Why superwaves?

A known mechanism for wave amplification in rigid structures is called  “energy 
localization” which can be a feature of nanoscale packing of hydrogen in a 
lattice. When stimulated with two waveforms at different frequencies, a 
paradigm shift can be engineered on the vibrational modes of bound particles 
(protons in a lattice). Nuclear reactions can happen in rare cases, but even 
without them thermal gain is possible at the nanoscale in blatant violation to 
the Laws or Thermodynamics. This is essentially proved but scaling up to useful 
levels is not proved. 

In the Schrödinger equation you can find the term for quantum kinetic energy as 
the second derivative of the wave function for place. The closer the particle 
is confined, the greater the curvature of its wave function and the greater is 
its quantum kinetic energy (the energy localization). It can be a power law 
increase, see:
https://en.wikipedia.org/wiki/Nonlinear_Schr%C3%B6dinger_equation

In simpler terms, Quantum kinetic energy is the kinetic energy with which bound 
protons move through the lattice - and this energy can be nonlinear wrt input. 
The Heisenberg uncertainty principle dictates that the closer the particle is 
confined, the smaller its freedom of movement Δx and thus - the more violent it 
wriggles back and forth, and the greater is his  Δp . Intersecting waveforms 
can provide the increased confinement and the resultant gain is the theory 
behind the “superwave”.



RE: GRANTED US patent which cites the Dardik superwave patent

https://encrypted.google.com/patents/US9540960

It is no coincidence that Energetics, Violante, McKubre,  Chauvin, Rossi, 
Brillouin, Kimmel group, etc, all employed similar interfering and 
self-amplifying RF waveforms as input power.

Even if Rossi’s recent effort was a null result, the Euro Patent from Dardik 
(El-Boher et al)  provides a known mechanism for wave power amplification 
-“energy localization” which is a feature of nanoscale packing of hydrogen in a 
lattice. Generally the COP is limited to a low range using this mechanism but 
it can be gainful without nuclear reactions. It is also difficult to scale up. 
See:

http://lenr-canr.org/acrobat/AhernBSenergyloca.pdf

 



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