Subject was Re: [Vo]:Some doubts expressed about Celani demonstration

At 10:43 PM 8/17/2012, James Bowery wrote:
Isn't 23 years of torture enough?

On Fri, Aug 17, 2012 at 7:53 PM, Jed Rothwell <<mailto:[email protected]>[email protected]> wrote: Several experts in calorimetry expressed doubts about the Celani demonstration at ICCF17. Mike McKubre in particular feels that it is impossible to judge whether it really produced heat or not, because the method is poor. He does not say he is sure there was no heat; he simply does not know. Others feel that he exaggerates the problem.

It is crucial that people who accept cold fusion, who are knowledgeable about it, take on skeptical roles. Otherwise those roles will be taken by people who are *not* acceptors.

One of the major skeptical arguments is that the cold fusion community naively accepts every report, that we are "believers," and the pseudoskeptics only use this term for us. We are "believers," as if cold fusion was our religion, as if our belief in it is impervious to evidence, as if we are not properly skeptical. It's inherently insulting, but there is also a truth to it.

We are often reluctant to point out the most obvious of errors. Some *really poor* research has been published, even under peer review.

Calorimetric error is possible. Not all cold fusion reports are free of calorimetric error. Mike is pointing to certain problems in the calorimetry. This may or may not be relevant to Celani's research goals. Generally, at this point, researchers are not out to prove "cold fusion." The Celani demonstrations should not be taken as if they were that. They are presentations of current work, which can then be seen in operation. Heat at the levels reported, and with the calorimetric technique used, are not going to convince a serious skeptic.

But that's not the purpose. Celani is investigating the behavior of materials, and for his purpose, every experiment is a control, with respect to variations in material processing. He doesn't need to scale up, and he doesn't need to know absolute heat production. He only needs to know *relative* heat production, and for that purpose, absolute calorimetric error is not so important.

When he's found a reasonable optimization of his processes, *then*, before he attempts to scale up or to finalize his work, he'd want absolute accuracy in his calorimetry.

There is a constant drumbeat in this field to demonstrate massive power generation. While some will prefer to experiment and take their chances, hoping to win the lottery and find the magic combination, others will explore the parameter space, seeking optimal operating points, and seeking other evidence that might eventually lead to understanding the nuts and bolts of whatever effect is being demonstrated. Such as ash. If Celani can get a few weeks of operation, even at the relatively low power levels he's claiming, he should be able to see transmutations, enough to identify the ash, and possibly the fuel.

(Actually, 10 - 15 W is not really "low." 1 watt in this field, if well above noise, is quite decent. And it's spectacular if correlated with helium, which probably requires the 1 watt to be continued for a decent time.)

We should ignore the marching orders from those who want cheap energy (or "proof" that this isn't all bogus). None of that is about the science, which should take precedence, if we are sane.

Attempts to scale up cold fusion, to make it reliable, have burned through as much as a few hundred million dollars of investment (anyone got a decent figure on that?). Much of that may have been wasted, being directed toward a goal of "more and better," instead of "what the hell is this?"

Obviously, "more and better" would be desirable. But it puts the cart before the horse.

It is about time that we respect the recommendations of both U.S. DoE reports for basic research, before demanding massive investment in cold fusion. A fraction of what has been spent already on cold fusion could be enough, and it would be a tiny fraction of what is being spent on hot fusion, which we *know* is unlikely to produce practical power for a very long time, if ever. (Current estimates seem to be by 2050.)

See the current Wikipedia article. http://en.wikipedia.org/w/index.php?title=Fusion_power&oldid=508022868 From the lede:

Fusion powered electricity generation was initially believed to be readily achievable, as fission power had been. However, the extreme requirements for continuous reactions and plasma containment led to projections being extended by several decades. In 2010, more than 60 years after the first attempts, commercial power production was still believed to be unlikely before 2050.[3]

[3] http://web.archive.org/web/20061107220145/http://www.iter.org/Future-beyond.htm

(That's horrible sourcing for something in the lede of a Wikipedia article. Wikipedia has definitely gone downhill since they banned the editors who knew something about cold fusion. (Who often also knew something about hot fusion.) This is a hot fusion article, probably the main one, as far as application for power is concerned.

This section of the article covers "current status." It has a "factual accuracy tag" on it. http://en.wikipedia.org/w/index.php?title=Fusion_power&oldid=508022868#Current_status

This is even worse. A century? For perspective, the section has:

In early 2012, NIF director Mike Dunne expected the laser system to generate fusion with net energy gain by the end of 2012.[56]

[56} http://optics.org/news/3/1/37

Wikipedia supposedly depends, for science articles, on publication in peer-reviewed journals, and, specifically, the gold standard is a review published in a peer-reviewed journal. Nothing less than that, really, should be presented as fact. In this case, it's been attributed (which is the proper way to do it), but not quite accurately. What Mike Dunne actually said was:

“We are now in a position to say with some confidence that ignition will happen in the next 6-18 months,” stated the former head of the HiPER European laser fusion project, adding that he felt personally that the breakthrough was likely to happen in around nine months.

That was 26 January, 2012. What he actually said wasn't the text in the article. It was a personal feeling as to what was "likely." Yet, if he needed to express something with "some confidence," about what "we" are in a position to say, it would be within 18 months. Maybe!

Now, realize this: what they mean by "ignition" is that the reaction produces more energy than is put in. So if they are consuming 50 megawatts, they would produce more fusion power than that, so total power dissipation, for some period of time (how long?) would be above 100 MW.

(It's trivial to produce *some* power with hot fusion, it's done in home labs with Farnsworth Fusors.)

They aren't there yet. I think there have been one or more instances where a hot fusion device has produced, for a very short time, more additional power out than power in. Yet this is *common* with cold fusion. (With "Heat after death," there is no input at all, so all power out, if it's not recombination, is additional power. Some examples of HAD produced more power out than all the power put in, even though most of that input power resulted in burnable deuterium and oxygen exhausted to the atmosphere.

The incredible mismatch between prospects and actual funding is striking. Cold fusion, at this point, needs a relatively small amount of funding for basic research. Hot fusion is consuming vast funding, every year. From the Wikipedia article cited above:

Nuclear fusion research receives € 750 million (excluding ITER funding), compared with € 810 million for all non-nuclear energy research combined,<http://en.wikipedia.org/wiki/Fusion_power#cite_note-44>[45] putting research into fusion power well ahead of that of any single rivaling technology.

ITER is budgeted, according to the article, at € 10 billion, but the article doesn't give the period for that funding. Again, from the article:

It is estimated that up to the point of possible implementation of electricity generation by nuclear fusion, R&D will need further promotion totalling around € 60-80 billion over a period of 50 years or so (of which € 20-30 billion within the EU) based on a report from 2002.

Now, before we continue to spend over a billion dollars per year for a technology that, at best, is unlikely to produce results in the short term, and produces shaky results long-term, including a series of major problems (such as dealing with radioactive waste from all the neutron-activated material), wouldn't it make sense to spend 1 percent of that (or maybe even more!) to investigate an alternative that already has shown *some* promise, under poorly understood conditions? The DoE reviews negated a massive Manahattan-scale project, for good reasons: the science is not well enough understood. But both reviews recommended modest funding for research.

That funding was almost completely interdicted by the intervention of physicists, like Park of the APS. Now, the dirty secret:

Hot fusion employs many physticists. Entire institutions are maintained and supported by hot fusion research. If hot fusion is abandoned, there will be a lot of physicists out of a job. Cold fusion requires, not particle physicists and nuclear physicists, per se, but chemists and materials scientists. Institutions accustomed to governmental support from hot fusion research would see contracts cancelled. That would include MIT. There is a glaring conflict of interest here.

This has been a turf war. The loser? The public. It's about time this ends.

It's about time that the normal processes of science be allowed to function. They will, and they are, but under conditions that heavily retard progress.












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