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What you think?

These muscle ATPace enzymess (myoATPace; named here to distinguish from other ATPace's) speeds up this reaction, as all good enzymes do, but a dead body does not lose its myoATPace on death, so why doesn't the muscle contract at random intervals during this environment prime for spontaneous ATP disassociation? Perhaps this is controlled by the lack of neural impulse, the lack of sarcoplasmic reticulum activation, the lack of calcium release, and the lack of a binding site from the rotation of tropomyosin.

These muscle ATPace enzymes (myoATPace; named here to distinguish from other ATPace's) speeds up this reaction, as all good enzymes do, but a dead body does not lose its myoATPace on death, so why doesn't the muscle contract at random intervals during this environment prime for spontaneous ATP disassociation? Perhaps this is controlled by the lack of neural impulse, the lack of sarcoplasmic reticulum activation, the lack of calcium release, and the lack of a binding site from the rotation of tropomyosin.

What if the muscle and ATP hydrolysis are not analogous to a combustion engine? What if instead the energy we get is not from the creation of energy with the byproducts of ADP and PO4, but from the creation and specific binding sites of ADP and PO4 alteration to the molecular environment of the myosin head? The alteration of structure from the generation and the specific reattachment sites of the ADP and PO4 supported by myoATPace on the myosin promote the necessary environment to essentially activate an electrochemical Rube Goldberg machine. This machine would be based off of quantum electromagnetic forces produced (i.e. electron driven machine) as opposed to the caloric forces from hydrolysis (i.e. heat-driven machine).

What if the muscle and ATP hydrolysis are not analogous to a combustion engine? What if instead the energy we get is not from the creation of energy with the byproducts of ADP and PO4, but from the creation and specific binding sites of ADP and PO4 altering the molecular environment of the myosin head? The alteration of structure from the generation and the specific reattachment sites of the ADP and PO4 supported by myoATPace on the myosin promote the necessary environment to essentially activate an electrochemical Rube Goldberg machine. This machine would be based off of quantum electromagnetic forces produced (i.e. electron driven machine) as opposed to the caloric forces from hydrolysis (i.e. heat-driven machine).