Andrew I thought about the same thing about a way to send power via RF to
the device. The only issue with that is we are talking about a lot of power
and a power source would have to emit it in every direction. So much RF
power should interfere easily with the electronics and it should be
indirectly detectable. If there is a trick it is most likely in the
modulation of the input power.

Giovanni



On Tue, May 21, 2013 at 5:03 PM, Giovanni Santostasi
<[email protected]>wrote:

> Does even teach or do research in any public institution anymore?
> Giovanni
>
>
>
> On Tue, May 21, 2013 at 4:56 PM, Andrew <[email protected]> wrote:
>
>> **
>> I could have predicted that, Giovanni, which is why I, having raised the
>> issue here, chose not to do that. He is an egomaniac, and you attempted to
>> beard the lion in its own den. The man has little integrity, quite frankly.
>> However, he is IMHO a quite talented physicist.
>>
>> Andrew
>>
>> ----- Original Message -----
>> *From:* Giovanni Santostasi <[email protected]>
>> *To:* [email protected]
>> *Sent:* Tuesday, May 21, 2013 2:48 PM
>> *Subject:* Re: [Vo]:Levi Hot Cat paper is a gem
>>
>> Motl is deleting my comment, lol.
>> Funny
>> Giovanni
>>
>>
>>
>> On Tue, May 21, 2013 at 4:37 PM, Giovanni Santostasi <
>> [email protected]> wrote:
>>
>>> My argument against what Motl claims (what I wrote on his post):
>>>
>>>  I think Lumo you are wrong on this issue of epsilon. The camera doesn't
>>> know about temperatures but can measure power. If you use a higher epsilon
>>> (1 being the highest) than the real one you are actually underestimating
>>> the temperature (derived from Stephan-Boltzman). The camera gives
>>> temperature as a proxy for power. If you use the wrong epsilon in the
>>> setting of the camera, let's say 1 instead of 0.1 you are underestimating
>>> the temperature by a factor of 10, so 5000 K is reported as 500 K. Then
>>> when you use the reading of 500 K to calculate the power using
>>> Stephan-Boltzman again (after averaging over many areas) reintroducing the
>>> same value for epsilon=1 would overestimate power but because the
>>> temperature was underestimated by the same factor, everything is all right
>>> and the radiation power is estimated correctly. It is still a lower limit
>>> of total power given that some power would be in other forms (like
>>> convection).
>>>
>>>
>>> On Tue, May 21, 2013 at 4:19 PM, James Bowery <[email protected]>wrote:
>>>
>>>> The strongest technical argument for the veracity of this report is
>>>> that the power measured going into the device is 360W and that the way it
>>>> was measured was from the wall socket through an industry standard power
>>>> analyzer (PCE-830 Power and Harmonics Analyzer by PCE Instruments).
>>>> Detractors assert that as the test was conducted on the premises of the
>>>> company licensing the technology EFA srl, therefore Rossi could have
>>>> defrauded the investigators by hidden camera, or other spy device,
>>>> observing when to apply a hidden AC power source of such high frequency,
>>>> overlaid on the normal power, that it would have been undetectable by the
>>>> PCE-830. This assertion about the PCE-830's limitations has not been
>>>> validated as plausible by PCE Instruments or any other authority.
>>>>
>>>>
>>>> On Mon, May 20, 2013 at 9:09 PM, Jed Rothwell <[email protected]>wrote:
>>>>
>>>>> I just read this paper for the third time. This is a gem. These people
>>>>> think and write like engineers rather than scientists. That is a 
>>>>> complement
>>>>> coming from me. They dot every i and cross every t. I can't think of a
>>>>> single thing I wish they had checked but did not.
>>>>>
>>>>> In ever instance, their assumptions are conservative. Where there is
>>>>> any chance of mismeasuring something, they assume the lowest possible 
>>>>> value
>>>>> for output, and the highest value for input. They assume emissivity is 1
>>>>> even though it is obviously lower (and therefore output is higher). The 
>>>>> add
>>>>> in every possible source of input, whereas any factor that might increase
>>>>> output but which cannot be measured exactly is ignored. For example, they
>>>>> know that emissivity from the sides of the cylinder close to 90 degrees
>>>>> away from the camera is undermeasured (because it is at an angle), but
>>>>> rather than try to take that into account, they do the calculation as if
>>>>> all surfaces are at 0 degrees, flat in front of the camera. In the first
>>>>> set of tests they know that the support frame blocks the IR camera partly,
>>>>> casting a shadow and reducing output, but they do not try to take than 
>>>>> into
>>>>> account.
>>>>>
>>>>> Furthermore, this is a pure black box test, exactly what the skeptics
>>>>> and others have been crying out for. They make no assumptions about the
>>>>> nature of the reaction or the content of the cylinder. They make no
>>>>> adjustments for it; the heat is measured the same way you would measure an
>>>>> electrically heated cylinder or a cylinder with a gas flame inside it. It
>>>>> is hands-off in the literal sense, with only the thermocouples touching 
>>>>> the
>>>>> cell, and the rest at a distance, including the clamp on ammeter which
>>>>> placed below the power supply. You do not have to know anything about the
>>>>> reaction to be sure these measurements are right. There is nothing Rossi
>>>>> could possibly do to fool these instruments, which the authors brought 
>>>>> with
>>>>> them. They left a video camera on the instruments at all times to ensure
>>>>> there was no hanky-panky. They wrote:
>>>>>
>>>>> "The clamp ammeters were connected upstream from the control box to
>>>>> ensure the trustworthiness of the measurements performed, and to produce a
>>>>> nonfalsifiable document (the video recording) of the measurements
>>>>> themselves."
>>>>>
>>>>> They estimate the extent to which the heat exceeds the limits of
>>>>> chemistry by both the mass of the cell and the volume of the cell. In the
>>>>> first test, they use the entire weight of the inside cell as the starting
>>>>> point, rather than just the powder, as if stainless steel might be the
>>>>> reactant. In the second test they determine that the powder weighs ~0.3 g
>>>>> but they round that up to 1 g.
>>>>>
>>>>> They use Martin Fleischmann's favorite method of looking at the heat
>>>>> decay curves when the power cycles off. Plot 5 clearly shows that the heat
>>>>> does not decay according to Newton's law of cooling. There must be a heat
>>>>> producing reaction in addition to the electric heater.
>>>>>
>>>>> I like it!
>>>>>
>>>>> - Jed
>>>>>
>>>>>
>>>>
>>>
>>
>

Reply via email to