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Electron Ensembles
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This paper by Ken Shoulders discusses the physics and practical applications of electron ensembles, also known as Exotic Vacuum Objects (EVOs) or Charge Clusters. Shoulders argues that these multiparticle electron clusters exhibit phenomena outside the scope of traditional single-particle physics, including apparent charge and mass non-conservation, cold fusion energy gain, transmutation of nucleons, and novel propulsion methods. He also discusses potential applications and hazards, including advanced propulsion, energy generation, and directed energy weapons.
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Introduction and Fundamental Concepts
Electron Ensembles
by
Ken Shoulders © 2007
There is a fascinating new realm of physical effects not covered by present-day single particle physics description, but still very much a part of the world we live in. These effects herald some forthcoming events greater in extent than those found in the single electron world we are most aware of. This domain is the multiple electron universe where the effects of electron ensembles dominate all others.
A Name: In the past, a litany of names has been used for this still emerging field (3). Such descriptors as EV (Electrum Validum or strong electron as well as Electromagnetic Vortex), HDCC (Hi Density Charge Clusters), Charge Clusters, Ectons (Used by Mesyats in Russia) and lately, EVO (Exotic Vacuum Object) have been designations for any cluster of charge over the size of a few electrons. Some clustering rules have been made evident by the author as described in references (1, 2, 4, 5, 6, 7, 36).
The Dividing Line: There is still an indistinct dividing line in numbers, for either electrons or protons, beyond which these new effects occur, but it lies somewhere between that of electron pairs and the hundreds of particles seen in nuclear clustering effects. One thing is clear in all instances, the normal repulsion laws for the like sign of electric charge between single particles do not hold in this new realm (8). The particles, or wavelets, are much more tightly bound than those in solids even though the number density is virtually the same, being in the range of Avogadro's number. This high binding energy is demonstrably large when the ensemble is either suddenly disrupted or the group is caused to bore through ordinary solid matter (4).
Charge and Mass non-Conservation: The most Holy laws of single particle, charge and mass conservation are totally disregarded when electrons consort in this ensemble mode, as the values of both charge and mass vary over a range of over a billion to one when the initial number of electrons used to form an EVO are compared to the number of electrons contained within the EVO black state (9,10).
Energy Production: This gross reduction of charge and mass are at the root of, so-called, cold fusion energy gain. The process of energy production in this case is not nuclear in its origin but rather traceable to the high velocity of nucleon acceleration achieved efficiently through, first, mass reduction of nuclei by EVO association, and then the concomitant interaction of this high velocity projectile, operating at high mass by virtue of EVO entrainment loss, dumping its energy into the host lattice (11, 12).
This almost arbitrary change in charge and mass cause havoc with another Holy law, namely, the law of energy conservation (13, 14). Factually, the only actual havoc caused is with those clinging to the old laws of single particle theory and practice. Moving on to the new world of multi particle ensembles vanquishes this disarray.
Although the nuclear world was bypassed for production of energy via the cold fusion process, it is severely impacted through the ability of electron ensembles, EVOs, to transmute nucleons most easily as a part of their normal interaction with matter. There is plenty of nuclear ash found in the cold fusion process, but it is not necessarily a hallmark of nuclear energy release. Incidentally, almost all of this ash is non-radioactive (15). The notable exception is the production of tritium.
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This paper by Ken Shoulders discusses the physics and practical applications of electron ensembles, also known as Exotic Vacuum Objects (EVOs) or Charge Clusters. Shoulders argues that these multiparticle electron clusters exhibit phenomena outside the scope of traditional single-particle physics, i...