On Sun, Apr 24, 2011 at 05:25, Axil Axil 
<[email protected]<mailto:[email protected]>> wrote:

“With temperature above the set the reactor is automatically stopped”

Axil,
                We see the Mill’s powder in the Rowan confirmations totally 
run-away but yet we get mixed messages about the Rossi reactor which IMHO may 
reflect the bond state of the gas population. It seems counter-intuitive but 
instead of just throttling back this Rossi type of reaction we MUST remove 
heat, not only to store the energy gain but it seems we have to cool the 
disassociated atoms enough that nature takes over and they reform molecules 
allowing us to repeat the cycle over and over again. I am not saying the 
reaction stops without cooling but only that it slows itself down proportional 
to the population that is in molecular form. The random motion of gas relative  
to Casimir geometry changes the energy density being experienced by the gas 
molecules. Atoms are simply reoriented by this change in energy density  but 
those atoms sharing covalent bonds (molecules)  are held by the covalent bond 
in the same orientation they possessed when the molecule formed. This 
"pressure" the covalent bond feels when energy density changes discounts the 
energy needed to disassociate the molecule such that it can occur at a much 
lower temperature - when these atoms later re-form a new molecule they release 
the full energy associated with hydrogen atoms dropping to the lower molecular 
energy state including even the energy contributed in the previous cycle from 
the combination of gas motion and change in energy density. We are getting a 
full refund for a purchase discounted by the constant motion of gas.
Fran

From: [email protected] [mailto:[email protected]] On Behalf Of .:.gotjosh
Sent: Monday, April 25, 2011 6:58 AM
To: [email protected]
Subject: EXTERNAL: Re: [Vo]:If Rossi could speak freely, what would he say.

Thanks for this post Axil, i have some comments and questions below...
On Sun, Apr 24, 2011 at 05:25, Axil Axil 
<[email protected]<mailto:[email protected]>> wrote:

“With temperature above the set the reactor is automatically stopped”

It the temperature continues to rise above another set point, the control box 
releases the hydrogen gas into the water loop piping though the controlled 
opening of an electrically controlled valve. This action vents excess heat to 
the outside environment and serves to depress the reaction.

in my design i will prefer bimetal valves for solid state non-electronic 
control if possible.
eg: http://www.emsclad.com/examples/thermal-controls.html

“How much would the temperature of the metal rise?”

The nickel oxide powder will have a substantial amount of hydrogen stored in 
the lattice interstices at the surface of the nickel oxide powder where the 
oxygen has been depleted by the erosive action of hydrogen impingement at the 
surface or into the surface to some depth of the powder.
What do you say the previous question(s) about H2O production between H2 and 
the O from NiO ?

When the heat sink of the water coolant is removed, this nuclear reaction in 
the lattice interstices will continue until the temperature of at the surface 
of the powder reaches the melting point of nickel. The lattice interstices will 
begin to close as nickel migrate to these lattice interstices sites displacing 
the absorbed hydrogen gas.

“Will the nuclear reaction stop due to high temperatures or will it be 
enhanced?”

With some number of these heat producing sites disabled, the temperature at the 
surface of the reaction vessel will stabilize and slowly begin to fall.
So you think it is totally self regulating in a melt down situation? and the 
electronically controlled valves are only to prevent the meltdown?

This leaves open the possibility for the use of thorium in the internal heater. 
Thorium has been used in vacuum tubes for many years with no radiation danger.

How confident are you about the tungsten vs nichrome question for element 
material? is SiC another reasonable possibility? Or is it too dangerous to have 
any C around?

Can you further explain the potential benefit of Thorium?


Finally, I have a question about the radiation shielding layers... if the 
reactor is operating between 400 and 600C optimally, how can the lead shielding 
remain solid? or if the borated water solution is used, won't that vaporize?

thanks to you all for your insightful contributions and engagement.


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