cable theory to describe signal transmission in the membrane of an axon [ 12 , 13 , 14 , 15 , 16 ].
In classic cable theory, axons are treated as core conducting cylinders of finite length, where the capacitive and conductance properties of the axon membrane are modeled as a distributed-parameter electrical network [ 17 , 18 ]. Consequently, quantitative determination of the membrane actionpotential and ionic currents requires solving a boundary-value problem. This approach provides a systematic means for realistically describing the actionpotential and the
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I Scope of this Article
To present evidence that the natural constant magnetic flux quantum Φ 0 [ 4 , 5 ] is built-into the fabric of the actionpotential as per my recently published model [ 1
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