PEMF therapy produces antimicrobial broadband ultrasound
How does broadband ultrasound destroy microbes?
(Many thanks to physicist
Gary Wade for his invaluable information on this
subject)
Broadband ultrasound can produce MECHANICAL oscillations that inactivate
microbes
All microorganisms contain protein clump structures
(bonds)
which are vital to their functioning, survival and propagation and
that are:
(1) Periodically
spaced
(2) Elastically
coupled
and (3)
Closed-in-on-themselves.
PROTEIN BONDS
In general, biological proteins are amino acid strings folded up into
specific configurations, held in these configurations by
cross-linking, very weak hydrogen bonds and short range Van der
Waals forces.
If these hydrogen bonds can be broken (as described above), the protein rearranges itself.
In general, the
size, shape, and specific charge configuration of a specific protein
is crucial to the proper functioning of that protein.
In some microbes these structures are located in their outer coating
A virus
example illustrates microbial vulnerability. About half the viruses infecting humans
commonly have a LIPID CAPSID COAT, consisting of the protein clump
structures described above, which can support resonant standing mechanical
waves.
The dark circles in these example capsid coats (flattened out view)
represent single spheroidal protein molecules, which are elastically coupled /
bonded to each other. The capsid coats are made up of 20 identical equilateral
triangular protein clump structures folded up and closed back on themselves to
form a complete virus capsid coat, called a icosahedral, as illustrated.
Mechanical oscillations can inactivate microbes.
The
bond between adjacent protein molecules of the virus are relatively weak, and if the
stress between them becomes large enough, the bond breaks and this essential
structure for holding and delivering the virus genetic material is damaged or
destroyed, essentially inactivating the virus. This is especially the case if adjacent protein clumps
oscillate 180 degrees out of phase, such that one protein clump is moving upward
while its adjacent clumps are moving downward and visa versa. At a
sufficient displacement of the protein clumps from their resting position,
the
stress where the adjacent protein clumps are joined will break the bond
between them .
Free-floating viruses are then un able
to infect a new cell, and viruses that are forming and budding from already
infected cells can be likewise inactivated
A mechanism that can produce
either the SPECIFIC FREQUENCY of A MICROBE (as in the RIFE RESONANCE
PROTOCOL )
or BROADBAND ULTRASOUND (i.e. a broad range of ultrasound
frequencies)
will provide the mechanical oscillations required to inactivate microbes
(by
destroying essential protein bonds in their structures).