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I'm pretty confused by that article (did two years of chem and one of astrophysics at uni, some time ago now though), as it doesn't all add up. They don't really mention where the energy comes from in the first place.
Are they getting it by stripping a neutron from the nucleus, and then having the electron move to a newly-available degenerate orbital(that is, the lowest available energy an electron can have whilst orbiting an atom)? If so, how are they stripping the neutron? That's pretty hard to do, and takes a lot of energy (more than you'd get from dropping down an orbital).
If not, where does this hydrino come from? Is it manufactured and supplied as liquid fuel (and is it stable and safe? Does making it not take a huge amount of energy in the first place)? Is it made in-situ as part of a reaction/interaction of some sort? If so then maybe it's possible, a kind of quantum-tunnelling-in-reverese (i.e. something that's allowed by conventional but not quantum physics) phenomenon.
Maybe you only have to make a few hydrinos and it starts liberating hydrogen and oxygen from normal water, which you can then burn in a conventional manner (actually, that makes most sense from the info that's there)? Perhaps the oxygen-hydrogen bonds are weakend or strengthed significantly with a hydrino present, and that means the rest of the molecule can be split.
Also, the business model they propose sets off alarm bells for me. The first application they can think of is domestic heaters? Boilers? Seriously? They've got NASA and all of the energy companies interested, and they're going to take on the mightly Glow-worm and Potteron? That just sounds odd to me unless it's a very small scale reaction and they can't scale it well.
Obviously it'd be wonderful if it did work, but I think we need a lot more facts until we can make a judgement either way. This could be crackpot or genius, at this point we have no way of telling. |
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