Practical Guige to Free Energy Devices

freezing point, the molecular activity is low enough to permit soft electrons to enter or leave the substance
without disintegrating. In order for the water to be transformed from a solid back into a liquid, the same
quantity of soft electrons must be injected into it as were removed when it changed from a liquid to a solid.
The melting and freezing temperatures of water vary considerably due to the differing amounts of soft
electrons contained in it. Another unusual feature is that in cold weather, hot water pipes have a greater
tendency to freeze than cold water pipes do. This is because the heating of the water drove off many of the
soft electrons normally contained in the water and due to the low temperature of the surroundings, these soft
electrons were not replaced, and as a consequence, freezing to become a solid happens more easily.
One tends to think of colloids as ultra-small particles of solid matter. However, molecules of water can
adhere to each other to form aggregates of water molecules, which are effectively, colloids as well. Colloids
have strong electrical properties as indicated by the fact that they are not affected by gravity. The field
zones around any such colloidal group will be much stronger than that around a single water molecule.
Water with a high percentage of such colloidal groups can capture a very large number of soft electrons
which are beneficial to health. Abnormal conditions in certain places can favour the formation of water
colloids and that can account for the healing properties of water found in some places, such as Lourdes in
France.
18. Hard particles can be captured by softer particles and this is deeply involved in a wide range of
phenomena, from the transmission of heat and electricity, to the formation of clouds.
Ether particles have zones of attraction and repulsion. Since photons are composed of ether particles, they
will in turn, possess zones of attraction and repulsion. In the case of ether particles, these zones will be
correspondingly smaller in proportion to the diameter of photons. When protons combine to form electrons
or protons, the same zones are present between these particles. However, the zones of attraction are
minute when compared to the diameter of the electron or proton, and like particles, seldom if ever get close
enough together at sufficiently low velocities for the attractive forces to become effective.
The situation is entirely different when two similar particles composed of photons but with widely differing
frequencies, approach each other. Electrostatic attraction or repulsion is considerably lessened because
each is associated with ethers which differ considerably from each other. When they are ion direct contact
with each other, electrostatic repulsion tends to vanish, since there can be little or no bombardments on the
sides facing each other. Since each particle associated with ethers is somewhat different, they will tend to
interpenetrate. This means that they will be completely within the ether attraction zones of one another. As
a result, the harder particle is captured by the softer one. In a similar manner, the captured harder particles
will, in turn, capture still harder particles and this process continues until electrons normally associated with
electricity are confined. This combination of particles tends to nullify the electrostatic forces which are
normally produced by the confined particles, camouflaging the captured harder particles so that their
presence is not readily apparent.
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