Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
In reply to Eric Walker's message of Tue, 13 Oct 2015 17:27:54 -0500: Hi, [snip] >In this case, it seems like the release of energy of the alpha emitter is >efficiently transmitted into mechanical energy by way of the expanding >ionized gas. Any increase in temperature as the gas recondenses will be >smaller than the initial energy released by the alpha emitter when the >decay was induced, as some of it will go to heating the motor. It is here >that Robin's question becomes interesting (assuming I've understood it). >If we work backwards from the work needed to move the piston through a >cycle, we can ask, how much induced alpha activity is needed in order to >provide the work for a full cycle, and how much alpha emitter would that >imply? Is the scenario even realistic? > >Eric Suppose that the spark current speeded up the alpha decay. For the duration of the spark there would be intense alpha emission producing significant ionization of the compressed gasses in the cylinder. As soon as the spark stopped, so would the alpha decay (almost). At that point the plasma is rapidly recombining, and no new ions are being created. The plasma that was already expanding due to the increase in number of particles, now continues to expand despite the recombination, due to the thermal energy release of the recombination. This is the "work" stroke of the engine. After the work stroke is complete the gas is conveyed into an adjacent chamber where it is recompressed. If the engine is cooled, then the recompression won't be completely adiabatic because some of the heat will be removed by the cooling system during compression. This helps achieve a high compression, without expending too much energy, because the temperature doesn't run up so much. BTW, as you might have guessed, I have a different view on the energy source. ;) Regards, Robin van Spaandonk http://rvanspaa.freehostia.com/project.html
Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
In reply to Eric Walker's message of Tue, 13 Oct 2015 20:47:08 -0500: Hi, [snip] >On Tue, Oct 13, 2015 at 8:42 PM,wrote: > >..so Feynman pulled the plug on a non-existent engine, that then can't >> possibly >> have exploded (because it didn't exist), and hence there was no ensuing >> court >> case? ;) >> > >I think the question that history will be the judge of is whether it was a >/noble gas/ engine. > >Eric I think the answer to that is obvious. There would have been no point in even introducing the concept of noble gasses if it were an ordinary engine. There have been lots of people who invented new gas engines. None went out of their way to claim they were anything other than what they were, that I am aware of. Note also that noble gasses have a distinct advantage if the energy source is other than the gas itself. They are chemically inert. Regards, Robin van Spaandonk http://rvanspaa.freehostia.com/project.html
Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
http://www.google.com/patents/US3977191 The AIROPS engine is a noble gas engine like the Papp engine. This uses UV to produce plasma expansion just like Holmlid does. The heart of the Papp engine was the production of excess electrons that was used to drive the spark that moved the other piston. Controlling that current(called feedback) was how the Papp engine was regulated. When R. Feynman took the controls away from Papp in that demo, he forced that current to grow out of control. On Tue, Oct 13, 2015 at 10:12 PM,wrote: > In reply to Eric Walker's message of Tue, 13 Oct 2015 20:47:08 -0500: > Hi, > [snip] > >On Tue, Oct 13, 2015 at 8:42 PM, wrote: > > > >..so Feynman pulled the plug on a non-existent engine, that then can't > >> possibly > >> have exploded (because it didn't exist), and hence there was no ensuing > >> court > >> case? ;) > >> > > > >I think the question that history will be the judge of is whether it was a > >/noble gas/ engine. > > > >Eric > > I think the answer to that is obvious. There would have been no point in > even > introducing the concept of noble gasses if it were an ordinary engine. > > There have been lots of people who invented new gas engines. None went out > of > their way to claim they were anything other than what they were, that I am > aware > of. > > Note also that noble gasses have a distinct advantage if the energy source > is > other than the gas itself. They are chemically inert. > Regards, > > Robin van Spaandonk > > http://rvanspaa.freehostia.com/project.html > >
RE: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
-Original Message- From: mix...@bigpond.com > You seem to be conflating Holmlid with CQM, Robin. Actually I was conflating it with IRH. Regardless, if one wants to get energy from somewhere, then an explanation of the source of that energy needs to be found. If 50 eV UV is released from the "ash", then 50 eV must have gone into it's creation. Robin, There are any number of way this can happen, including a dynamical Casimir effect (after all, we are dealing with geometries which are clearly within the Casimir range) ... but the most provocative possibility comes from a "hybrid" viewpoint. Mills suggests that about 54.4 eV can be derived from the loss of angular momentum of electron at the second level of redundancy. Perhaps Holmlid has shown us (by improving on Mills theory) that when this level is reached, the UV energy becomes internalized much of the time, no radiation occurs, and the species shrinks all the way to "ultradense" with no further emission of any kind. ... which kinda negates the prior conclusion that "both cannot be correct." Maybe Holmlid and Mills are both partly correct in a way which goes a long way towards explaining everything in LENR.
Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
I wrote: If he knew our trick, one of these naturally occurring isotopes might > have done the trick: > Since tungsten is in the list, and in our day to day experience it does not decay under alpha decay when we excited it with electrons, I'm guessing the Q value has to be above a certain threshold in order for the effect to be obvious (if such an effect exists). Here is a shorter version of the previous list, with tungsten left at the end as an impractical lower bound: e- + 234U => e- + 4He + 230Th + 4858 keV e- + 235U => e- + 4He + 231Th + 4678 keV e- + 238U => e- + 4He + 234Th + 4270 keV e- + 232Th => e- + 4He + 228Ra + 4082 keV e- + 190Pt => e- + 4He + 186Os + 3252 keV e- + 209Bi => e- + 4He + 205Tl + 3137 keV e- + 184Os => e- + 4He + 180W + 2957 keV e- + 186Os => e- + 4He + 182W + 2820 keV e- + 187Os => e- + 4He + 183W + 2721 keV e- + 180W => e- + 4He + 176Hf + 2515 keV Of these, only 190Pt was in the earlier list of impurities found in palladium. Eric
RE: EXTERNAL: Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
Guys, Did the Papp engine need to be cranked like an ICE? If so I am thinking mechanical energy is the bootstrap source of energy. The noble gases forming menisci around other, plasma forming gases, that collapse rapidly as the engine is cranked like bubbles in sonoluminesce. The alpha emitter might synchronize local energy release of plasma bubbles nearing their threshold. Fran -Original Message- From: mix...@bigpond.com [mailto:mix...@bigpond.com] Sent: Monday, October 12, 2015 11:30 PM To: vortex-l@eskimo.com Subject: EXTERNAL: Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes In reply to Eric Walker's message of Mon, 12 Oct 2015 21:17:34 -0500: Hi, [snip] >On Mon, Oct 12, 2015 at 9:03 PM,wrote: > >> The real question is where did the energy come from to create the plasma? > >In the scenario we're considering here, the energy came from the >induced decay of an alpha emitter that was introduced into the Papp >engine. > >Eric I doubt there was enough of it (but I'm just guessing). Regards, Robin van Spaandonk http://rvanspaa.freehostia.com/project.html
Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
It seems like a reciprocating Papp engine would need to have a cyclic pressurization, not something the continually increases pressure as you are describing. I thought the reported mechanism had a way to catalyze pressure increase electrically and then the pressure returned to the prior lower pressure state. From this cyclic pressure, mechanical energy was extracted. On Tue, Oct 13, 2015 at 12:31 AM, Eric Walkerwrote: > I wrote: > > If he knew our trick, one of these naturally occurring isotopes might >> have done the trick: >> > > Since tungsten is in the list, and in our day to day experience it does > not decay under alpha decay when we excited it with electrons, I'm guessing > the Q value has to be above a certain threshold in order for the effect to > be obvious (if such an effect exists). Here is a shorter version of the > previous list, with tungsten left at the end as an impractical lower bound: > > e- + 234U => e- + 4He + 230Th + 4858 keV > e- + 235U => e- + 4He + 231Th + 4678 keV > e- + 238U => e- + 4He + 234Th + 4270 keV > e- + 232Th => e- + 4He + 228Ra + 4082 keV > e- + 190Pt => e- + 4He + 186Os + 3252 keV > e- + 209Bi => e- + 4He + 205Tl + 3137 keV > e- + 184Os => e- + 4He + 180W + 2957 keV > e- + 186Os => e- + 4He + 182W + 2820 keV > e- + 187Os => e- + 4He + 183W + 2721 keV > e- + 180W => e- + 4He + 176Hf + 2515 keV > > Of these, only 190Pt was in the earlier list of impurities found in > palladium. > > Eric > >
RE: EXTERNAL: Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
I think the energy source is zero point , the down stoke compressing the noble gases into layers of flat menisci surrounding other exotic gases that react to the collapsing menisci like moving Casimir plates. Effectively changing their inertial frame via vacuum engineering. … IMHO :_) Fran From: Bob Higgins [mailto:rj.bob.higg...@gmail.com] Sent: Tuesday, October 13, 2015 10:14 AM To: vortex-l@eskimo.com Subject: EXTERNAL: Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes It seems like a reciprocating Papp engine would need to have a cyclic pressurization, not something the continually increases pressure as you are describing. I thought the reported mechanism had a way to catalyze pressure increase electrically and then the pressure returned to the prior lower pressure state. From this cyclic pressure, mechanical energy was extracted. On Tue, Oct 13, 2015 at 12:31 AM, Eric Walker> wrote: I wrote: If he knew our trick, one of these naturally occurring isotopes might have done the trick: Since tungsten is in the list, and in our day to day experience it does not decay under alpha decay when we excited it with electrons, I'm guessing the Q value has to be above a certain threshold in order for the effect to be obvious (if such an effect exists). Here is a shorter version of the previous list, with tungsten left at the end as an impractical lower bound: e- + 234U => e- + 4He + 230Th + 4858 keV e- + 235U => e- + 4He + 231Th + 4678 keV e- + 238U => e- + 4He + 234Th + 4270 keV e- + 232Th => e- + 4He + 228Ra + 4082 keV e- + 190Pt => e- + 4He + 186Os + 3252 keV e- + 209Bi => e- + 4He + 205Tl + 3137 keV e- + 184Os => e- + 4He + 180W + 2957 keV e- + 186Os => e- + 4He + 182W + 2820 keV e- + 187Os => e- + 4He + 183W + 2721 keV e- + 180W => e- + 4He + 176Hf + 2515 keV Of these, only 190Pt was in the earlier list of impurities found in palladium. Eric
Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
On Tue, Oct 13, 2015 at 9:13 AM, Bob Higginswrote: It seems like a reciprocating Papp engine would need to have a cyclic > pressurization, not something the continually increases pressure as you are > describing. I thought the reported mechanism had a way to catalyze > pressure increase electrically and then the pressure returned to the prior > lower pressure state. From this cyclic pressure, mechanical energy was > extracted. > Your understanding is the same as mine. My hope was that the induced alpha decay would only ionize the noble gas and not increase the temperature of the system significantly. If the temperature of the system did increase beyond a certain point, I assume you'd get problems. Regardless, I imagine that there would be a gradual buildup of heat and that you'd have to manage it. Interesting speculation: when Feynman pulled the power chord on the engine and it continued to run, what he disabled was a coolant system. Eric
[Vo]:LENR - who needs it?
Most of this came out in 2004, but somehow has been ignored by LENR proponents, not to mention the mainstream of physics. Maybe that oversight is because of one implication, which can be interpreted as this: LENR –who needs it? :-) Which is to say: LENR is nice, but if one can manufacture ultradense hydrogen (IRH) in bulk for a reasonable cost, then we really do not need LENR per se. The the chemical energy of ultradense hydrogen is sufficient by itself to change the world, without the need for e-cats, hot-cats, Rossi, or anything nuclear. According to Holmlid: since the bonding distance of this species is known, the theoretical value for the chemical energy of that bonding distance (150 pm) is 163 kJ mol-1 (175 MJ kg-1). This is a factor of almost 10 times more than burning hydrogen in oxygen. Thus, IRH may become an important future energy carrier regardless of whether nuclear energy can be extracted or not, since the chemical energy alone is adequate for a paradigm shift. Caveat: a reliable value of the atomic binding energy of ultra-dense hydrogen in bulk is not known, since it has never been produced in bulk (unless in a military or “black R program). The cost of producing it is not known either. OTOH, according to Randell Mills, even the less dense hydrino has this high level of chemical energy. Moreover, according to Holmlid, ultradense hydrogen can be made using low pressure contact with a common petrochemical catalyst at low temperature. How costly could it be? Ya’ gotta think, if our military industrial complex is not completely asleep at the wheel, then somewhere, in some secret facility in some god-forsaken desert, there are hundreds of little reactors managed by robots making IRH by the ton. Ok, ok. Maybe that is the plot of the sequel to “Chain Reaction” …
Re: [Vo]:Cross section reduction at lower energies
On Mon, Oct 12, 2015 at 3:12 AM, Stefan Israelsson Tampe < stefan.ita...@gmail.com> wrote: >In the model of infinitesimally thin orbitspheres with a charge > distribution >described by spherical harmonics, how does Mills account for > electron >degeneracy levels? Are they explained by having several > orbitspheres >coexisting simultaneously at the same radius? If the radius > of each >orbitsphere is distinct, how are degeneracy levels explained? > > I do believe that the orthogonallity is behind Mills approach as well, the > traped photons Is of the nature jl Ylm exp(iwt). then at the radius r, the > bessel jl is zero and the outside has zero electrical potential due to a > boundary condition of the form C*Ylm*exp(iwt) on the sphere. > I understand you to be saying that in Mills there are degenerate orbitspheres to account for the degenerate electron energy levels known in mainstream chemistry. I also understand the above to mean that, in your understanding, several orbitspheres sometimes coexist at the same radius but are orthogonal to one another (in a purely mathematical sense) to allow this degeneracy. A followup question: are there similarly degenerate electron levels below the ground state, where there are several orbitspheres at the same radius? If not, why not? Eric
Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
I wrote: Interesting speculation: when Feynman pulled the power chord on the engine > and it continued to run, what he disabled was a coolant system. > I suppose he might have both pulled a power cord and a power chord. Eric
Re: [Vo]:OT: Interesting interactive graphics depicting who is buying the 2016 presidential race
Mark and Steven, I think you both miss the point. 'You think the dollars spent on election campaigns are a non-issue. I think it is terrible to spend money to be informed of two candidates with almost the same agenda. Yes we spend money - if nothing else we talk about tax free contributions. More important. Back in times when the candidates had to travel by train and speak to small groups from the last cars platform there was no other way to bring the message out. Today we have the internet and we have ways to communicate like Youtube, GoToMeeting etc. We would be better off having a group of highly qualified experts providing us the information and then we could take our positions as a person. I know you are going to say that there are too many new laws and we would all be sitting there trying to decide what to say or the votes would be poorly based (just like today). I think that by bringing most decision to a local level and limit the number of new laws (having limited number of experts), would make it work. Steven at least has said that he does have reservations with some democratic ideas. I think you Mark have to ( sorry for assuming but . . ). I cannot imagine there is anyone person who would identify his believes with either party. As an example on my ballot locally it gives me expert analysis saying how it will impact cost and how it will impact future security, health care or . . .. Even if I am not so well informed about the details I can make up my mind about what I think would be better. In my opinion you are on the same side Mark and Steven. On the easy side:) Or go with the flow. Best Regards , Lennart Thornros www.StrategicLeadershipSac.com lenn...@thornros.com +1 916 436 1899 202 Granite Park Court, Lincoln CA 95648 “Productivity is never an accident. It is always the result of a commitment to excellence, intelligent planning, and focused effort.” PJM On Tue, Oct 13, 2015 at 9:05 AM, Orionworks - Steven Vincent Johnson < orionwo...@charter.net> wrote: > Mark, > > > > I'm impressed by your earnestness in wanting to get clarification. I’ll > just focus on one exchange. What motivated me to go on the offensive, so to > speak, was the first comment you made, which was: > > > > > The NYT article is so blatantly one-sided, but of course, you know > that... > > > at least, I hope you do. > > > > As the old say'in goes: First impressions count. > > > > Granted, it may not have been your intention to do so but that was a > patronizing thing to say to anyone. So what if it’s a one-sided article. So > what if I posted that “one-side” article out to Vort Land. The world if > full of one-sided POVs, and inevitably someone’s one-sided POV (or article) > is not going to align with one’s personal stash of approved POVs. That > doesn’t make that so-called one-sided POV any less informative. > > > > As for the rest, to be honest I’m just no longer motivated enuf to go back > and explain myself. Based on other comments you made I get the impression > much of anything else I might say pertaining to the political arena would > be interpreted as yet another leftist “rant” coming from me. You did call > some of my prior comments “rants”. But, enuf of interpreting my POVs. Let > me put it another way… maybe you were more accurate than I was on some of > the points you were trying to make, and perhaps I was more accurate on some > of the other points. As for me, I would prefer to find common ground on > what we can agree on rather than what we disagree on. Energy tends to be > expended more efficiently when we work in a sand box of common ground. > > > > So, c u back in the Vort Sand box. Perhaps the next time we connect will > end up on the same side. > > > > Regards, > > Steven Vincent Johnson > > OrionWorks.com > > zazzle.com/orionworks > > >
RE: [Vo]:OT: Interesting interactive graphics depicting who is buying the 2016 presidential race
Mark, I'm impressed by your earnestness in wanting to get clarification. I'll just focus on one exchange. What motivated me to go on the offensive, so to speak, was the first comment you made, which was: > The NYT article is so blatantly one-sided, but of course, you know that... > at least, I hope you do. As the old say'in goes: First impressions count. Granted, it may not have been your intention to do so but that was a patronizing thing to say to anyone. So what if it's a one-sided article. So what if I posted that "one-side" article out to Vort Land. The world if full of one-sided POVs, and inevitably someone's one-sided POV (or article) is not going to align with one's personal stash of approved POVs. That doesn't make that so-called one-sided POV any less informative. As for the rest, to be honest I'm just no longer motivated enuf to go back and explain myself. Based on other comments you made I get the impression much of anything else I might say pertaining to the political arena would be interpreted as yet another leftist "rant" coming from me. You did call some of my prior comments "rants". But, enuf of interpreting my POVs. Let me put it another way. maybe you were more accurate than I was on some of the points you were trying to make, and perhaps I was more accurate on some of the other points. As for me, I would prefer to find common ground on what we can agree on rather than what we disagree on. Energy tends to be expended more efficiently when we work in a sand box of common ground. So, c u back in the Vort Sand box. Perhaps the next time we connect will end up on the same side. Regards, Steven Vincent Johnson OrionWorks.com zazzle.com/orionworks
[Vo]:tomorrow PdD event, today surprisingly poor Info crop
http://egooutpeters.blogspot.ro/2015/10/oct-13-2015-lenr-history-cat-in-cradle.html best wishes, Peter -- Dr. Peter Gluck Cluj, Romania http://egooutpeters.blogspot.com
Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
In reply to Eric Walker's message of Tue, 13 Oct 2015 00:43:45 -0500: Hi Eric, I meant, "I doubt there was enough of it in the engine". One of his patents might tell you how much was used. >On Mon, Oct 12, 2015 at 10:30 PM,wrote: > >> I doubt there was enough of it (but I'm just guessing). > >If he knew our trick, one of these naturally occurring isotopes might >have done the trick: > >142Ce 143Nd 144Nd 145Nd 146Nd 147Sm >148Nd 148Sm 149Sm 150Sm 152Gd 152Sm >154Gd 156Dy 158Dy 160Dy 161Dy 162Dy >162Er 164Er 165Ho 166Er 167Er 168Er >168Yb 169Tm 170Er 170Yb 171Yb 172Yb >174Hf 174Yb 176Hf 177Hf 178Hf 179Hf >180Hf 180Ta 180W181Ta 182W183W >184Os 184W185Re 186Os 186W187Os >187Re 188Os 189Os 190Os 190Pt 191Ir >192Os 192Pt 193Ir 194Pt 195Pt 196Hg >196Pt 197Au 198Hg 198Pt 199Hg 200Hg >201Hg 202Hg 203Tl 204Pb 205Tl 206Pb >207Pb 208Pb 209Bi 232Th 234U235U >238U > >In this list I see tungsten, mercury, lead, platinum, gold and >depleted uranium. There's an interesting cost/benefit analysis that >could be done of the cost of the bulk element versus the fraction of >relevant isotope. > >Eric Regards, Robin van Spaandonk http://rvanspaa.freehostia.com/project.html
Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
In reply to Eric Walker's message of Tue, 13 Oct 2015 01:31:18 -0500: Hi, Generally speaking the fission barrier gets lower as the element gets heavier, which is why 235U can be split with a single neutron. >I wrote: > >If he knew our trick, one of these naturally occurring isotopes might >> have done the trick: >> > >Since tungsten is in the list, and in our day to day experience it does not >decay under alpha decay when we excited it with electrons, I'm guessing the >Q value has to be above a certain threshold in order for the effect to be >obvious (if such an effect exists). Here is a shorter version of the >previous list, with tungsten left at the end as an impractical lower bound: > >e- + 234U => e- + 4He + 230Th + 4858 keV >e- + 235U => e- + 4He + 231Th + 4678 keV >e- + 238U => e- + 4He + 234Th + 4270 keV >e- + 232Th => e- + 4He + 228Ra + 4082 keV >e- + 190Pt => e- + 4He + 186Os + 3252 keV >e- + 209Bi => e- + 4He + 205Tl + 3137 keV >e- + 184Os => e- + 4He + 180W + 2957 keV >e- + 186Os => e- + 4He + 182W + 2820 keV >e- + 187Os => e- + 4He + 183W + 2721 keV >e- + 180W => e- + 4He + 176Hf + 2515 keV > >Of these, only 190Pt was in the earlier list of impurities found in >palladium. > >Eric Regards, Robin van Spaandonk http://rvanspaa.freehostia.com/project.html
Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
It would be interesting to consider, the use of a Holmlid condensation of hydrogen in conjunction with a mechanical engine. Suppose we had initially an empty piston and cylinder with the piston at top dead center and having a surface designed to support a Holmlid dense hydrogen film. The intake port opens and the port has a Holmlid catalyst. As the piston falls, hydrogen is drawn through the intake port and through the hydrogen catalyst to draw hydrogen prepared to form an ultra-dense layer into the cylinder. The ultra-dense hydrogen layer forms on the piston top while it cycles down and back up. As the piston reaches TDC, an electrical discharge occurs causing the condensate to fail and be released as H1 and H2 gas - at a much larger volume. The sudden high pressure forces the piston down and the the flywheel keeps it headed back up. The exhaust port opens up and the H2 gas is pushed out easily (perhaps into a reservoir). At TDC, the exhaust port closes and the intake port opens to admit more catalyzed hydrogen to form a new ultra-dense hydrogen layer on the piston. The cycle is making the ultra-dense hydrogen layer and then triggering its expansion into ordinary hydrogen gas - a huge expansion. Bob Higgins On Tue, Oct 13, 2015 at 12:58 PM, David Robersonwrote: > I agree with what you guys are saying about some form of cyclic pressure > function. Of course I can imagine that a significant temperature pulse > might be present when the piston is near its maximum compression point. > The following expansion inside the cylinder should allow the gas > temperature to fall as the piston extracts mechanical energy during the > time that the volume of gas increases. > > For a thought experiment lets assume that we have a long cylinder with a > piston driving a mechanical load. Inside the cylinder is a certain volume > of gas particles at atmospheric temperature and pressure. If we were to > push the piston inwards the gas would compress and get hotter as mechanical > work is delivered to it. I believe that this is a reversible process > provided that no heat is allowed to escape from the compressed gas. So, if > we allowed the piston to pass through top dead center, it would then > perform mechanical work on its load equal to what we inputted as it returns > to the original location. Is it safe to assume that the gas would return > to its original state where it is at room temperature and pressure and > occupies the same volume? > > With this cycle in mind, Papp's process might work if it somehow causes a > rapid increase in the number of gas particles present when the piston > is near the top dead center point. The temperature of the gas would likely > rise at that time due to the increased compression. But, if good > insulation is present to keep the heat loss to a low value, the gas would > certainly apply additional force to the piston rod as it expands outwards. > Additional mechanical work beyond that required to complete the original > cycle without the Papp process would be generated. As before, expansion > would cause the gas temperature to fall significantly as the piston > continues its outward motion. > > If the timing were fortunate, the gas would return to its original number > of particles. In that case the gas could nearly recover to its initial > state to begin another cycle. The input energy pulse would effectively be > converted into mechanical work at a high efficiency. I have a suspicion > that this cycle would violate at least one of the thermodynamic laws. > > Does my thought cycle match what you guys are thinking? It is quite > similar to the normal gasoline engine in operation except that the number > of particles of the working gas increase instead of just their temperature > when external energy is added. Could this occur in a real world engine? > If so, Papp might actually have produced a working device. > > We need a better understanding of exactly what happens to a gas which > undergoes a rapid increased to particle numbers followed by a return to it > initial composition in this type of environment. > > Dave > > > -Original Message- > From: Eric Walker > To: vortex-l > Sent: Tue, Oct 13, 2015 10:38 am > Subject: Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes > > On Tue, Oct 13, 2015 at 9:13 AM, Bob Higgins > wrote: > > It seems like a reciprocating Papp engine would need to have a cyclic >> pressurization, not something the continually increases pressure as you are >> describing. I thought the reported mechanism had a way to catalyze >> pressure increase electrically and then the pressure returned to the prior >> lower pressure state. From this cyclic pressure, mechanical energy was >> extracted. >> > > Your understanding is the same as mine. My hope was that the induced > alpha decay would only ionize the noble gas and not increase the
Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
I agree with what you guys are saying about some form of cyclic pressure function. Of course I can imagine that a significant temperature pulse might be present when the piston is near its maximum compression point. The following expansion inside the cylinder should allow the gas temperature to fall as the piston extracts mechanical energy during the time that the volume of gas increases. For a thought experiment lets assume that we have a long cylinder with a piston driving a mechanical load. Inside the cylinder is a certain volume of gas particles at atmospheric temperature and pressure. If we were to push the piston inwards the gas would compress and get hotter as mechanical work is delivered to it. I believe that this is a reversible process provided that no heat is allowed to escape from the compressed gas. So, if we allowed the piston to pass through top dead center, it would then perform mechanical work on its load equal to what we inputted as it returns to the original location. Is it safe to assume that the gas would return to its original state where it is at room temperature and pressure and occupies the same volume? With this cycle in mind, Papp's process might work if it somehow causes a rapid increase in the number of gas particles present when the piston is near the top dead center point. The temperature of the gas would likely rise at that time due to the increased compression. But, if good insulation is present to keep the heat loss to a low value, the gas would certainly apply additional force to the piston rod as it expands outwards. Additional mechanical work beyond that required to complete the original cycle without the Papp process would be generated. As before, expansion would cause the gas temperature to fall significantly as the piston continues its outward motion. If the timing were fortunate, the gas would return to its original number of particles. In that case the gas could nearly recover to its initial state to begin another cycle. The input energy pulse would effectively be converted into mechanical work at a high efficiency. I have a suspicion that this cycle would violate at least one of the thermodynamic laws. Does my thought cycle match what you guys are thinking? It is quite similar to the normal gasoline engine in operation except that the number of particles of the working gas increase instead of just their temperature when external energy is added. Could this occur in a real world engine? If so, Papp might actually have produced a working device. We need a better understanding of exactly what happens to a gas which undergoes a rapid increased to particle numbers followed by a return to it initial composition in this type of environment. Dave -Original Message- From: Eric WalkerTo: vortex-l Sent: Tue, Oct 13, 2015 10:38 am Subject: Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes On Tue, Oct 13, 2015 at 9:13 AM, Bob Higgins wrote: It seems like a reciprocating Papp engine would need to have a cyclic pressurization, not something the continually increases pressure as you are describing. I thought the reported mechanism had a way to catalyze pressure increase electrically and then the pressure returned to the prior lower pressure state. From this cyclic pressure, mechanical energy was extracted. Your understanding is the same as mine. My hope was that the induced alpha decay would only ionize the noble gas and not increase the temperature of the system significantly. If the temperature of the system did increase beyond a certain point, I assume you'd get problems. Regardless, I imagine that there would be a gradual buildup of heat and that you'd have to manage it. Interesting speculation: when Feynman pulled the power chord on the engine and it continued to run, what he disabled was a coolant system. Eric
Re: [Vo]:LENR - who needs it?
In reply to Jones Beene's message of Tue, 13 Oct 2015 08:42:43 -0700: Hi, [snip] >Most of this came out in 2004, but somehow has been ignored by LENR >proponents, not to mention the mainstream of physics. Maybe that oversight is >because of one implication, which can be interpreted as this: > >LENR who needs it? :-) Well that is certainly Mills' credo. :) Regards, Robin van Spaandonk http://rvanspaa.freehostia.com/project.html
Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
In reply to David Roberson's message of Tue, 13 Oct 2015 14:58:14 -0400: Hi, [snip] > >I agree with what you guys are saying about some form of cyclic pressure >function. Of course I can imagine that a significant temperature pulse might >be present when the piston is near its maximum compression point. The >following expansion inside the cylinder should allow the gas temperature to >fall as the piston extracts mechanical energy during the time that the volume >of gas increases. > >For a thought experiment lets assume that we have a long cylinder with a >piston driving a mechanical load. Inside the cylinder is a certain volume of >gas particles at atmospheric temperature and pressure. If we were to push the >piston inwards the gas would compress and get hotter as mechanical work is >delivered to it. I believe that this is a reversible process provided that no >heat is allowed to escape from the compressed gas. So, if we allowed the >piston to pass through top dead center, it would then perform mechanical work >on its load equal to what we inputted as it returns to the original location. >Is it safe to assume that the gas would return to its original state where it >is at room temperature and pressure and occupies the same volume? > >With this cycle in mind, Papp's process might work if it somehow causes a >rapid increase in the number of gas particles present when the piston is near >the top dead center point. The temperature of the gas would likely rise at >that time due to the increased compression. But, if good insulation is >present to keep the heat loss to a low value, the gas would certainly apply >additional force to the piston rod as it expands outwards. Additional >mechanical work beyond that required to complete the original cycle without >the Papp process would be generated. As before, expansion would cause the gas >temperature to fall significantly as the piston continues its outward motion. > >If the timing were fortunate, the gas would return to its original number of >particles. Plasma recombination will release a lot of heat (multiple eV / atom - probably several times normal chemical reaction energy on average). The pressure increase as a consequence of this heat is likely to far outweigh the doubling of pressure due to ionization. (I haven't run the numbers, so I could well be wrong here.) Consequently, I would guess that the whole ionization-recombination process happens near TDC, and is responsible for the primary pressure pulse in the engine. >In that case the gas could nearly recover to its initial state to begin >another cycle. The input energy pulse would effectively be converted into >mechanical work at a high efficiency. I have a suspicion that this cycle >would violate at least one of the thermodynamic laws. > >Does my thought cycle match what you guys are thinking? It is quite similar >to the normal gasoline engine in operation except that the number of particles >of the working gas increase instead of just their temperature when external >energy is added. Due to breakup of medium to large hydrocarbon molecules in a gasoline engine, the number of particles increases there too. Also, formation of water molecules results in a single O2 molecule becoming two water molecules. Typical reaction:- 2C8H18 (octane) + 25O2 => 16CO2 + 18H2O 2 + 25 => 34 >Could this occur in a real world engine? If so, Papp might actually have >produced a working device. Stirling engines don't have an exhaust either do they? > >We need a better understanding of exactly what happens to a gas which >undergoes a rapid increased to particle numbers followed by a return to it >initial composition in this type of environment. Agreed. Regards, Robin van Spaandonk http://rvanspaa.freehostia.com/project.html
[Vo]:Strongly recommend this video about population and energy
See: "DON'T PANIC — Hans Rosling showing the facts about population" https://www.youtube.com/watch?v=FACK2knC08E This video demolishes many common misunderstandings about world population growth, fertility, and the situation in the third world. Things are probably better than you think. The discussion of energy starts around minute 51, but I recommend you see the rest of the video. This discussion of energy shows how vitally important cold fusion will be if we can make it work. I am adding Japanese subtitles to this video, in crowd sourced volunteer effort. If you do not have time to see this, here is a short similar video, which does not mention energy: https://www.youtube.com/watch?v=OwII-dwh-bk - Jed
Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
In reply to Bob Higgins's message of Tue, 13 Oct 2015 14:18:46 -0600: Hi, Energy is released as the condensate forms. In order to get it to return to a normal gas, you should need to put the same amount of energy back in again. [snip] Regards, Robin van Spaandonk http://rvanspaa.freehostia.com/project.html
[Vo]:MUONS
http://phys.org/news/2015-10-particle-purely-nuclear.html Mark Goldes Chairman, CEO, AESOP Energy LLC 707 861-9070 AESOP Institute website: www.aesopinstitute.org
Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
I don't recall that Holmlid described the formation of the dense hydrogen as an extremely exothermic process. As I recall it described, H2 was simply catalyzed and flowed onto the surface where the ultra-dense hydrogen film spontaneously formed. Also, it doesn't make sense that this extremely compacted form of hydrogen is so stable that it takes a huge energy to disrupt the condensate. As you seem to be describing it, it would be so stable you could scrape it off of the surface and make it into a ball without changing its density; and to to get it to change from its ultra-high-density state you would need to supply a great deal of energy. As I see it, this is an extremely fragile condensate, on the edge of reverting to gas. On Tue, Oct 13, 2015 at 3:38 PM,wrote: > In reply to Bob Higgins's message of Tue, 13 Oct 2015 14:18:46 -0600: > Hi, > Energy is released as the condensate forms. In order to get it to return > to a > normal gas, you should need to put the same amount of energy back in again. > [snip] > > Regards, > > Robin van Spaandonk > > http://rvanspaa.freehostia.com/project.html > >
RE: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
-Original Message- From: mix...@bigpond.com In reply to Bob Higgins's message: > Energy is released as the condensate forms. In order to get it to return to a normal gas, you should need to put the same amount of energy back in again. You seem to be conflating Holmlid with CQM, Robin. True - UV energy is released on shrinkage in Mills' understanding - but Holmlid sees this differently. For Holmlid, the condensed species give up energy on reinflation and there are no intermediate steps involved. Since Bob was premising his idea on Holmlid, we should not conflate the two theories - as similar as they first appear, since they are the contradictory on several important details. For Holmlid the ultradense form occurs in one step and its chemical binding energy is only in the range of -50 eV maximum.
Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
If I understand you correctly, the process you speculate upon is quite similar to a normal ICE without an exhaust port. Heat is introduced into the working gas from the energy emitted by the alpha emitter. That heat causes an increase in the gas pressure that occurs due to the normal compression of the piston within the cylinder. Next, the piston is pushed outward to do mechanical work which is greater than the work required to compress that piston at the beginning of the cycle. This type of cycle should work provided there is a cooling method that extracts the left over heat that is present at the end of the piston movement. Otherwise it seems that the system would continue to heat up. Maybe that is what happened to Papp's engine during that dangerous explosion event! It seems logical that the radiation energy required from the alpha source should add up to the mechanical energy extracted from the piston movement plus the heat absorbed by the cooling system that allows the device to operate. Dave -Original Message- From: Eric WalkerTo: vortex-l Sent: Tue, Oct 13, 2015 6:28 pm Subject: Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes On Tue, Oct 13, 2015 at 1:58 PM, David Roberson wrote: We need a better understanding of exactly what happens to a gas which undergoes a rapid increased to particle numbers followed by a return to it initial composition in this type of environment. I was thinking in terms of an "adiabatic" system. Imagine the system is completely isolated from the external environment, and that there are reflective walls in the containment that reflect any radiated energy back to the engine. Here we have a closed system. In this case, it seems like the release of energy of the alpha emitter is efficiently transmitted into mechanical energy by way of the expanding ionized gas. Any increase in temperature as the gas recondenses will be smaller than the initial energy released by the alpha emitter when the decay was induced, as some of it will go to heating the motor. It is here that Robin's question becomes interesting (assuming I've understood it). If we work backwards from the work needed to move the piston through a cycle, we can ask, how much induced alpha activity is needed in order to provide the work for a full cycle, and how much alpha emitter would that imply? Is the scenario even realistic? Eric
Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
Jones, I have not been following the work of Holmlid closely. Do I understand you correctly that he calculates it actually takes energy to cause the hydrogen to become compacted? That reminds me of a balloon where you have to squeeze it to make it smaller. Of course this is 180 degrees out of phase with what Mills seems to believe. Only one of these possibilities can be correct. Actually, neither could be accurate since no one has proved that hydrogen can actually shrink. Dave -Original Message- From: Jones BeeneTo: vortex-l Sent: Tue, Oct 13, 2015 8:02 pm Subject: RE: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes Bob, The ultradense species could be too problematic to manufacture in situ especially in an automobile where weight is a concern. And really, if the chemical energy is high, there is no need to look beyond it. Apparently the rate of production is low in terms of mass of IRH per unit of catalyst per unit of time. This is basically 2D chemistry. For instance, if one ton of catalyst produces 10 grams of IRH per hour – this is not going to work for onboard automotive uses - but could still be economically made in a factory, since the catalyst is cheap – basically glorified iron ore. BTW – isn’t it true that Rossi has admitted that his fuel must be “prepared” ahead of time, which could mean that he too is densifying hydrogen, prior to loading? He may not realize it, but in the process of treating his nickel, AR could be loading it with IRH. Anyway - here is a slight variation on what you are suggesting. If Holmlid is correct on the 10x chemical energy of the species, it probably makes more sense to manufacture it in a dedicated facility, and convert the ICE to burn it as if it was hydrogen – even mixing it with hydrogen, so it ignites easier. One big (HUGE) difference of Holmlid from Mills’ concept is that the excess energy is not seen when the species is made (Mills’ claim) – but is seen when the condensed hydrogen is reinflated back to hydrogen (or reacted in a nuclear reaction). Even if far more energy is available in a nuclear pathway, that could be too complicated and unreliable for the highway, and especially if there are accumulated transmutation products. When everything is considered, it might be more cost effective to provide the simple and more robust chemical energy of IRH only. Because the chemical binding energy of IRH is about 50 eV according to Holmlid, it would be hard to ignite but could be mixed with H2 for that purpose. From: Bob Higgins It would be interesting to consider, the use of a Holmlid condensation of hydrogen in conjunction with a mechanical engine. Suppose we had initially an empty piston and cylinder with the piston at top dead center and having a surface designed to support a Holmlid dense hydrogen film. The intake port opens and the port has a Holmlid catalyst. As the piston falls, hydrogen is drawn through the intake port and through the hydrogen catalyst to draw hydrogen prepared to form an ultra-dense layer into the cylinder. The ultra-dense hydrogen layer forms on the piston top while it cycles down and back up. As the piston reaches TDC, an electrical discharge occurs causing the condensate to fail and be released as H1 and H2 gas - at a much larger volume. The sudden high pressure forces the piston down and the the flywheel keeps it headed back up. The exhaust port opens up and the H2 gas is pushed out easily (perhaps into a reservoir). At TDC, the exhaust port closes and the intake port opens to admit more catalyzed hydrogen to form a new ultra-dense hydrogen layer on the piston. The cycle is making the ultra-dense hydrogen layer and then triggering its expansion into ordinary hydrogen gas - a huge expansion. Bob Higgins
Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
>Due to breakup of medium to large hydrocarbon molecules in a gasoline engine, the number of particles increases there too. Also, formation of water molecules results in a single O2 molecule becoming two water molecules. Typical reaction:- 2C8H18 (octane) + 25O2 => 16CO2 + 18H2O 2 + 25 => 34< Robin thanks for posting the reaction taking place in a typical gasoline engine. I realized that a small increase to the total number of molecules would occur, but if you consider that most of the gas molecules within the system are nitrogen, then that increase is not overly significant. I guesstimate the total increase is less than 10% when burning the fuel. With the Papp process I am suspecting more like a 100 % change...is that too optimistic? >Stirling engines don't have an exhaust either do they?< That is a good point. In a normal ICE a large amount of heat escapes the system along with the exhaust. The Papp device does not seem to suffer that loss from what I understand. But, always keep in mind that the Papp engine might not be real. F9! :-) Dave -Original Message- From: mixentTo: vortex-l Sent: Tue, Oct 13, 2015 5:16 pm Subject: Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes ...snip Plasma recombination will release a lot of heat (multiple eV / atom - probably several times normal chemical reaction energy on average). The pressure increase as a consequence of this heat is likely to far outweigh the doubling of pressure due to ionization. (I haven't run the numbers, so I could well be wrong here.) Consequently, I would guess that the whole ionization-recombination process happens near TDC, and is responsible for the primary pressure pulse in the engine. ...snip Interesting Dave Regards, Robin van Spaandonk http://rvanspaa.freehostia.com/project.html
RE: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
Bob, The ultradense species could be too problematic to manufacture in situ especially in an automobile where weight is a concern. And really, if the chemical energy is high, there is no need to look beyond it. Apparently the rate of production is low in terms of mass of IRH per unit of catalyst per unit of time. This is basically 2D chemistry. For instance, if one ton of catalyst produces 10 grams of IRH per hour – this is not going to work for onboard automotive uses - but could still be economically made in a factory, since the catalyst is cheap – basically glorified iron ore. BTW – isn’t it true that Rossi has admitted that his fuel must be “prepared” ahead of time, which could mean that he too is densifying hydrogen, prior to loading? He may not realize it, but in the process of treating his nickel, AR could be loading it with IRH. Anyway - here is a slight variation on what you are suggesting. If Holmlid is correct on the 10x chemical energy of the species, it probably makes more sense to manufacture it in a dedicated facility, and convert the ICE to burn it as if it was hydrogen – even mixing it with hydrogen, so it ignites easier. One big (HUGE) difference of Holmlid from Mills’ concept is that the excess energy is not seen when the species is made (Mills’ claim) – but is seen when the condensed hydrogen is reinflated back to hydrogen (or reacted in a nuclear reaction). Even if far more energy is available in a nuclear pathway, that could be too complicated and unreliable for the highway, and especially if there are accumulated transmutation products. When everything is considered, it might be more cost effective to provide the simple and more robust chemical energy of IRH only. Because the chemical binding energy of IRH is about 50 eV according to Holmlid, it would be hard to ignite but could be mixed with H2 for that purpose. From: Bob Higgins It would be interesting to consider, the use of a Holmlid condensation of hydrogen in conjunction with a mechanical engine. Suppose we had initially an empty piston and cylinder with the piston at top dead center and having a surface designed to support a Holmlid dense hydrogen film. The intake port opens and the port has a Holmlid catalyst. As the piston falls, hydrogen is drawn through the intake port and through the hydrogen catalyst to draw hydrogen prepared to form an ultra-dense layer into the cylinder. The ultra-dense hydrogen layer forms on the piston top while it cycles down and back up. As the piston reaches TDC, an electrical discharge occurs causing the condensate to fail and be released as H1 and H2 gas - at a much larger volume. The sudden high pressure forces the piston down and the the flywheel keeps it headed back up. The exhaust port opens up and the H2 gas is pushed out easily (perhaps into a reservoir). At TDC, the exhaust port closes and the intake port opens to admit more catalyzed hydrogen to form a new ultra-dense hydrogen layer on the piston. The cycle is making the ultra-dense hydrogen layer and then triggering its expansion into ordinary hydrogen gas - a huge expansion. Bob Higgins
RE: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
One more arcane point on this apparent conflict between Mills and Holmlid: For Holmlid the ultradense species occurs in one step and its chemical binding energy is in the range of -50 eV maximum. If we go back 20 years to Thermacore, and some of the most convincing work ever done in LENR, there is one test that has always troubled me. Thermacore had nickel capillary tubes tested at Lehigh University following a very long run with hydrogen. They were using some kind of spectral line fluorescence testing. What appeared was a very strong UV emission peak at 50 eV. Mills had never been able to show strong peaks like this and he never commented on Thermacore's finding. Plus, the UV peak showed up in what was essentially ash - not as a product of shrinkage. Nevertheless, Thermacore said it was proof of the 54.4 eV line, even though it clearly was over 4 eV lower and was not a product of shrinkage but instead a product in the leftover nickel. This is all from memory but in retrospect, what Lehigh found in the used capillary tubes could have been evidence of Holmlid's dense hydrogen - as it reinflated ! Jones
Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
On Tue, Oct 13, 2015 at 1:58 PM, David Robersonwrote: We need a better understanding of exactly what happens to a gas which > undergoes a rapid increased to particle numbers followed by a return to it > initial composition in this type of environment. > I was thinking in terms of an "adiabatic" system. Imagine the system is completely isolated from the external environment, and that there are reflective walls in the containment that reflect any radiated energy back to the engine. Here we have a closed system. In this case, it seems like the release of energy of the alpha emitter is efficiently transmitted into mechanical energy by way of the expanding ionized gas. Any increase in temperature as the gas recondenses will be smaller than the initial energy released by the alpha emitter when the decay was induced, as some of it will go to heating the motor. It is here that Robin's question becomes interesting (assuming I've understood it). If we work backwards from the work needed to move the piston through a cycle, we can ask, how much induced alpha activity is needed in order to provide the work for a full cycle, and how much alpha emitter would that imply? Is the scenario even realistic? Eric
RE: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
Dave, I haven’t seen any calculation for the energy to densify. He does say it takes only pressure, time and moderate temperature. Unlike Mills, Holmlid is not secretive and is open to outside contact and these questions will be asked. As you say, Holmlid and Mills cannot both be correct. From: David Roberson I have not been following the work of Holmlid closely. Do I understand you correctly that he calculates it actually takes energy to cause the hydrogen to become compacted? That reminds me of a balloon where you have to squeeze it to make it smaller. Of course this is 180 degrees out of phase with what Mills seems to believe. Only one of these possibilities can be correct. Actually, neither could be accurate since no one has proved that hydrogen can actually shrink. Dave
Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
In reply to Bob Higgins's message of Tue, 13 Oct 2015 15:59:50 -0600: Hi, [snip] > In that case you wouldn't get much back when it "exploded" either would you? Regards, Robin van Spaandonk http://rvanspaa.freehostia.com/project.html
Re: [Vo]:Strongly recommend this video about population and energy
Hello Jed, Nice accent. Yes, I think he is right. He obviously have not understood that Rossi now is establishing factories (within a year) to build LENR. Joke aside - I think that things happen because there is a demand. The population growth is solved, the distribution is on its way - LENR needs to knock on the door. I think it does just not so sure if it is Rossi, Holmlid or an unknown who will get first to market. I would bet on the unknown. Is there a bookmaker in the group?:) Best Regards , Lennart Thornros www.StrategicLeadershipSac.com lenn...@thornros.com +1 916 436 1899 202 Granite Park Court, Lincoln CA 95648 “Productivity is never an accident. It is always the result of a commitment to excellence, intelligent planning, and focused effort.” PJM On Tue, Oct 13, 2015 at 2:27 PM, Jed Rothwellwrote: > See: > > "DON'T PANIC — Hans Rosling showing the facts about population" > > https://www.youtube.com/watch?v=FACK2knC08E > > This video demolishes many common misunderstandings about world population > growth, fertility, and the situation in the third world. Things are > probably better than you think. > > The discussion of energy starts around minute 51, but I recommend you see > the rest of the video. This discussion of energy shows how vitally > important cold fusion will be if we can make it work. > > I am adding Japanese subtitles to this video, in crowd sourced volunteer > effort. > > > If you do not have time to see this, here is a short similar video, which > does not mention energy: > > https://www.youtube.com/watch?v=OwII-dwh-bk > > - Jed > >
Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
In reply to Jones Beene's message of Tue, 13 Oct 2015 15:13:20 -0700: Hi Jones, [snip] >-Original Message- >From: mix...@bigpond.com > >In reply to Bob Higgins's message: > >> Energy is released as the condensate forms. In order to get it to return >to a normal gas, you should need to put the same amount of energy back in >again. > > >You seem to be conflating Holmlid with CQM, Robin. Actually I was conflating it with IRH. Regardless, if one wants to get energy from somewhere, then an explanation of the source of that energy needs to be found. If 50 eV UV is released from the "ash", then 50 eV must have gone into it's creation. Regards, Robin van Spaandonk http://rvanspaa.freehostia.com/project.html
RE: [Vo]:Strongly recommend this video about population and energy
Thanks Jed, Watched it all. It was worth it. It is rare to take in a lecture given by a statistician who is not only informative but entertaining and funny as well. Regards, Steven Vincent Johnson OrionWorks.com zazzle.com/orionworks > "DON'T PANIC — Hans Rosling showing the facts about population" > > https://www.youtube.com/watch?v=FACK2knC08E ... > If you do not have time to see this, here is a short similar video, which > does not mention energy: > > https://www.youtube.com/watch?v=OwII-dwh-bk
Re: [Vo]:Strongly recommend this video about population and energy
This video is relevant to this group because -- It shows why cold fusion energy is important, how much it can do, and finally how likely it is to be used. The last question is not directly addressed but you can interpolate. The video demonstrates that people are not stupid and poor people are good at helping themselves and surviving. Look at how well people world-wide have already made use of technology that in 1963 many said they would never embrace, such as contraceptives. Look at how much progress we have made since 1963! For example, the population explosion is over, for the reasons described by Rosling. (Even scientists and engineers often fail to understand these reasons, which is disgraceful.) People who say our situation is hopeless may call themselves themselves skeptical realists, but I say they are blinded by preconceived ideas and an ahistoric, unrealistic, unfounded pessimism. As Rosling says: "The problem here is not lack of knowledge, it is preconceived ideas." None of this is new, by the way. My late mother was a researcher at the Census Bureau. In the 1960s she described how the population explosion can be stopped with three things: better healthcare leading to lower infant mortality, contraceptives, and education for women. As Rosling shows, she was exactly right. - Jed
Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
In reply to David Roberson's message of Tue, 13 Oct 2015 19:38:25 -0400: Hi, [snip] > >>Due to breakup of medium to large hydrocarbon >molecules in a gasoline engine, >the number of particles increases there too. >Also, formation of water molecules >results in a single O2 molecule becoming two >water molecules. > >Typical reaction:- > >2C8H18 (octane) + 25O2 => 16CO2 + >18H2O > >2 + 25 => 34< > > >Robin thanks for posting the reaction taking place in a typical gasoline >engine. I realized that a small increase to the total number of molecules >would occur, but if you consider that most of the gas molecules within the >system are nitrogen, then that increase is not overly significant. Agreed. >I guesstimate the total increase is less than 10% when burning the fuel. With >the Papp process I am suspecting more like a 100 % change...is that too >optimistic? I suspect so. I doubt that all the atoms are going to be ionized at once, though some would lose more than one electron. > > > >>Stirling engines don't have an >exhaust either do they?< >That is a good point. In a normal ICE a large amount of heat escapes the >system along with the exhaust. The Papp device does not seem to suffer that >loss from what I understand. But, always keep in mind that the Papp engine >might not be real. F9! :-) ..so Feynman pulled the plug on a non-existent engine, that then can't possibly have exploded (because it didn't exist), and hence there was no ensuing court case? ;) Regards, Robin van Spaandonk http://rvanspaa.freehostia.com/project.html
Re: [Vo]:Electron-mediated alpha decay in quasi-stable isotopes
On Tue, Oct 13, 2015 at 8:42 PM,wrote: ..so Feynman pulled the plug on a non-existent engine, that then can't > possibly > have exploded (because it didn't exist), and hence there was no ensuing > court > case? ;) > I think the question that history will be the judge of is whether it was a /noble gas/ engine. Eric