I read that section and found that this is not a problem.  The input is applied 
for 1/3 of the time while the average output is roughly equal to that value.  
The calculation shows that the COP is therefore approximately 3.  This is what 
they say in the report.

The maximum instantaneous peak power output should be greater than the peak 
input.   This is consistent.  Operation at low temperatures and therefore COP 
are limited.   I prefer to see them run her at full warp, but control issues 
make this difficult for long duration tests.

Dave


-----Original Message-----
From: Andrew <[email protected]>
To: vortex-l <[email protected]>
Sent: Sun, May 26, 2013 8:20 pm
Subject: Re: [Vo]: About the March test



p22.

Emitted Power
E-Cat HT2 = (741.3 + 17 + 58) [W] = (816.3± 2%) [W] = (816±16) [W] (24) 
Instantaneous Power Consumption
E-Cat HT2 
= (920 – 110) [W ]= 810 [W] (25) 

  
----- Original Message ----- 
  
From:   David   Roberson 
  
To: [email protected] 
  
Sent: Sunday, May 26, 2013 5:17 PM
  
Subject: Re: [Vo]: About the March   test
  


  
Where does this statement   appear?   I suspect that you are misreading.
  
 
  
Dave
  
  
  
-----Original   Message-----
From: Andrew <[email protected]>
To: vortex-l   <[email protected]>
Sent:   Sun, May 26, 2013 8:12 pm
Subject: Re: [Vo]: About the March test

  
  
  
I continue to be worried about the fact that the input and output power   are 
measured equal in the report in the pulse ON state. One would have thought   
that, if the device truly is generating its own energy, that this should not   
be the case.
  
 
  
Andrew
  
    
-----     Original Message ----- 
    
From:     Andrew 
    
To:     [email protected] 
    
Sent:     Sunday, May 26, 2013 4:23 PM
    
Subject:     Re: [Vo]: About the March test
    


    
Eric,
    
 
    
The idea here is that the extras (DC and/or RF) are undetectable to the     
meter using clamp ammeters (we know this for a fact), and when this     extra 
gets passed on to the control box, it's able to pass them on to the     device, 
perhaps with some customisation. The device, being chiefly ohmic,     will 
dissipate DC and will likely also dissipate RF. So no customisation by     the 
control box of the extras is in principle necessary - the power simply     gets 
passed along to the device, which consumes it and generates heat as a     
result.
    
 
    
Now, as I've described, the shenanigans chiefly occur during the pulse     OFF 
state, so there will have to be some customisation in the control box.     The 
idea here is to dissipate the extras during pulse ON and pass them along     
during pulse OFF. The mains doesn't know about the pulse schedule, so cannot    
 itself switch the extras in or out (actually, a Byzantine arrangement could    
 be made to work in this way, but I'm not going that far out).
    
 
    
Since no type of electronics control circuitry could survive colocated     with 
the device, the implication is that the control box has to dissipate     
significant power continuously. That raises a question about the control box    
 temperature. Since it's a sealed unit, and we're talking a couple hundred     
watts at least, it would have to get bloody hot. There's another data point     
we don't have. But you'd think they would have mentioned it.
    
 
    
I'm talking myself out of this, aren't I? :)
    
 
    
Andrew
    
 
    
 
    
      
-----       Original Message ----- 
      
From:       Eric       Walker 
      
To:       [email protected] 
      
Sent:       Sunday, May 26, 2013 4:00 PM
      
Subject:       Re: [Vo]: About the March test
      


      
On Sun, May 26, 2013 at 3:45 PM, Andrew <[email protected]> wrote:       

      
      
      
        
        
B) seems unlikely because it would require batteries, and Hartman         
states that it was much lighter than that. Battery technology does not         
exist that could be that light, and/or occupy so little volume, and         
make up that total energy difference as measured over 100+ hours.         
Therefore, it seems that the only workable theory of possible         deception 
is A).


      



      
I recall Hartman clarifying that measurements were       taken on the mains 
side (from Jed's post).  I am not too familiar       with circuitry.  I assume 
that either (1) the measurement equipment       (including the laptop) will 
need some kind of single-phase conversion in       order to work off of the 
same mains, or (2) they will have to be routed to       a separate source (in 
the case where the mains side has been tampered       with).  Assuming (1) for 
the moment, how easy or hard would it be to       filter out hidden DC or AC 
when constructing the single phase conversion       in order to protect the 
measurement equipment?  Would you need a       heavy transformer?
      


      
Eric
      







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