xedude wrote:
"They also have the advantage of producing megawatts of power in a reproducible environment. Cold fusion experiments are essentially consistent with zero."
Cold fusion experiments have produced far more integrated energy than any hot fusion experiment, albeit lower power. The biggest hot fusion experiment that I know of was at the PPPL. It produced ~10 MJ. Some cold fusion cells have produced 80 to 300 MJ. Also, hot fusion has never reach breakeven, whereas in some cold fusion cells are "fully ignited" (as they say in hot fusion), with zero input power.
"2. Cold fusion was more difficult to replicate HTSC, at first."
I would say they are still more difficult to replicate. I made my own high-temp superconducting material in a chemistry lab, and I have demonstrated the Meissner effect to physics students using a premade sample and some liquid nitrogen."
Since I have no experience trying to replicate HTSC I will take your word for that. On the other hand it should be noted that high school students using premade samples have successfully replicated cold fusion, in the U.S. and in Italy.
Also, I wouldn't know -- but I suppose that if you were to try to produce HTSC material from scratch, you would have considerable difficulty. Most researchers trying to do cold fusion must make material from scratch. That is a problem, because the machines used to fabricate cathodes cost anywhere from $50,000 to several million dollars, and they require considerable expertise to operate. The most skilled people are the US Navy's metallurgists. Their cathodes work every time. It is a shame they have been ordered not to do this research.
"How many cold fusion cells typically produce 'excess energy?' 1/3?"
That depends upon how much you want to pay. At the U.S. Navy, before the research was closed down, 10 out of 10 runs produced excess heat. At Mitsubishi 60 out of 60 have produced transmutations. (There is no way to measure excess energy with this set up, but in the previous experiments they did detect heat.) Mizuno has performed about 100 experiments over the last few years, and only a few failed. Will et al. (NCFI) reported: "Of twenty 'valid' (equipment debugged, procedures developed) experiments with Pd, nine or ten exhibited elevated levels of neutrons and/or tritium, representing a success rate of 45 to 50%." And they said, "tritium enhancements up to a factor 52 were observed." But to achieve that kind of performance back in 1990 you had to spend $5 million and assemble a team of world class experts, which is what they did at the NCFI.
http://www.lenr-canr.org/acrobat/WillFGstudiesofe.pdf
"No one can adequately explain how you have a nuclear reaction w/o neutrons and w/o tritium production."
Explanations are irrelevant. This is an experimental claim, and experimental claims do not require theoretical explanations. As I pointed out in the book (in chapter 1), before 1952 no one understood how cells reproduce, but no one doubted that cells do, in fact, reproduce. See also:
http://lenr-canr.org/acrobat/SchwingerJcoldfusiona.pdf
(Page 1)
"As I mentioned before, the Japanese are more interested in the technology because the potential payoff is much greater for them in terms of their energy economy."
Considering recent events in the Middle East and terrorist attacks the U.S. has good reason to be interested in energy, to say the least. As my book shows, the "potential payoff" for all nations is unimaginably large. See:
http://lenr-canr.org/acrobat/RothwellJcoldfusiona.pdf
- Jed