The course runs from Tuesday, January 22 through Wednesday, January 30, 2013 from 11AM-1PM in Room 4-153 and 66-144 on the MIT campus.
Cold Fusion 101 Lectures courtesy Jeremy Rys
Peter Hagelstein Cold Fusion 101 in 2012Participants in the course will learn about cold fusion from a top theorist in the field, as well as one of the industry’s leading technologists.
The cold fusion energy cell built by Dr. Mitchell Swartz of JET Energy produced excess heat continuously for months on the MIT campus. Described as a zirconium-oxide nanostructured quantum electronic device, the phenomenon was observed by both students and the condensed matter nuclear science (CMNS) community as well as members of the general public.
From “Demonstration of Excess Power from the JET Energy NANOR at MIT” by M.Swartz and P HagelsteinMitchell Swartz and Peter Hagelstein released Demonstration of Excess Heat from a JET Energy NANOR at MIT[.pdf], a report summarizing their excess heat results from the cell.
Cold Fusion Times released links to this year’s Cold Fusion 101 course content which included:
IAP 2012 Cold Fusion 101 course collageExcess power production in the Fleischmann-Pons experiment; lack of confirmation in early negative experiments; theoretical problems and Huizenga’s three miracles; physical chemistry of PdD; electrochemistry of PdD; loading requirements on excess power production; the nuclear ash problem and He-4 observations; approaches to theory; screening in PdD; PdD as an energetic particle detector; constraints on the alpha energy from experiment; overview of theoretical approaches; coherent energy exchange between mismatched quantum systems; coherent x-rays in the Karabut experiment and interpretation; excess power in the NiH system; Piantelli experiment;observed excess power in PdD and in NiH LANR systems; techniques of calibration; problems with flow calorimetry and other detection systems; importance of verification by calorimetry, heat flow, noise measurement, and thermal waveform reconstruction; Q-1-D model of loading, optimal operating manifold lessons; high impedance, codeposition, and PHUSOR aqueous LANR systems; introduction to LANR emissions, pathway control, and coupling to the electrical and propulsion systems; overview of nanomaterial and NANOR LANR systems; Prospects for a new small scale clean nuclear energy technology.
