>From the SLAC report—"We give simple! arguments that while baryon number violation is indeed large at high temperatures, there is no such enhancement at high energies.”
http://www.slac.stanford.edu/pubs/slacreports/reports12/ssi90-020.pdf I conclude that 2-body (high energy) particle reactions require conservation of linear momentum and many- body, (low-energy, high-temperature) reactions depend upon tunneling and wave function overlap at resonant conditions with conservation of energy and angular momentum. Baryon conservation only happens some- times. That’s “simpler!” than the SLAC group’s arguments IMHO. Bob Cook ________________________________ From: JonesBeene <[email protected]> Sent: Wednesday, April 24, 2019 11:42:28 AM To: [email protected] Subject: RE: [Vo]:New Holmlid paper on Research Gate Nah. In fact, there are many violations of baryon number conservation at high local temperatures in the Standard Model… Here is a decent paper on the subject of baryon conservation law violations from people who see it almost every day and incidentally have LLNL connections. http://www.slac.stanford.edu/pubs/slacreports/reports12/ssi90-020.pdf. In the end, experiment always rules, and “conservation laws” are usually nothing more than generalizations to begin with….(make that over-generalizations) Jones From: Axil Axil<mailto:[email protected]> The reason why "LLNL not all over this" is because the Holmlid effect violates the baryon number conservation law. https://en.wikipedia.org/wiki/Baryon_number JonesBeene wrote: https://www.researchgate.net/publication/331968180_Ultradense_protium_p0_and_deuterium_D0_and_their_relation_to_ordinary_Rydberg_matter_a_review There is a clue here about why the output in muons has been difficult for others to duplicate. It turns out that the active material must be in the form of long chain clusters, not simply the smaller grouping. QUOTE: “Superfluidity and a Meissner effect at room temperature are only found for the long chain clusters H2N(0), while the small H3(0) and H4(0) clusters do not have any super properties” This means that there is a specific technique which has to be implemented to first densify and then to create the extremely dense clusters in which most of the nuclear reaction processes take place. Following this step, laser irradiation will give meson showers (most types of kaons and pions) and, after meson decay, large fluxes of muons and other leptons. The fluxes can be extraordinarily high Why is LLNL not all over this ??? It seems almost negligent to ignore this. Heads should roll if the Holmlid effect has been overlooked by the one National Lab whose missionand multibillion funding level is so similar. Not to mention the military implications.
