Re: [Vo]:stimulation frequency
Robin van Spaandonk
Tue, 22 Jan  2008 20:41:52 -0800

In reply to  [EMAIL PROTECTED]'s message of Tue, 22 Jan 2008 18:57:45 EST:

Hi,

[snip]

>A condensate that is strongly stimulated in the RF spectrum should generate  

>radio waves.



Why?

Regards,



Robin van Spaandonk




 
 
 
I first got the idea about the mega-hertz meter relationship when I was  
visiting the Marshall Spaceflight Center and speaking with David Noever.   He 
described his “downshifting of the frequencies theory.”  
This theory  was in relation to the Podkletnov replication experiments that 
they were  conducting.
I began to understand that the gravitational experiments and the  cold fusion 
experiments were different aspects of one new phenomena.  This  phenomena had 
do with a macro state of matter;  the Bose condensate.   The electron has a 
classical radius 3 x exp -15 meters.  It also has a  Comptom frequency.  The 
product of these two phenomena is 1.094  megahertz-meters.  In a Bose 
condensate 
the electron smears out to the  length of the condensate.  I assumed that the 
relationship between  frequency and wavelength was linear.
 
Velocity = frequency x wavelength
 
The next assumption was that the velocity was constant.  This velocity  was 
determined from the classical dimension and the Compton frequency of the  
electron.
 
I noted that this frequency and dimension also appeared in cold fusion  
experiments.
I noted that this frequency and dimension also appeared in the  Podletknov 
experiments.
 
I did some calculations and discovered that the relationship also applies  at 
atomic and nuclear dimensions. I computed the energy levels of the atom and  
the Compton wavelength of the nucleus from this constant.
 
What did this constant  describe?   Then in the bathtub it  hit me.  It 
describes the velocity of the quantum transition.  I went  on to discover that 
the 
amplitude squared of vibration at this frequency  determines the probability 
of quantum transition.  I also discovered that  the amplitude of this vibration 
is determines the energy of  photon.   This was another big step.  The energy 
of a classical waves is a function  of its amplitude.  The energy of  quantum 
wave is a function of its  frequency.  I discovered that the energy of the 
photon is a  function of the amplitude of the transitional quantum state.  
Chapters 10  11 and 12.
 
_http://www.angelfire.com/scifi2/zpt/cgi-bin/ZeroPointTechnologies.pl?Vortexr_
 
(http://www.angelfire.com/scifi2/zpt/cgi-bin/ZeroPointTechnologies.pl?Vortexr) 
 
So what does 1.094 megahertz meters describe.  It is the ground state  
vibration frequency of  a Bose condensate.  Stimulation at this  frequency 
reinforces the condensate.  If the bounds of the condensate are  measured in 
nano 
meters the stimulation frequency is thermal.  If the  bounds of the condensate 
are 
measured in meters the stimulation frequency is  radio.  If the bounds of the 
condensate are atomic the stimulation  frequency is visual.  If the bounds of 
the condensate equal the range of  the weak nuclear force the stimulation 
frequency is the Compton frequency of the  nucleons.
 
What happens during the quantum transition?   Electrical  energy  strongly 
flows.  Gravitational energy strongly flows.   Nuclear energy strongly flows.  
All of these flows are strong.  I  concluded,  “The constants of the motion 
tend toward the electromagnetic in  a Bose condensate the is stimulated at a 
dimensional frequency of  1.094  megahertz-meters.”   This theorem show how to 
classically control all  of the natural forces.  Cold fusion is only one small 
aspect of what can be  developed from it.
 
I hope this helps.  it’s the best description that I can  present.
 
Frank Znidarsic




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