There is some sort of radiation coming out of Rossi's Mouse reactor that
stimulates the unpowered Cat reactors. Maybe pions and muons... how can we
tell now that MDMP has a reactor that maybe is functional at a Mouse level
COP of 1.2
On Mon, Feb 29, 2016 at 12:05 AM, Jones Beene
Bob,
Isn’t the reality check that eliminating a cosmic ray contribution means the
expected gamma counts are going to be too low to impress anyone? However, I am
very glad you are going to the trouble – if you also test for radiation (all
types) with and without the enclosure, and then
You can get a idea about that by considering how much power is required to
sinter a pile of 5 micron nickel particles that were welded together by a
rare earth doped tungsten rod and a sintered 100 micron nickel particle was
produced. Some of that rod vaporized and coated the surface of the 100
Bob, our solution to the cosmic spallation creating neutrons from lead was to
move the lead far away… no lead no neutrons… I shared that story only to tell
how easy it is to fuss about small signals… sometimes the signals are
‘relatively’ large for the instrument but meaninglessly tiny for you
Iron / steel has much higher resistance than copper (so-called resistance
wire for domestic heating elements is
usually steel).
Resistance heating due to eddy currents is the only source of heat in
induction; domain flips are fueled by ambient phonon exchanges (the
principle exploit in MCE
On Sun, Feb 28, 2016 at 10:44 PM, Axil Axil wrote:
>>
>>
>> In the Lugano test dosimeters were used to check for gamma/xray
>> emissions at more than 50 cm from the reactor. (see Appendix 1)
>> http://amsacta.unibo.it/4084/1/LuganoReportSubmit.pdf
>> I don't understand all the
>
>
>
> In the Lugano test dosimeters were used to check for gamma/xray
> emissions at more than 50 cm from the reactor. (see Appendix 1)
> http://amsacta.unibo.it/4084/1/LuganoReportSubmit.pdf
> I don't understand all the jargon but over the 32 day duration test it
> looks like the dosimeters
Do you have a reference on this? Otherwise, a lead cave would not be
useful - it is there to protect the sensor from the cosmic rays.
My understanding is that the cosmic rays produce the neutrons by
spallation. If the neutrons are absorbed in the lead, they will likely
cause isotopic shift
If the spectrum from the MFMP experiment really does come from the
reactor, and if MFMP reactor could run for 32 days
without lead shielding would one have to sit right next to it for the
entire time for it to be harmful?
Harry
On Sun, Feb 28, 2016 at 6:42 PM, Bob Higgins
From: Bob Higgins
* Jones, the moral of the story is that the large amount of lead (and it
probably took a whole lot for the HPGe detector) converted some of the cosmic
rays into a small neutron flux.
Bob, as the thesis clearly states – the neutrons then are absorbed by the lead,
Jones, the moral of the story is that the large amount of lead (and it
probably took a whole lot for the HPGe detector) converted some of the
cosmic rays into a small *neutron* flux. MFMP did not measure neutrons.
The Lugano evaluation only made intermittent spot checks for neutrons -
they found
Thank you for confirming this detail. For some reason, it seemed not to be
getting though.
Get rid of the lead and the signal will disappear.
-Original Message-
From: Russ George
Many years ago in the early days of cold fusion I was running an experiment at
Los Alamos. We had a high
-Original Message-
From: H LV
> If it is do due cosmic rays then it is quite a coincident that it happens
> just when the reactor enters phase 7.
No coincidence at all. Please notice that section 7 is NOT the zone of greatest
gain. Just the opposite - it is the zone of greatest
Many years ago in the early days of cold fusion I was running an experiment at
Los Alamos. We had a high quality Germanium gamma detector and a neutron
detector. The neutron detector was old but good though it printed it's data
counts onto a paper tape. It had been calibrated in another lab
On Sun, Feb 28, 2016 at 6:44 PM, Jones Beene wrote:
> -Original Message-
> From: H LV
>
>> In the Lugano test dosimeters were used to check for gamma/xray emissions at
>> more than 50 cm from the reactor... over the 32 day duration test it looks
>> like the
Well, this is partly true. Only charged particles will come to rest
quickly and generate Bremsstrahlung. Protons, because they are so heavy
compared to an electron, must be 1800x the energy of the electron to have
the same initial velocity. Then the heavier proton will basically
decelerate 1800
On Sun, Feb 28, 2016 at 7:58 PM, Russ George wrote:
> The photo of the detector placement has helped to understand this mystery
>
> As far as 'breaking radiation' aka Bremstrahlung, any form of energetic
> particle coming to a halt produces that characteristic signal,
The photo of the detector placement has helped to understand this mystery
As far as 'breaking radiation' aka Bremstrahlung, any form of energetic
particle coming to a halt produces that characteristic signal, whether they are
crazy heavy muons or speeding electrons...or ??? Neutron clusters or
On Sun, Feb 28, 2016 at 6:44 PM, Jones Beene wrote:
> -Original Message-
> From: H LV
>
>> In the Lugano test dosimeters were used to check for gamma/xray emissions at
>> more than 50 cm from the reactor... over the 32 day duration test it looks
>> like the
Here's a top view of the NaI Scintillator Head and the reactor/cell, with
rulers (courtesy of Alan):
http://tempid.altervista.org/GS5-2_test_setup2.jpg
The [Detector/Lead Cave] are on a separate, heavy duty cart which may be rolled
back if things get too hot or for repositioning.
- Mark
Hi Harry:
The radiation level detected in the MFMP Reactor is very low. The Geiger Counter on the setup apparently did not detect it. The
current calc/estimate shows the dosage was comparable (in some ways) to way less than a panoramic dental X-ray, anywhere over a
total dosage period of
A much better test might be to add a more efficient 'crazy muon' receptor
occluding perhaps half of the detector. Say a foil of silver or gadolinium.
With such material the count rate might go up. How many cm away was the NaI
from the source? Of course this presumes the signal can be
The number of nuclear events/radiations in the recent MFMP test is very very
tiny, perhaps representing 1 million events in total , ??. Considering DD
fusion as an example to make a single watt/joule of output requires e12 events
it is no wonder that this signal is hard to observe. The
-Original Message-
From: H LV
> In the Lugano test dosimeters were used to check for gamma/xray emissions at
> more than 50 cm from the reactor... over the 32 day duration test it looks
> like the dosimeters didn't record anything above background... If the MFMP
> reactor resembles
The sensors were placed relatively far away, and the total "dose" was low.
For the electronic rate meters, they did not report what they detected,
simply that it was below the alarm level that they had set (set where?).
There was no spectrometry.
On Sun, Feb 28, 2016 at 4:12 PM, H LV
In the Lugano test dosimeters were used to check for gamma/xray
emissions at more than 50 cm from the reactor. (see Appendix 1)
http://amsacta.unibo.it/4084/1/LuganoReportSubmit.pdf
I don't understand all the jargon but over the 32 day duration test it
looks like the dosimeters didn't record
Of course any strongly insulating material can be used in the application but
it is much easier to design in an air gap between the surfaces. Now, once the
device reaches a high temperature it is likely that water, which initially
resides within the gap(actually I expect a leaky 3D container
OR, the materials in the stack of his flat plate reactor include a thermal
resistance material. It doesn't have to be an air gap to provide the
thermal resistance that would allow the fuel to be at a different
temperature than the molten lead.
On Sun, Feb 28, 2016 at 1:09 PM, David Roberson
Bob made an interesting video but I believe that his thoughts about melted lead
surrounding the active cells are incorrect. It is much more likely that these
core cells are operating at a very high external temperature of over 1000 C and
radiation to a low temperature surface is the main
Magnetic materials have hysteresis in the B-H curve that causes work to be
done when the magnetic field changes.
On Sun, Feb 28, 2016 at 11:34 AM, H Ucar wrote:
> I observed dramatic heating of iron/steel rods of 2-4 mm diameter at 5 to
> 10 mm distance to spinning Nd magnet
I observed dramatic heating of iron/steel rods of 2-4 mm diameter at 5 to 10 mm
distance to spinning Nd magnet of medium size above 8000 RPM (poles nearly
ortogonal to spin axis) where strong attraction is present. Motor consumes
extra 2-3 watts on this load. Heat can rise to 80 degrees C in
That is for today. I wish you a pleasant Sundayand I hope your favorites
will win the Oscars!
In LENR there will be prizes only in the next decade..
Now only Andrea Rossi gets a de Sade Prize for tormenting curious people.
with uncertainty
On Fri, Feb 26, 2016 at 10:00 AM, Jones Beene wrote:
> -Original Message-
> From: H LV
>
> MFMP performed a great service by collecting and tabulating this data
> What story do you read when you compare the active and null data sets over
> time? My reading of
March 2016 marks 5 years since room-temperature superconductivity (RTSC) was
first achieved by a researcher named Joe Eck and he is pissed - but the 27
years for LENR is more intolerable.
This anniversary is bittersweet for RTSC as the scientific community
persistently refuses to accept, vet or
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