Current Flow According to the Zipon Thesis
Ok. Batteries vary - one from another. Each manufacturer uses his own variety of trace elements in the electrodes to increase the plate's efficiencies. There's no hard and fast rule. But assuming that we are talking about your average lead acid battery - then the mix - very broadly, is plates of lead, lead dioxide with a mix of sulphuric acid used as an electrolyte. Now. The sulphur bonds with the lead, and systematically during discharge the electrolyte mixture turns to pure water as the sulphur is systematically leached out of the electrolyte mix.
The zipon thesis proposes that the bonding of those electrolytes - that sulphuric acid is managed by zipons. The atomic mix - the base - is acidic - indicating that it has an imbalanced valence condition in the atoms. Then those atoms have been further bonded into molecules which, in the case of sulphuric acid would be two hydrogen atoms to four sulphur atoms. The thesis proposes that the molecules are actually bonded by these extraneous fields of zipons. The acid state indicates an imbalanced valence condition. Therefore the bonding zipon fields share that same imbalance. There are too many 'like spins' in the bonding zipon fields. Just imagine this as fields all spinning clockwise. What's needed for balance is that half the fields spin anticlockwise. Zipons always move to generate a balance. That's an immutable imperative.
By separating from the molecular bond the zipons are able to move the sulphur atom towards the elctrode. This 'breaks' the symmetry of that molecular orbit. The zipons that belong to the sulphur, then attach the suphur atom to that lead. This forms another molecule - not sure what it is but may be lead sulphate or somesuch. You'll know. Now the hydrogen atoms are unbonded from the sulphur. But the hydrogen also has it's fields of binding zipons. These are released through the electrolyte in bubbles which gravitate towards the terminals of the battery. Now it needs to incorporate the hydrogen back into the mix as this is essentially trapped within the structure of the battery. Now the zipons break their symmetries - that bonding condition holding those hydrogen atoms - they line up head to toe at the postive terminal and simply move - lickety split - through the circuit - generating that current flow. They then represent at the negative terminal, re-enter the electrolyte base and rebond the hydrogen - this time with the water in the base, thereby forming hard water. Net result - a complete neutralisation of the previously acidic condition of the electrolyte.
Now reverse that current flow and the previously acidic condition is re-established. That reversal is organised by the introduction of new fields of potential energy - this time generated from the material of the resistor. Here the symmetries are broken that half the fields are routed anticlockwise through the circuit. This is reverse current flow. That reverse path also feeds through the battery. In its passage through the battery the previous condition is simply reversed and the sulphuric acid is reconstituded.
Does that make it clear. LOL. I live in hope here Suchayo.
Originally posted by sucahyo
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The zipon thesis proposes that the bonding of those electrolytes - that sulphuric acid is managed by zipons. The atomic mix - the base - is acidic - indicating that it has an imbalanced valence condition in the atoms. Then those atoms have been further bonded into molecules which, in the case of sulphuric acid would be two hydrogen atoms to four sulphur atoms. The thesis proposes that the molecules are actually bonded by these extraneous fields of zipons. The acid state indicates an imbalanced valence condition. Therefore the bonding zipon fields share that same imbalance. There are too many 'like spins' in the bonding zipon fields. Just imagine this as fields all spinning clockwise. What's needed for balance is that half the fields spin anticlockwise. Zipons always move to generate a balance. That's an immutable imperative.
By separating from the molecular bond the zipons are able to move the sulphur atom towards the elctrode. This 'breaks' the symmetry of that molecular orbit. The zipons that belong to the sulphur, then attach the suphur atom to that lead. This forms another molecule - not sure what it is but may be lead sulphate or somesuch. You'll know. Now the hydrogen atoms are unbonded from the sulphur. But the hydrogen also has it's fields of binding zipons. These are released through the electrolyte in bubbles which gravitate towards the terminals of the battery. Now it needs to incorporate the hydrogen back into the mix as this is essentially trapped within the structure of the battery. Now the zipons break their symmetries - that bonding condition holding those hydrogen atoms - they line up head to toe at the postive terminal and simply move - lickety split - through the circuit - generating that current flow. They then represent at the negative terminal, re-enter the electrolyte base and rebond the hydrogen - this time with the water in the base, thereby forming hard water. Net result - a complete neutralisation of the previously acidic condition of the electrolyte.
Now reverse that current flow and the previously acidic condition is re-established. That reversal is organised by the introduction of new fields of potential energy - this time generated from the material of the resistor. Here the symmetries are broken that half the fields are routed anticlockwise through the circuit. This is reverse current flow. That reverse path also feeds through the battery. In its passage through the battery the previous condition is simply reversed and the sulphuric acid is reconstituded.
Does that make it clear. LOL. I live in hope here Suchayo.
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