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News announcements and other topics => News => Topic started by: franco malgarini on October 09, 2015, 10:05:53 AM
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With a simple reactor
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A cube of 10 cm ultra-dense deuterium weighs 120 tons
and you can make a spectacular nuclear fusion:
http://scitation.aip.org/content/aip/journal/adva/5/8/10.1063/1.4928572
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Reactor for fusion
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ramjet: nuclear fusion occurs inside the CO2 laser ...
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Self reactor physicochemical multifunction laser CO2 for various nuclear reactions also.
Mode laser mirror golden right is lifted and the laser beam comes out of the window germanium.
In this mode the reactor mirror is lowered so that the laser beam remains trapped within the tube and you can close the laser mode starting the one for emptying the various reactions CO2 with the vacuum pump and entering the reaction gas; Furthermore the diverter AT is moved to feed the thread to the pipe internal catalyst; It is actuated the coil and so on for other reactions or for the return to the laser mode
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Reactors in series
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http://scitation.aip.org/content/aip/journal/adva/5/8/10.1063/1.4928572 (http://scitation.aip.org/content/aip/journal/adva/5/8/10.1063/1.4928572)
“Heat generation above break-even from laser-induced fusion in ultra-dense deuterium.
Previous results from laser-induced processes in ultra-dense deuterium D(0) give conclusive evidence for ejection of neutral massive particles with energy >10 MeV u−1. Such particles can only be formed from nuclear processes like nuclear fusion at the low laser intensity used. Heat generation is of interest for future fusion energy applications and has now been measured by a small copper (Cu) cylinder surrounding the laser target. The temperature rise of the Cu cylinder is measured with an NTC resistor during around 5000 laser shots per measured point. No heating in the apparatus or the gas feed is normally used. The fusion process is suboptimal relative to previously published studies by a factor of around 10. The small neutral particles H N (0) of ultra-dense hydrogen (size of a few pm) escape with a substantial fraction of the energy. Heat loss to the D2 gas (at <1 mbar pressure) is measured and compensated for under various conditions. Heat release of a few W is observed, at up to 50% higher energy than the total laser input thus a gain of 1.5. This is uniquely high for the use of deuterium as fusion fuel. With a slightly different setup, a thermal gain of 2 is reached, thus clearly above break-even for all neutronicity values possible. Also including the large kinetic energy which is directly measured for MeV particles leaving through a small opening gives a gain of 2.3. Taking into account the lower efficiency now due to the suboptimal fusion process, previous studies indicate a gain of at least 20 during long periods.”
Above is an exerpt from the experiment …link above..and a diagram..
You are dead on …Thanks !!!
Acca…[/font]
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Preliminary demonstration of liebig reactor
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Cristic chemistry 13:
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Deuterium ultra dense production with deuterium lamp
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have you ever built one these ? where do you get them out ?
could you give rough calculation about effecincies ? how would be inputs to generate 15KWTr ?