The design of the reactor is huge to compare with the amount of heat. For 
comparison, we had a SS cylindrical reactor (heated by inside) of 25cm length 
and 10cm diameter. It needs roughly 1kW to  keep it at 1000°C. @1000°C it needs 
more than 2W to increase the temperature of 1K. The question is if there is 
enough LENR reactions that the exponential overcome what the reactor can emit 
as radiation(T^4) and convection (becoming ‘negligible’ at first calculation 
for this kind of temperature in air).

 

Moreover there shall be an excitation inside the R20 (yet to be discovered) 
otherwise there will be no improvement with R19 and before. 

 

From: Jed Rothwell <[email protected]> 
Sent: Thursday, 27 June 2019 20:52
To: Vortex <[email protected]>
Subject: [Vo]:Exponential and self-heating reactions are not necessarily 
unstable

 

Two or three people have suggested to me that Mizuno's reaction must be 
unstable because it is exponential and self-heating. I do not think so.

I commented on this at LENR-forum. Let me copy a few paragraphs.



First, you can see this is anomalous heat. Look at the first 10 minutes of Fig. 
6, and the stray points in Fig. 8. Resistance heating does not act that way.

Now look at the increase in Fig. 6 from minute 10 to hour 1:40. It is sedate. 
When resistance heating is turned up, the reactor heats about as quickly as a 
toaster oven. It takes a while for that increase to reach the flow calorimetry, 
but it does not take an hour and 30 minutes. This gradual increase is from 
anomalous heat. The anomalous heat increases exponentially in response to 
temperature, but "exponential" does not mean rapid, or out of control, or 
unstable. It just means the heat goes to a proportionally higher level in 
response to higher temperatures.

The reaction must be self-heating to some extent. 50 W of resistance heating 
alone would never begin to reach these temperatures. In Fig. 6, around 1:40 the 
heat leaving the reactor balances the heat being produced in the reactor, so 
the reaction stops going to higher levels. It stabilizes. Again, self-heating 
does not mean going out of control. Burning wood must self heat or the reaction 
stops, but that does not mean a wood fire goes out of control, or that it never 
reaches a terminal temperature and a stable, terminal heat production level.

 

 

 

. . . Apart from this, I have a feeling the heater is boosting the reaction for 
some reason other than just higher temperatures, such as IR stimulation. I will 
let others with more knowledge of physics speculate about that.

 

Anyway, I do not think an exponential self-heating reaction necessarily means 
the reactor might go out of control.

 

Reply via email to