rexresearch
A. G. PARKHOMOV
MultiNuclear Synthesis
https://www.youtube.com/watch?v=klyDWNDSntg
Heavy elements from light ones via multinuclear synthesis - A. G. Parkhomov // Martin Fleischmann Memorial Project
Alexander Georgievich Parkhomov shows how multinuclear reactions involving the weak interaction can build heavy elements, up to transuranic ones, from light ones - in planetary interiors and in a laboratory reactor.
On the possibility of forming heavy elements from light ones through multinuclear synthesis
Alexander Georgievich Parkhomov · talk · 29 September 2026
Parkhomov argues that elements heavier than iron and nickel cannot be built by step-by-step growth of atomic weight, and that supernovae are too rare to explain the observed abundances of the elements. The way out is Type 2 synthesis: multinuclear reactions in which a heavy nucleus is assembled at once from many light nuclei, with the weak interaction and neutrinos taking part. This can explain the anomalously high heat flow from the Earth's interior and the results of the incandescent-lamp reactor in flowing water, where iron, tin, lead and bismuth appear in aluminium foil. The talk ends with questions on the Vachaev reactor, on the cleanliness of the experiment and on why ore deposits lie at the surface. From 18:14 to 27:13 the discussion is in the original Russian with subtitles.
Chapters
0:00 Introduction: element synthesis in stars
4:30 Heavy elements in planetary interiors
9:37 Elements heavier than iron and nickel
13:51 The incandescent-lamp reactor
https://www.scirp.org/journal/paperinformation?paperid=140335
Low Energy Nuclear Synthesis in Earthquake, Volcanic Eruptions, and Genesis of Heavy Elements
Alexander Vol1, Arie Lev Gilat
[ PDF ]
Abstract -- 1989 is the beginning of intensive research into the phenomena of cold nuclear fusion, renamed “The Low Energy Nuclear Synthesis Reactions” (LENR). Based on these results and the long-term research of earthquakes and volcanic activity, the authors of this article put forward a hypothesis about the mainly chemical nature of the energy released at earthquakes and volcanic eruptions with the participation of primordial hydrogen and helium: high mobility of hydrogen and oxidizers provide focusing and accumulation of the latent chemical energy, which is realized suddenly and instantaneously as explosions and initiate the earthquake and/or eruptions. The volcanic eruption is viewed therein as a special type of earthquake whereby the hypocenter rises to the earth’s surface. The authors proposed a new hypothesis that LENRs significant energy to earthquakes and eruptions at the synthesis of elements lighter than iron, thus creating excess energy, which is partially used for the synthesis of heavier elements. The combination of the chemical and nuclear reactions transforms these centers of geophysical activity into giant reactors where the nuclear, chemical, and thermal transformation of mantle materials and the creation of primary deposits of heavy elements such as uranium, thorium, gold, etc. So, all chemical elements heavier than iron are not detected in the solar wind. These elements discovered on our planet could be (and probably were) created on planet Earth and not imported from explosive supernovae or far-off remote stars. To the best of our knowledge, this hypothesis has not been proposed until now.
https://worldwide.espacenet.com/publicationDetails/biblio?DB=EPODOC&II=1&ND=3&adjacent=true&locale=en_EP&FT=D&date=20150723&CC=WO&NR=2015108434A1&KC=A1
WO2015108434 -- METHOD AND DEVICE FOR PRODUCING THERMAL ENERGY BY PLASMA ELECTROLYSIS
[ Transl. ]
In a composite electrolytic cell having an aqueous electrolyte solution, an inner portion is made of a chemically stable electrically conductive material, and an outer portion is made of a heat-resistant dielectric material. When applying a voltage of over 300 volts and current greater than 1.0 amperes to an anode, a plasma discharge is produced, allowing for low-temperature cold nuclear transmutation nuclear reactions in a near-anode area of the electrolyte, leading to intensive energy release and to the evaporation of electrolyte water, wherein an electrolyte pillar is maintained at a constant level and the function of a cathode is carried out by the inner portion of the electrolytic cell. A device is carried out in the form of an electrolytic vessel having a composite cylindrical housing which is provided with a lid, a level-meter and a dose-dispenser, and which is connected to an electric power supply, wherein an inner portion of the housing, which is made of a chemically-stable electrically-conductive material, carries out the function of a cathode, and an outer portion of the housing and the lid are made of a heat-resistant dielectric material having a thickness of more than 1cm, wherein an anode in the form of a rod having a diameter of 3-10mm and having a sharp end-fitting is installed in the lid, coaxially with the housing, and is submersed in the electrolyte to a depth equal to the diameter of the rod.