It certainly would be helpful if DGT supplied supporting evidence of the very 
large magnetic field.  I agree with Jed that it might be premature to jump to 
conclusions as to the reality of the field, but I also believe that it does 
little harm for theoretical concepts to be suggested that depend upon this 
field as supporting evidence.  At this point in time we do not know whether or 
not the field exists, and it might be some time before DGT verifies its 
existence.


Unless DGT is making an attempt to misdirect our thoughts, then they should be 
capable of determining the effects of RF interference within their 
instrumentation.  It existence is generally obvious in most cases since just 
waving your hand around the instrument face or body results in wildly different 
readings.  It is easy to spot these interference effects, but shielding them 
out effectively is not so easy.


If a large magnetic field is indeed present, then an important clue is 
uncovered.  Rossi suggested something similar on his blog, so that should be 
taken into consideration as well.  I tend to seek out positive feedback 
interactions when attempting to explain effects that seem to appear out of 
nowhere.  These positive feedback type systems have a characteristic behavior.  
On many occasions there is a threshold below which nothing is seen.  Once the 
threshold is breached the effect appears to rise out of the local noise 
exponentially with time.  The end result is much like what we see with LENR 
systems.  The various pieces of the puzzle are first assembled correctly and 
then the trigger is applied.  This appears to be direct thermal input in the 
case of Rossi and a plasma associated trigger for DGT.


If a large unexpected magnetic field happens to be one component of the 
positive feedback loop, then it will rise rapidly once initiated and interact 
with the other parts of the mechanism.  Perhaps a magnetic field allows 
additional LENR sites to generate energy, a portion of which adds to the local 
magnetic field energy.  This process can theoretically feed upon itself until 
some limiting action occurs within the material.  In this case, that might be 
the depletion of available LENR sites.  It is not difficult to imagine that 
reaction components continually collect in each tiny local region but the net 
positive feedback loop gain remains less than unity until the proper density is 
achieved for example.


There is one especially interesting physical effect that depends upon a 
magnetic field which might offer a clue.  Many materials that are magnetic 
exhibit magnetostriction when subject to a field.  This is a well known 
phenomenon and results in the mechanical distortion of the metal and large 
internal stresses.   There are claims that some LENR systems respond to 
mechanical drive due to shock and this might be an extension of that 
observation.


Even though I find it difficult to initially accept the large claimed magnetic 
field according to DGT, that is no reason to discard the idea at this point in 
time.  Perhaps DGT will add supporting evidence to their statement and we will 
know how seriously we should take their input.  To totally disregard the 
possibility of the field would be closing many doors.


Dave



-----Original Message-----
From: Jed Rothwell <[email protected]>
To: vortex-l <[email protected]>
Sent: Wed, Aug 14, 2013 11:03 am
Subject: Re: [Vo]:Abd's take on Defkalion's recent claims.


Edmund Storms <[email protected]> wrote:




Dfkalion also reports high RF interference with the phone systems and their 
SCADA function. 



Yes, which indicates that their claim for a 1.6 T magnetic field resulted from 
a misreading of the Gauss meter, perhaps because the meter was influenced by an 
RF field, not a magnetic field.



Yeah. Phone systems are usually robust. I have heard of them being disrupted by 
RF but not a magnetic field. Then again who knows what a 1.6 T magnetic field 
would do? (Assuming it is real.)



I think Ed's main point is that you should not assume there is no instrument 
artifact when the signs point to one:


1. The result is highly unexpected.
2. It appears to violate textbook physics.

3. There has to be strong RF noise, and that is known to cause instrument 
artifacts.



That is not proof the result is wrong, but it should give you pause. It is fine 
for Axil to be encouraged by this result because it may support the 
nanoplasmonics theory. This particular evidence is important to him. He should 
pay close attention to it. But he should be prepared to accept it is wrong, 
should additional evidence emerge.


Defkalion has not been good at supplying additional information or clarifying 
this sort of thing. They have left many loose ends loose.


- Jed





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