No worries. Stuff happens. I probably shouldn't have sent the follow-up,
made it seem like a bigger deal than it should be.
Jeff



On Fri, Nov 23, 2012 at 10:31 AM, James Bowery <[email protected]> wrote:

> BTW:  To put this bug in perspective, I've been using the calchemy
> "Unicalc" very frequently ever since 1996 without any errors cropping up
> until this, and this one appears to be related not to units but to a
> peculiar case in dimensional analysis.
>
>
> On Thu, Nov 22, 2012 at 10:05 PM, James Bowery <[email protected]> wrote:
>
>> My units calculator inserted an erroneous 2pi constant into the
>> conversion.
>>
>> That's the first time its betrayed me.   I'll report it to the authors.
>> Here's a link to the web version:
>>
>> http://www.testardi.com/rich/calchemy2/
>>
>> So, yes, 13mm looks like the figure.  Are there electrodes with any
>> dimensions in the range of  1.3cm?
>>
>>
>> On Thu, Nov 22, 2012 at 3:51 PM, Arnaud Kodeck 
>> <[email protected]>wrote:
>>
>>>  James,****
>>>
>>> ** **
>>>
>>> I’ve a problem with my HP calculator emulator which gives me 13.093 mm**
>>> **
>>>
>>> ** **
>>>
>>> d= v * t = v / f ( with v=1/f)****
>>>
>>> ** **
>>>
>>> 5630/430E3 = 13.093E-3 m => 13.093 mm****
>>>
>>> ** **
>>>
>>> Arnaud****
>>>   ------------------------------
>>>
>>> *From:* James Bowery [mailto:[email protected]]
>>> *Sent:* jeudi 22 novembre 2012 22:21
>>> *To:* [email protected]
>>> *Subject:* Re: [Vo]:25 experiments completed with borax and nickels****
>>>
>>> ** **
>>>
>>> It's hard to know where to begin here but let me just say this that
>>> given the speed of sound in 
>>> nickel<http://www.olympus-ims.com/en/ndt-tutorials/thickness-gage/appendices-velocities/>
>>> :****
>>>
>>>
>>> 5630m/s
>>>
>>> and 430kHz:
>>>
>>> 5630m/s;430kHz?mm
>>>
>>> ([5630 * meter] / second) * (430 * [kilo*hertz])^-1 ? milli*meter
>>> = 2.0838194 mm
>>>
>>> In other words, a 2mm electrode should exhibit resonance at ~430kHz.****
>>>
>>> On Thu, Nov 22, 2012 at 2:47 PM, Jones Beene <[email protected]>
>>> wrote:****
>>>
>>> On the contrary James, at least two of us did look closely at this
>>> possibility [electrode acoustics]. ****
>>>
>>>  ****
>>>
>>> My associate went to trouble to find and download a mpeg sound file of a
>>> bicycle bell of the same general size as Davey’s, and plugged it into a
>>> program for this kind of analysis – in fact it is dedicated bell analysis
>>> software that has proved very accurate for electrodes in the past. The
>>> natural acoustic of this hemisphere are nowhere close.****
>>>
>>>  ****
>>>
>>> The main freq is 4,445.5 Hz, with some sub harmonics, the lowest being
>>> around 521/545 Hz, but those are so faint as to be discarded. Higher
>>> harmonics are barely above noise.****
>>>
>>>  ****
>>>
>>> Thus, since the acoustics of the electrodes were off by two orders of
>>> magnitude over the signature sound, we did not think that electrode
>>> acoustics were in any way relevant as an alternative explanation, or
>>> otherwise worth pursuing.****
>>>
>>>  ****
>>>
>>> Jones****
>>>
>>>  ****
>>>
>>>  ****
>>>
>>> *From:* James Bowery ****
>>>
>>>  ****
>>>
>>> As I previously 
>>> advised<http://www.mail-archive.com/[email protected]/msg73144.html>
>>> :****
>>>
>>>  ****
>>>
>>> "Look at the acoustics of the electrodes."****
>>>
>>>  ****
>>>
>>> Since this advice seemed to make no impact on the discourse here at
>>> vortex-l, let me expand:****
>>>
>>>  ****
>>>
>>> Acoustic resonance in the metallic electrodes does have a reasonable
>>> chance of bearing directly on the creation of the "nuclear active
>>> environment" hypothesized to exist.  I don't think I need to expland on
>>> list the possibilities here.****
>>>
>>>  ****
>>>
>>> Moreover, if one looks at the speed of sound in metals, the "430kHz LENR
>>> signature" regime corresponds to the thickness of the cathodes frequently
>>> reported as exhibiting the phenomena.****
>>>
>>>  ****
>>>
>>> Need I say more?****
>>>
>>>  ****
>>>
>>> ** **
>>>
>>
>>
>

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