Imagine this.  What if the magnetic component of the electromagnetic field was 
ignored.  We would  VanderGraphs, Winhurst motors, and fur rupped rods emitting 
jumping sparks.  We would not have employed the very strong magnetic force.  No 
generators, motors, electromagnets, or speakers would exist.  The electrified 
world of today would not be.  Electricity would only be a curiosity.


A coil with twice the turns has 4 times the magnetic effect.  Where does the 
extra magnetic field come from?  It comes from nowhere.  The magnetic field is 
not conserved.  It comes and goes as need to conserve momentum of the system 
when the original static field cannot.  This strength of the non-conserved 
magnetic field made modem life possible.  This is so well known  that it is not 
even mentioned.


The range of the electrical magnetic field can exceed that of the Coulombic.  
Superconductors entirely confine the Coulombic field yet a magnetic field 
extends beyond the bounds of the superconductor.




All of the force fields conserve momentum in the same with, with an induced 
magnetic field.  All of the magnetic components are not conserved.  It is 
theoretically possible to dramatically increase them.  All of them.   No one to 
date has known how to increase the magnetic component of the strong nuclear 
force.  This magnetic component is NOT electromagnetic.  Cold fusion has shown 
the way.  Vibrate a proton conductor at a dimensional frequency of one 
megahertz-meter.  The non-conserved spin orbit force increases dramatically.


Amazingly the process has gravitomagnetic effects too.  We are on the verge of 
harnessing all of the natural forces.
Why is it taking so long?

Frank Z


-----Original Message-----
From: Bob Cook <[email protected]>
To: vortex-l <[email protected]>
Sent: Tue, Mar 25, 2014 1:52 pm
Subject: Re: [Vo]:Electromagnetic Barrier



Frank--
 
You noted:
 
>>>The magnetic component of the strong nuclear force is called the spin orbit 
>>>force. It is never considered by the hot fusion people.<<<
 
Why is it ignored?
 
Bob
  
----- Original Message ----- 
  
From:   [email protected] 
  
To: [email protected] 
  
Sent: Tuesday, March 25, 2014 9:37   AM
  
Subject: Re: [Vo]:Electromagnetic   Barrier
  


Thats a common mistake.    We cannot reduce the Coulomb barrier.  The static 
force fields are   conserved and cannot be reduced in a two body problem.  The 
static force   field can, however, be bypassed by a force with longer range.
The magnetic   component of the strong nuclear force is called the spin orbit 
force. It is   never considered by the hot fusion people.  In the solid cold 
fusion   environment the magnetic component can be increased by a factor to 10 
to the   39 power.  Again I am not speaking of the electromagnetic field, I am  
 speaking of the magnetic component of the strong nuclear force.  In short   
"The constants of the motion tend toward the electromagnetic in a Bose   
condensate that is vibrated at a dimensional frequency of  1.094   
megahertz-meters."   


  
Frank  Z
  
  
    
The Coulomb repulsion can be reduced by magnetic attraction according     to my 
thoughts and that would also explain magnetic interactions and low     
temperature operation of LENR devices.  Should we drop the reference to     
Coulomb barrier and replace it with reference to an Electromagnetic     Barrier?
    

Dave




  
-----Original   Message-----
From: David Roberson <[email protected]>
To:   vortex-l <[email protected]>
Sent: Tue, Mar 25, 2014 11:39   am
Subject: [Vo]:Electromagnetic Barrier

  
  
We hear so much chatter about the Coulomb   barrier and how difficult it is to 
overcome for fusion events to occur.    Perhaps we should consider it as an 
electromagnetic barrier instead.    There is plenty of reason to suspect that a 
magnetic component of force is   active along with the electric component.
  

Some in this list believe that spin coupling has a large impact upon   the rate 
of LENR activity and there may well be other magnetic interactions   associated 
with nano particles and their large local magnetic fields.  I   tend to think 
that these couplings are a key concept that needs to be   understood in detail 
if an ultimate theory is to be developed.
  

The Coulomb repulsion can be reduced by magnetic attraction according   to my 
thoughts and that would also explain magnetic interactions and low   
temperature operation of LENR devices.  Should we drop the reference to   
Coulomb barrier and replace it with reference to an Electromagnetic   Barrier?
  

Dave




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