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The inner compartment of the mitochondria is convoluted. It's shape is the result of electric forces distorting the membrane with proton flow creating the outer and inner cristae, but by two separate mechanisms. The inner membrane may be the site from the electron transport chain reactions and it is extremely negatively charged. This charge separation creates a crystal way of water containing semi-conductor properties. In fact much from the inner compartment can have the electrical properties of the PNP-junction semi-conductor as a results of this. And in this environment the negative charge field is sufficiently strong enough to break down the N region and force the protons out across the path with the outer cristae in a very column, and ejects them to the outer compartment. Once so ejected and today taken off the strong crystal P-type region these are absolve to travel back on the inner compartment but this time around along a path between your outer cristae. This is done by simple attraction of opposite charges. When they travel, they meet ATP-Synthase on the valley with the cristae. ATP-Synthase is really a port for proton and h3po4 transport into the inner membrane from the mitochondria. But there is a gift about the amino acid configuration about the head inside the inner membrane. It has a hydrphobic factor. This hydrophobic factor reduces a pocket of structured water from the extremely negatively charged inner compartment. This pocket is protonated and positively charged.
This situation represents a electric energy. ATP-Synthase draws electrons from the regions surrounding it's connected hydrophillic components as well as the electrons move into the pocket of protonated water, and H3po3.
Full Article driving reaction is that of the fuel cell. The electrons combine with the protons and oxygen to again create other more biologically important reaction is the reduction of H3po3 to make (-)po3 and hydrogen.
It appears to me that electricity could be the movement of charged particles as a consequence of charge separation. Biologically and in chemistry this frequently involves the movement of molecules which work as charge carrying units. In semi-conductors the charge carrying units are often protons or charge holes that work as the charge carriers. Your fridge and also other household appliances typically utilize electrons since the charge carriers this also will be the one we normally discuss about it. It is only convention that individuals refer to good conductors as charge carriers, since these are the ones most successful to our devices. All matter and carries charge, and demonstrates charge separation.
My model for mitochondrial operation is theoretical, but reasonable given new insights from research being conducted by my buddy Gerald Pollack. All the details usually are not fully worked out yet, but conventional theories seem much less expensive adequate. A full background is just not appropriate for this way of discourse Sparky, so I won't get a lot of into specifics. Jerry still hasn't gotten back to me for this idea yet either.
There is inferential evidence for protein, and therefore charge gradients inside the cytoplasm. The mechanism with this is Jerry's EZ water. It may not only support charge gradients but additionally dictate the spatial organization of cytoplasmic proteins and organelles. The fact that the inner compartment in the mitochondria is extremely negatively charged is surely an accepted fact of conventional thought and is already extensively recorded and supported.
Sparky, I have never actually physically visited an electron, and that just isn't required of me physically before I can claim that I understand one?
Plasma gun adds gravitus. If I said it sprayed electrons onto molecules, that wouldn't have sounded as good.
ATP-Synthase isn't a widgety extruder like press, it's a plasma gun!
velis et remis
Norman
My Website: https://controlc.com/f507e7f1
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