RE: [Vo]:Negative Luminescence and the HotCat

2014-10-23 Thread Jones Beene
From: H Veeder 

http://en.wikipedia.org/wiki/Negative_luminescence

 Negative luminescence is a physical phenomenon by which an electronic device 
 emits less thermal radiation when an electric current is passed through it 
 than it does in thermal equilibrium (current off)… When viewed by a thermal 
 camera, an operating negative luminescent device looks colder than its 
 environment.

​
This is a good find, Harry … wish it had come up earlier. It could salvage some 
of the Levi report, as obviously it would partly explain the color temperature 
variance. We need that thermocouple data.

I was unaware of the phenomenon. Below is more from the entry with comments 
interspersed - which makes negative luminescence sound like it is expected from 
the “exciton” segment of our prior explanation which would be a part of” triple 
coherency” in laser-like device (along with photos and phonons):

“Negative luminescence is most readily observed in semiconductors. Incoming 
infrared radiation is absorbed in the material by the creation of an 
electron–hole pair. An electric field is used to remove the electrons and holes 
from the region before they have a chance to recombine and re-emit thermal 
radiation. This effect occurs most efficiently in regions of low charge carrier 
density.”

[as to the caveat that alumina is not a semiconductor, but does have low charge 
carrier density - it can be noted that alumina is dielectric at moderate 
temperature but becomes more and more conductive at elevated temperature]

“Negative luminescence has also been observed in semiconductors in orthogonal 
electric and magnetic fields. In this case, the junction of a diode is not 
necessary and the effect can be observed in bulk material. A term that has been 
applied to this type of negative luminescence is galvanomagnetic luminescence.”

“Negative luminescence might appear to be a violation of Kirchhoff's law of 
thermal radiation. This is not true, as the law only applies in thermal 
equilibrium.”

“Another term that has been used to describe negative luminescent devices is 
Emissivity switch, as an electric current changes the effective emissivity.”

[negative luminescence would probably not effect 7 micron IR]

Given that Levi did know of this phenomenon – and that it could be helpful in 
the context of the experiment – all he needs to do is release the thermocouple 
data which may not support the highest gain, but probably is more accurate than 
the IR calculations (thermography). Better to salvage something than have 
everything perceived as wrong.



RE: [Vo]:Negative Luminescence and the HotCat

2014-10-23 Thread Jones Beene
Correction to the low IR spectra: 

“British workers later demonstrated LWIR band (8-12 µm) negative luminescence 
using mercury cadmium telluride diodes.”

… not sure what the difference would be at this temperature, but it could be 
substantial.

From: H Veeder 
http://en.wikipedia.org/wiki/Negative_luminescence

 Negative luminescence is a physical phenomenon by which an electronic device 
 emits less thermal radiation when an electric current is passed through it 
 than it does in thermal equilibrium (current off)… When viewed by a thermal 
 camera, an operating negative luminescent device looks colder than its 
 environment.
​
This is a good find, Harry … wish it had come up earlier. It could salvage some 
of the Levi report, as obviously it would partly explain the color temperature 
variance. We need that thermocouple data.
I was unaware of the phenomenon. Below is more from the entry with comments 
interspersed - which makes negative luminescence sound like it is expected from 
the “exciton” segment of our prior explanation which would be a part of” triple 
coherency” in laser-like device (along with photos and phonons):
“Negative luminescence is most readily observed in semiconductors. Incoming 
infrared radiation is absorbed in the material by the creation of an 
electron–hole pair. An electric field is used to remove the electrons and holes 
from the region before they have a chance to recombine and re-emit thermal 
radiation. This effect occurs most efficiently in regions of low charge carrier 
density.”
[as to the caveat that alumina is not a semiconductor, but does have low charge 
carrier density - it can be noted that alumina is dielectric at moderate 
temperature but becomes more and more conductive at elevated temperature]
“Negative luminescence has also been observed in semiconductors in orthogonal 
electric and magnetic fields. In this case, the junction of a diode is not 
necessary and the effect can be observed in bulk material. A term that has been 
applied to this type of negative luminescence is galvanomagnetic luminescence.”
“Negative luminescence might appear to be a violation of Kirchhoff's law of 
thermal radiation. This is not true, as the law only applies in thermal 
equilibrium.”
“Another term that has been used to describe negative luminescent devices is 
Emissivity switch, as an electric current changes the effective emissivity.”
[negative luminescence would probably not effect 7 micron IR]
Given that Levi did know of this phenomenon – and that it could be helpful in 
the context of the experiment – all he needs to do is release the thermocouple 
data which may not support the highest gain, but probably is more accurate than 
the IR calculations (thermography). Better to salvage something than have 
everything perceived as wrong.


Re: [Vo]:Negative Luminescence and the HotCat

2014-10-23 Thread Bob Cook
RE: [Vo]:Negative Luminescence and the HotCatJones and Harry--

These ideas seem quite possible to me, particularly the phenomena of 
galvanomagnetic (that's a nice term) luminescence.”

The thermocouple data is key to knowing the temperature and better calibration 
of the internal temperature based on the camera's  measured light spectrum.  
The time variation of this spectrum would be nice to know as well as the 
thermocouple data.   It might be linked to the input electrical signals, if 
they serve as an emissivity switch for the alumina and be pretty good proof of 
the negative luminescence.

The use of the magnetic and electric fields to change the absorption and 
emission of photons by the alumina may be the way the reaction is controlled.  

The assumption that there is any equilibrium in the reactor and, hence, black 
body radiation from it surface, is not correct IMO.

Bob Cook
  - Original Message - 
  From: Jones Beene 
  To: vortex-l@eskimo.com 
  Sent: Thursday, October 23, 2014 7:17 AM
  Subject: RE: [Vo]:Negative Luminescence and the HotCat


  From: H Veeder 


  http://en.wikipedia.org/wiki/Negative_luminescence

   Negative luminescence is a physical phenomenon by which an electronic 
device emits less thermal radiation when an electric current is passed through 
it than it does in thermal equilibrium (current off)… When viewed by a thermal 
camera, an operating negative luminescent device looks colder than its 
environment.


  ​

  This is a good find, Harry … wish it had come up earlier. It could salvage 
some of the Levi report, as obviously it would partly explain the color 
temperature variance. We need that thermocouple data.


  I was unaware of the phenomenon. Below is more from the entry with comments 
interspersed - which makes negative luminescence sound like it is expected from 
the “exciton” segment of our prior explanation which would be a part of” triple 
coherency” in laser-like device (along with photos and phonons):

  “Negative luminescence is most readily observed in semiconductors. Incoming 
infrared radiation is absorbed in the material by the creation of an 
electron–hole pair. An electric field is used to remove the electrons and holes 
from the region before they have a chance to recombine and re-emit thermal 
radiation. This effect occurs most efficiently in regions of low charge carrier 
density.”


  [as to the caveat that alumina is not a semiconductor, but does have low 
charge carrier density - it can be noted that alumina is dielectric at moderate 
temperature but becomes more and more conductive at elevated temperature]


  “Negative luminescence has also been observed in semiconductors in orthogonal 
electric and magnetic fields. In this case, the junction of a diode is not 
necessary and the effect can be observed in bulk material. A term that has been 
applied to this type of negative luminescence is galvanomagnetic luminescence.”


  “Negative luminescence might appear to be a violation of Kirchhoff's law of 
thermal radiation. This is not true, as the law only applies in thermal 
equilibrium.”

  “Another term that has been used to describe negative luminescent devices is 
Emissivity switch, as an electric current changes the effective emissivity.”


  [negative luminescence would probably not effect 7 micron IR]

  Given that Levi did know of this phenomenon – and that it could be helpful in 
the context of the experiment – all he needs to do is release the thermocouple 
data which may not support the highest gain, but probably is more accurate than 
the IR calculations (thermography). Better to salvage something than have 
everything perceived as wrong.



Re: [Vo]:Negative Luminescence and the HotCat

2014-10-23 Thread David Roberson
This effect sounds like a form of heat pump.  The energy is moved from one 
location to another.

Dave

 

 

 

-Original Message-
From: H Veeder hveeder...@gmail.com
To: vortex-l vortex-l@eskimo.com
Sent: Thu, Oct 23, 2014 2:33 am
Subject: [Vo]:Negative Luminescence and the HotCat



From the wikipedia page on ​Negative Luminescence



​((My thoughts are in double brackets​))



http://en.wikipedia.org/wiki/Negative_luminescence

Negative luminescence is a physical phenomenon by which an electronic device 
emits less thermal radiation when an electric current is passed through it than 
it does in​ ​thermal equilibrium (current off). When viewed by a thermal 
camera, an operating negative luminescent device looks colder than its 
environment.



​
((Rossi's Hotcat is also an electronic device, but instead of appearing cool to 
an infrared camera as described above, maybe it has the capacity to appear cool 
to the eye but hot to an infrared camera.))






​Negative luminescence is most readily observed in semiconductors. Incoming 
infrared radiation is absorbed in the material by the creation of an 
electron–hole pair. An electric field is used to remove the electrons and holes 
from the region before they have a chance to recombine and re-emit thermal 
radiation. This effect occurs most efficiently in regions of low charge carrier 
density.

Negative luminescence has also been observed in semiconductors in orthogonal 
electric and magnetic fields. In this case, the junction of a diode is not 
necessary and the effect can be observed in bulk material. A term that has been 
applied to this type of negative luminescence is galvanomagnetic luminescence.

Negative luminescence might appear to be a violation of Kirchhoff's law of 
thermal radiation. This is not true, as the law only applies in thermal 
equilibrium.

Another term that has been used to describe negative luminescent devices is 
Emissivity switch, as an electric current changes the effective emissivity.



Harry



Re: [Vo]:Negative Luminescence and the HotCat

2014-10-23 Thread David Roberson
I doubt that this effect has anything to do with the latest ECAT measurements.  
Unfortunately, it appears that measuring the spectral energy contained within 
the IR range may not be directly associated with the amount of heat energy 
being generated since a significant portion of the energy resides within the 
other bands.  A calorimeter will likely be the only way to prove to all the 
skeptics that the gain is greater than unity.

I remain convinced that the ECAT is generating plenty of extra energy due to 
the step input power measurement that was conducted.  A passive system would 
not be able to demonstrate such a large change in output with the much smaller 
input step.  In the previous test this same effect showed up as the waveform 
variation that was discussed at length by the testers.  The skeptics attempted 
to explain why the waveform was different than that expected from a resistive 
load as being due to phase shifting of the response signal.  That hand waving 
has now been proven wrong since the latest effect has nothing to do with time 
domain signal variations.  We see that the power output changes at a DC rate 
which is immune to phase shifting.

Virtually every concern of the skeptics of the earlier test have been shown in 
error now but they keep insisting that they are correct.  Remember the DC 
question regarding the input power?  That was pure BS, but it gave them a tiny 
island upon which to build.  The only issue left is the question about the 
accuracy of the temperature and the spectral shape of the radiation.  Once this 
question has been laid to rest, what will be their next issue?

The previous ECAT was constructed with a black paint coating the exterior of 
the device.  That one should have been a much better black body radiator and it 
also revealed extra heat production.  In my opinion there is more than adequate 
evidence that the COP is significantly greater than unity.  As Rossi has stated 
on many occasions, only the market can convince some folks of reality.

Dave

 

 

 

-Original Message-
From: Jones Beene jone...@pacbell.net
To: vortex-l vortex-l@eskimo.com
Sent: Thu, Oct 23, 2014 10:18 am
Subject: RE: [Vo]:Negative Luminescence and the HotCat



From: H Veeder 

http://en.wikipedia.org/wiki/Negative_luminescence

 Negative luminescence is a physical phenomenon by which an electronic device 
 emits less thermal radiation when an electric current is passed through it 
 than it does in thermal equilibrium (current off)… When viewed by a thermal 
 camera, an operating negative luminescent device looks colder than its 
 environment.

​
This is a good find, Harry … wish it had come up earlier. It could salvage some 
of the Levi report, as obviously it would partly explain the color temperature 
variance. We need that thermocouple data.

I was unaware of the phenomenon. Below is more from the entry with comments 
interspersed - which makes negative luminescence sound like it is expected from 
the “exciton” segment of our prior explanation which would be a part of” triple 
coherency” in laser-like device (along with photos and phonons):
“Negative luminescence is most readily observed in semiconductors. Incoming 
infrared radiation is absorbed in the material by the creation of an 
electron–hole pair. An electric field is used to remove the electrons and holes 
from the region before they have a chance to recombine and re-emit thermal 
radiation. This effect occurs most efficiently in regions of low charge carrier 
density.”

[as to the caveat that alumina is not a semiconductor, but does have low charge 
carrier density - it can be noted that alumina is dielectric at moderate 
temperature but becomes more and more conductive at elevated temperature]

“Negative luminescence has also been observed in semiconductors in orthogonal 
electric and magnetic fields. In this case, the junction of a diode is not 
necessary and the effect can be observed in bulk material. A term that has been 
applied to this type of negative luminescence is galvanomagnetic luminescence.”

“Negative luminescence might appear to be a violation of Kirchhoff's law of 
thermal radiation. This is not true, as the law only applies in thermal 
equilibrium.”
“Another term that has been used to describe negative luminescent devices is 
Emissivity switch, as an electric current changes the effective emissivity.”

[negative luminescence would probably not effect 7 micron IR]
Given that Levi did know of this phenomenon – and that it could be helpful in 
the context of the experiment – all he needs to do is release the thermocouple 
data which may not support the highest gain, but probably is more accurate than 
the IR calculations (thermography). Better to salvage something than have 
everything perceived as wrong.




Re: [Vo]:Negative Luminescence and the HotCat

2014-10-23 Thread H Veeder
I have heard that the external wires glow because heat from inside the
reactor​ travels down the wire by simple conduction
But perhaps energy is actively pumped into the external wires through a
process involving negative luminescence.

Harry


On Thu, Oct 23, 2014 at 11:42 AM, David Roberson dlrober...@aol.com wrote:

 This effect sounds like a form of heat pump.  The energy is moved from
 one location to another.

 Dave



  -Original Message-
 From: H Veeder hveeder...@gmail.com
 To: vortex-l vortex-l@eskimo.com
 Sent: Thu, Oct 23, 2014 2:33 am
 Subject: [Vo]:Negative Luminescence and the HotCat

   From the wikipedia page on ​Negative Luminescence

 *​((My thoughts are in double brackets​))*

  http://en.wikipedia.org/wiki/Negative_luminescence

 Negative luminescence is a physical phenomenon by which an electronic
 device emits less thermal radiation when an electric current is passed
 through it than it does in
 ​ ​
 thermal equilibrium (current off). When viewed by a thermal camera, an
 operating negative luminescent device looks colder than its environment.


 *​ ((Rossi's Hotcat is also an electronic device, but instead of appearing
 cool to an infrared camera as described above, maybe it has the capacity to
 appear cool to the eye but hot to an infrared camera.))*


  ​Negative luminescence is most readily observed in semiconductors.
 Incoming infrared radiation is absorbed in the material by the creation of
 an electron–hole pair. An electric field is used to remove the electrons
 and holes from the region before they have a chance to recombine and
 re-emit thermal radiation. This effect occurs most efficiently in regions
 of low charge carrier density.

 Negative luminescence has also been observed in semiconductors in
 orthogonal electric and magnetic fields. In this case, the junction of a
 diode is not necessary and the effect can be observed in bulk material. A
 term that has been applied to this type of negative luminescence is
 galvanomagnetic luminescence.

 Negative luminescence might appear to be a violation of Kirchhoff's law of
 thermal radiation. This is not true, as the law only applies in thermal
 equilibrium.

 Another term that has been used to describe negative luminescent devices
 is Emissivity switch, as an electric current changes the effective
 emissivity.

  Harry



Re: [Vo]:Negative Luminescence and the HotCat

2014-10-23 Thread H Veeder
On Thu, Oct 23, 2014 at 10:42 AM, Bob Cook frobertc...@hotmail.com wrote:


 The assumption that there is any equilibrium in the reactor and, hence,
 black body radiation from it surface, is not correct IMO.





Would that be equivalent to saying the surface cannot have a steady
temperature?​

Harry


Re: [Vo]:Negative Luminescence and the HotCat

2014-10-23 Thread H Veeder
On Thu, Oct 23, 2014 at 12:05 PM, David Roberson dlrober...@aol.com wrote:



 As Rossi has stated on many occasions, only the market can convince some
 folks of reality.


Rossi could have chosen the academic route but he hasn't.
He has *decided* the market will decide and for better or worse that is how
it will be settled.

Harry

​​


Re: [Vo]:Negative Luminescence and the HotCat

2014-10-23 Thread H Veeder
On Thu, Oct 23, 2014 at 10:30 AM, Jones Beene jone...@pacbell.net wrote:


 Given that Levi did know of this phenomenon – and that it could be helpful in
 the context of the experiment – all he needs to do is release the
 thermocouple data which may not support the highest gain, but probably is
 more accurate than the IR calculations (thermography). Better to salvage
 something than have everything perceived as wrong.

Since Rossi wants the marketplace to rule on the reality of the Ecat, he
and IH must have sought this test for patent reasons. At the moment it
doesn't look like the report would support his IP claims.

Harry