I recall an old phrase attributed to Sherlock Holmes along the lines of “Once 
all of the probable answers have been proven wrong, then it must be the 
improbable”.  Someone among the vortex will correct my phrase and that is a 
good thing.  My wording is incorrect, but that is not the important issue.
I have come up with a hypothesis as to what might be occurring within the ECAT 
core region design.  Our resident experts in nuclear radiation have convinced 
me that there is a limit placed upon the energy of any gammas which are 
generated within the process due to shielding restraints.  So I will take their 
advice and assume that they have an excellent point.  Since we know that the 
ECAT really does generate excess energy, then this follows from that assumption.
First, gammas are not directly generated by the energy mechanism within the 
core.  Instead, beta particles are the product along with some inadvertent 
heat.  Mr. Rossi has suggested this process earlier in his paper describing the 
initial work he shared with Dr. Focardi, 
http://www.journal-of-nuclear-physics.com/files/Rossi-Focardi_paper.pdf.  Now, 
these beta particles have a great deal of energy and can penetrate into the 
shield material where they deposit most of that energy as heat due to 
collisions with the shield.   After they have slowed down somewhat, they are 
annihilated by combining with electrons within the shield.  This process is the 
one that generates the gamma radiation.  My understanding is that two gammas 
are the result of this action, each with an energy of 511 KeV.  It so happens 
that Wikipedia’s article on shielding claims that 2.2 cm of lead is required to 
attenuate these to a safe level.  That would make a lot of sense since Mr. 
Rossi originally uses 2 cm but later has decided to use 5 cm for his shield.  
The resulting gammas are converted to heat within the shield.
This suggested process relieves us from the original concern about the 
dangerous levels of gamma radiation.  Here we allow a low penetration particle 
to carry the dangerous high levels of heat and yet we still have a moderate 
flux of gammas to shield, explaining the need for the awkward lead anchor.
I am not very familiar with beta decay so I request that someone within the 
vortex assist me in figuring out the required beta flux and then whether or not 
this solution will safely absorb the gamma rays released.
Consider the following concept and comment as you will.  I am not a nuclear 
physicist and am immune to being told that I am entirely out line with my 
unusual ideas.  I do not have tenure and will not lose my position because I do 
not tow the proper path of well known processes.  Does anyone know of what I 
will call a “Beta Battery”?  This is a new idea to me although it seems simple 
and I would assume that it is already well understood within the world of 
physics.  Here is how I presume it would function.
First, you need a source of high energy beta particles which the ECAT seems to 
produce in large numbers.  I would suggest one is emitted per nuclear reaction. 
 Next, an electrical insulator is placed around the reaction chamber.  This 
material needs to have a very large breakdown voltage yet passes the betas 
freely.  The betas penetrate through the insulator and then slam into the 
shield material.  After they slow down due to collisions within the shield, 
they become annihilated by a nearby electron.  We find that a negative charge 
is left behind within the core region and an equal positive charge is stored 
within the shield.
This charge distribution will continue to build up until the electric field is 
allowed to do one of the following.  It can either become large enough to break 
down the insulator or we can supply a conductive path through our desired load 
and allow the charges to equalize.  Herein lays the beauty of the process.  I 
would assume that the effective open circuit voltage source would be 
approximately at the breakdown voltage of the insulator.   The short circuit 
current available is defined by the number of nuclear reactions per second at 
one electron charge per reaction.  I am planning to calculate this value as 
soon as I get the opportunity but was hoping that one of our group will save me 
the difficulty.  We may have the conversion process that converts a portion of 
the ECAT output directly into DC power.  It is time to determine exactly how 
much DC power is available for us to use.
An additional concept arises as I explore the implications of the Beta Battery 
concept.  Might this mechanism have another function associated with the 
operation of the ECAT core itself?  I am confident that a significant DC 
current is generated by the beta decay-metal absorption process which I will 
quantify as time allows.  This large current must return to the nickel-hydrogen 
mix even if there is no insulator available.  It should appear as an electron 
current leaving the active beta generation regions and finally meeting the 
equal positive charge originating within the conductive metal shield.  Take a 
moment to give this serious consideration.  Two interesting possibilities 
immediately come to mind.  First, an electric field is generated within the 
active material that may enhance the reaction.  Earlier research has shown that 
externally applied fields seem to modify cell behavior.  Could this be the 
effect showing up in the ECAT?  Second, the potentially large DC current 
passing through the active zones seems to be reminiscent of the DC current 
required to activate the electrolysis cells of the original design.  Could this 
be just a coincidence?
I am hoping that the vortex will supply some of the incredible knowledge that I 
need to explain these proposed mechanisms in details.  There is a lot to 
analyze and together we might be able to solve some of the interesting 
questions that the ECAT reveals for us.
Dave

Reply via email to