Regarding the fluidized bed reactor, I was primarily thinking of the
following advantages since we are dealing with solid, albeit small
particles:

The increase in fluidized bed reactor use in today’s industrial world is
largely due to the inherent advantages of the
technology.[7]<http://en.wikipedia.org/wiki/Fluidized_bed_reactor#cite_note-two-6>

   - *Uniform Particle Mixing:* Due to the intrinsic fluid-like behavior of
   the solid material, fluidized beds do not experience poor mixing as in
   packed beds. This complete mixing allows for a uniform product that can
   often be hard to achieve in other reactor designs. The elimination of
   radial and axial concentration
gradients<http://en.wikipedia.org/wiki/Gradients> also
   allows for better fluid-solid contact, which is essential for reaction
   efficiency and quality.
   - *Uniform Temperature Gradients:* Many chemical reactions require the
   addition or removal of heat. Local hot or cold spots within the reaction
   bed, often a problem in packed beds, are avoided in a fluidized situation
   such as an FBR. In other reactor types, these local temperature
   differences, especially hotspots, can result in product degradation. Thus
   FBRs are well suited to
exothermic<http://en.wikipedia.org/wiki/Exothermic>reactions.
   Researchers have also learned that the bed-to-surface heat
transfer<http://en.wikipedia.org/wiki/Heat_transfer> coefficients
   for FBRs are high.



I also had a wild thought that maybe they also kept a very small continuous
constant delta P of H2 across the kernal/reactants to keep the hydrogen and
particles moving/fluidized.  I remember reading that previous tests gave
off excess heat while loading and unloading the H2 into the lattice so why
not keep the hydrogen always loading/unloading thru a constant
recirculating flow.



On Tue, Jan 24, 2012 at 6:44 PM, Mark Iverson-ZeroPoint <
[email protected]> wrote:

> Can’t remember, but it was either me or Axil…  what’s important is that
> someone (you) were able to see a place in the puzzle where that piece fit
> in!****
>
> ** **
>
> The 64 trillion $ question is:****
>
>   Do we (Jones, Fran, Axil, some of you PhD newcomers) have enough of the
> pieces put together to ‘see’ what the picture is all about???****
>
> ** **
>
> -Mark****
>
> ** **
>
> *From:* Jones Beene [mailto:[email protected]]
> *Sent:* Tuesday, January 24, 2012 3:16 PM
>
> *To:* [email protected]
> *Subject:* RE: [Vo]:Rossi's Best Chance****
>
> ** **
>
> Mark - I thought you found the “entanglement” paper. Or … did you not make
> the possible inter-connection between ‘entanglement’ and ‘tunneling’?****
>
> ** **
>
> Anyway, thanks goes out to whoever brought up the issue of quantum
> entanglement. As now - it is sounding more and more relevant even if the
> application to tunneling probability is way off the beaten path. After all
> this is QM so prepare to be confused.****
>
> ** **
>
> This is a good time to suggest that anyone interested in how to avoid
> quiescence - take another look at the DGT pics. ****
>
> ** **
>
> I see three solenoid valve controls for hydrogen in/out and the control
> circuitry which indicates clearly to me that hydrogen is being periodically
> dumped and refilled by computer control. ****
>
> ** **
>
> I suspect that this cycle is on a timer or a timer plus other inputs in a
> simple Pic or Arduino micro-controller. The dumps are probably in the range
> of 6-8 hours between cycles (based on Rossi’s prior results of the
> applicable period of highest activity). The dump-and-refill overcomes the
> quiescence cycle, at least in the short term – at the expense of using
> perhaps 4-8 extra grams of H2 per day. ****
>
> ** **
>
> Otherwise – why have solenoid control, if the thing is designed for a 6
> month run? ****
>
> ** **
>
> I hate to imagine that Rossi could be too cheap to realize that the extra
> hydrogen dumped is not all that important. Or maybe he is just too proud to
> carefully study the Hyperion pictures (more likely).****
>
> ** **
>
> And besides, with the few grams/day of hydrogen dump, this is not a pure
> loss – it can be ported to a fuel cell, where the slight loss of mass form
> the prior Hyperion run will not be noticed, since the “depleted H2” can
> still be oxidized in a chemical reaction.****
>
> ** **
>
> Jones****
>
> ** **
>
> ** **
>
> *From:* Mark Iverson-ZeroPoint ****
>
> ** **
>
> Jones wrote:****
>
> “Stated simply, quiescence involves “too much depletion” in the mass of
> the hydrogen so that the high level of probability of tunneling is reduced.
> This is where anything that relates to QM probability come in, and you have
> already found papers suggestive of a few of these factors.”****
>
> ** **
>
> Re: the statement, “…and **you** have already found papers suggestive…”***
> *
>
> ** **
>
> I started LOL… that **I** found?  This post touches on the element of
> ‘meta-physics’ that SVJ has mentioned recently.****
>
> ** **
>
> One of the things that I enjoy doing it ‘serendipitous surfin’… which is
> hard to explain, but I just start with perhaps a link supplied here on
> vortex, or a link on PhysOrg.com, and start reading and following links and
> reading and following links, grabbing a phrase from some article and
> googling it, going thru the search results, and I will usually come across
> something that just says to me, “this is important”.  Don’t know why, since
> many of the papers I find and post here require esoteric/advanced physics
> understanding that I don’t have…  I can usually narrow it down to specific
> phrases, but bring in the meta-physical side, I think it’s the subconscious
> mind which has seen how that paper (piece of the puzzle) fits into the
> bigger picture, and somehow alerts my conscious mind that it’s important.
> The conscious mind is too distracted by the realities of living, work,
> paying the bills, etc., to make the ‘connections’; to see how a given paper
> or discovery is important.****
>
> ** **
>
> That’s where Vortex-l, ‘The Collective’, comes into play… it’s as if the
> Collective is a kind of global, artificial subconscious made up of people!
> Some people are bringing in pieces of the puzzle but not sure where they
> go, and some can see where those pieces ‘fit’ in.  Does that make sense???
> It is what makes this forum different from most, and is a concept that
> trolls don’t understand, nor respect.****
>
> ** **
>
> -Mark****
>
> ** **
>
> *From:* Jones Beene [mailto:[email protected] <[email protected]>]
> *Sent:* Tuesday, January 24, 2012 1:27 PM
> *To:* [email protected]
> *Subject:* RE: [Vo]:Rossi's Best Chance****
>
> ** **
>
> Mark,****
>
> ** **
>
> The first question that must be answered is: it the Ni-H phenomena Quantum
> Mechanical in nature, or is it Thermonuclear, on a reduced scale? ****
>
> ** **
>
> There are some that still believe Ni-H is thermonuclear and in fact, Pd-D
> could be. In fact W-L theory tries hard not to be forced into making that
> decision, and has QM features - but if the defining detail of that theory
> involves neutrons, neutron capture - and subsequent weak-force reactions,
> just as are seen in traditional physics – then it is a thermonuclear theory.
> ****
>
> ** **
>
> Theories that involve tunneling of protons in one form or another are QM
> based – if no neutron is involved. QM is normally too low in probability to
> account for much heat. But one aftermath of the development of the modern
> CPU by Intel and others is that QM tunneling (of electrons) can be engineer
> and optimized to occur at very high rates. A CPU operating a 2 GHz will
> have electrons tunneling in predictable fashion the high terahertz range.
> The CPU is a QM electron tunneling device operating at high probability.**
> **
>
> ** **
>
> The CPU is a good model to use for proton tunneling – where instead of a
> small chip needing to shed 30 watts of heat (and not gainful) you have much
> more heat, and importantly it is anomalous due to the tunneling. ****
>
> ** **
>
> If there is gain, then it must be defined.  Without going into great
> detail on defining the gain for now, except to say that it comes from the
> mass of the proton, and it comes without much radiation or transmutation
> (some of each, but way too little to account for the gain), then it is
> easier to account for the quiescence phenomenon. ****
>
> ** **
>
> Stated simply, quiescence involves “too much depletion” in the mass of the
> hydrogen so that the high level of probability of tunneling is reduced.
> This is where anything that relates to QM probability come in, and you have
> already found papers suggestive of a few of these factors.****
>
> ** **
>
> Rossi has designed a reactor where hydrogen is not circulated and it is
> likely that he could eliminate the problem with periodic dumping of H2 and
> reloading (every few hours) on a set schedule. There is evidence that DGT
> may be doing this already.****
>
> ** **
>
> Jones****
>
> ** **
>
> ** **
>
> *From:* Mark Iverson-ZeroPoint ****
>
> ** **
>
> If quiescence is a reality, and **if** it will require a scientific/QM
> understanding, the I don’t think any amount of ‘control engineering’ is
> going to be much help… one will need to find out the cause of the
> quiescence, which is a physics problem…****
>
> ** **
>
> If the quiescence is of a reasonable periodic nature (i.e., repeatable),
> or if it gives you adequate ‘warning’ that it has started, then one could
> have 2 or 3 reactor cores inside, only one of which is ‘running’.  When it
> begins to go into quiescence, one then starts up one of the ‘idle’ cores…
> while shutting down the quiescent one.  This is a brainless kind of
> solution, and wouldn’t work if the quiescent core needs to be unassembled
> in order to make it ‘ignite’ again.  If reactive capability can be
> reinstated by shocking it with a hi-V pulse or cycling H2 pressure, things
> like that, then it could be automated and done while in-situ.  These are
> engineering problems, not scientific ones…****
>
> ** **
>
> -m****
>

Reply via email to