the cold fusion experimental observations. A > second reason is that to my knowledge it does not depart too far from > conventional physics. While it is true that a few assumptions must be > reexamined, our basic understanding of physical laws and interactions need > not be set aside, in connection, for example, with the strong interaction, > the weak interaction and Coulomb repulsion. > > Now for the observations and predictions. > > 1. In PdD electrolytic experiments, 4He seems to be produced at or close > to the surface of the cathode. > > The main reason for this belief is that the 4He, which is thought to be > the primary ash of PdD cold fusion, is found near the surface and less and > less as towards the bulk of the palladium cathode. Because 4He is not > mobile in palladium (except when there are fissures and cracks), it cannot > migrate out of the cathode in the same way that deuterium can. This means > that any 4He that is detected at or near the surface that is the result of > a fusion process will have been produced at or near the surface. The > requirement for surface or near-surface production of 4He in the PdD > electrolytic system does not seem to be a hard and fast one, but there are > several lines of evidence that point in that direction. > > If the mechanism proposed here holds, the reason for this would be > straightforward. Electrical current can be expected, through the mechanism > of this thought experiment, to bring alter the charge density of the > lattice site nuclei. The electron charge would then become more evenly > distributed throughout the lattice and into the interstitial areas, rather > than being concentrated around the lattice sites as it normally is. The > cause for the change in charge density is not yet clear -- in this case it > could be through interactions between migrating electrons with more tightly > bound electrons. But because current flows primarily through the skin of a > conductor and less and less towards the center, one would see less and less > of the effect with increasing depth into the cathode. > > 2. In PdD electrolytic experiments, it can take a while for an effect to > be seen. > 3. In PdD electrolytic experiments, there seems to be a relationship > between impurities and an effect. Excess heat may not be seen in a pure > palladium cathode, for example, whereas it may be seen increasingly > effectively in a cathode which has undergone prior electrolysis and has > acquired impurities through the process of electrolysis. > > It would seem that impurities play a role of some kind. One thought here > is that in order for the charge density to be altered, the energy within > the electronic structure must be allowed to increase. This process can be > expected to be defeated if electrons are mobile throughout the cathode. If > there are dielectric impurities that have the effect of isolating certain > portions of the cathode into their own insulated islands, the average > energy of the electronic structure within those islands can be expected to > increase. In a fresh cathode, there may be few impurities and insulated > islands of this type. After a long period of electrolysis, however, there > may be more and more insulated islands that can retain energy in this way, > facilitating the modification of the charge distribution and hence the > shielding mentioned above. > > 4. In cold fusion experiments, one often sees strange transients in the > current, in which the current increases for periods of time. > > This detail was noted by Abd sometime back [3]. One possible explanation > here would be that the process being proposed has two branches -- one is > the electrostatic dumping of the energy of a fusion directly into the > electronic structure, and the other the creation of kinetic energy as the > 4He daughter (in the case of PdD) pushes off of a lattice site. The former > branch is relevant here, as it seems to be equivalent to a spark discharge > into the electron cloud of around 24 MeV (or 5 MeV). If enough of these > events occurred, one supposes there would be an increase in current at the > macroscopic level and an apparent decrease in resistivity. > > 5. In cold fusion experiments, very little prompt radiation is seen. > > This is an observation that Ed has steadfastly defended and that I have > only reluctantly come around to after reading through some of the early > papers. Now that there is a mechanism that makes sense to me that does not > purely involve fast particles (such as the one proposed by Ron Maimon in > [1]), I'm more open-minded to cold fusion products being born without > kinetic energy. This backtracking on my part inverts the old saying that > seeing is believing -- here we have something like, "having a believable > explanation is seeing." > > The lack of prompt radiation suggests that of the two different branches > proposed -- one in which the decaying [dd]* or [pd]* intermediate state > electrostatically dumps directly into the electronic structure, and the > other in which the resulting 4He or 3He pushes off of a lattice site -- it > would seem to be the first branch that is dominant. In that branch, one > expects 4He and 3He to be born almost motionless, and the momentum of the > reaction to be carried away primarily by the electronic structure. Here it > may be the local region of the electron cloud as a whole that receives the > momentum, or, alternatively, a single electron. In the former case there > would be almost no Bremsstrahlung. In the latter case, which would result > in a ~24 MeV or ~5 MeV electron, one would expect Bremsstrahlung. > > 6. Excess heat has been seen in zeolites impregnated with palladium. > > Because the zeolite matrix is an electrical insulator, the energy of the > electronic structure in the palladium particles embedded within it can be > allowed to increase over time, altering thereby through some > as-yet-discovered phenomenon the distribution of charge density. This is > similar to the possible role played by impurities mentioned above in > connection with (2) and (3). > > 7. In PdD electrolytic experiments, cracks seem to play an important > role. I'm going to guess that this is straightforward and is due to > hydrons being kept apart within the octahedral and tetrahedral sites in an > fcc lattice even further than when they are bound in molecular form. In > order for screening to play a role, one presumes that it would be better to > have vacancies and cracks, where the hydrogen is mobile. > > Now for some possibilities and predictions. > > 1. Dopants added to the substrate may have an effect on how easy or hard > it is to start or sustain a reaction. Because dopants often either add to > or take away electrons from the ambient electron cloud, one expects them to > have some kind of effect in all of this, although the exact result would > not be clear. > > 2. Modifications to the behavior of a system under a magnetic field can be > expected. The decay of the [dd]* or [pd]* intermediate state via > electrostatic transfer of energy either into the ambient electron cloud or > with a lattice site is essentially an electromagnetic phenomenon. One > expects, then, there to be some kind of effect when a magnetic field is > applied, although the precise nature of the effect is not clear. > > 3. Gamma-producing branches may not be required for cold fusion. > Reactions that yield fast charged particles can be also be expected to > alter the electron charge density within the lattice by way of the > hypothetical mechanism of this thought experiment. But it may be that > gamma-producing reactions are competitively favored for reasons not yet > understood. Even if this is the case, it would not be surprising if > precursors within the substrate that when fused do not decay to a gamma > will still fuse, via the same screening or Polywell mechanism that leads to > the dd or pd fusion. In that case the resulting kinetic energy of the > particles would contribute to the modification of the charge density, but > you would also see the kind of Bremsstrahlung expected from fast particles. > > 4. Sparks, natural alpha emitters and natural beta emitters (radioactive > and thermionic) can be expected to catalyze a cold fusion reaction. Fast > alpha and beta particles will presumably alter the electronic structure in > the manner required to get a chain reaction going and to sustain it. This > suggests that Rossi's temperature-activated catalyst is a thermionic > emitter, which emits beta particles when heated. One suspects there is a > similar function being played by Defkalion's spark plugs. Dave and Alan, > who have been modeling the thermodynamics of these systems, might want to > take into account a temperature activated catalyst of some kind. > > > > > [1] http://physics.stackexchange.com/a/13734/6713 > [2] http://en.wikipedia.org/wiki/Polywell > [3] http://www.mail-archive.com/vortex-l@eskimo.com/msg67322.html > >
