Form of Nerve Impulse and Its Features of Propagation Along the Nerve Fiber Cells Arising from The Bio-Energy in Living Systems

P. Feng, Z. Juan, Josephine jiang
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Abstract

We here researched the features of transport of nerve impulse along the nerve fiber using modern theory of molecular biology, in which we first elucidate the properties of structure of the nerve cell and the features of distribution of the charges for the sodium ions and potassium ions in the inner and exterior of the never cell membranes. In practice, their distributions are not uniformity, where the distribution of sodium ions and potassium ions between the inner and exterior of cell-membranes are not same, they are just inverse. Just so, an action electro-potential occurs in the cell-membranes. However, the action electro-potential is only a static impulse, it cannot propagate along the nerve organizations. If the nerve organizations are acted by the bio-energy, which could lead to the periodic variation of these sodium ions and potassium ions in the inner and exterior of the never cell membranes can be varied periodically under the action of bio-energy by the works of sodium pump and potassium pump on the surface of cell membrane, then the nerve impulse can propagate along the nerve fiber cell membranes. Our investigations verify that the bioenergy released from the hydrolyses reaction of adenosine phosphate (ATP) molecules in the cells can play the role. This chemical reaction can release the bio-energy of o.42 eV, which can be transported along the protein molecules to excite the work of se sodium pump and potassium pump. Thus, the propagation of the nerve impulse can be carried out automatically in living systems. This is just the mechanism of propagation of the nerve impulse along the nerve l fiber cel membrane. In this paper we elucidate and research in detain and deeply the mechanism of form of the nerve impulse and its features of propagation.
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生命系统中由生物能量产生的神经脉冲的形式及其沿神经纤维细胞传播的特征
本文运用现代分子生物学理论研究了神经冲动沿神经纤维的传递特征,首次阐明了神经细胞的结构特性以及钠离子和钾离子在神经细胞膜内外的电荷分布特征。在实践中,它们的分布是不均匀的,其中钠离子和钾离子在细胞膜内外的分布是不相同的,它们只是相反的。就这样,细胞膜上产生了动作电位。然而,动作电位只是一个静态脉冲,它不能沿神经组织传播。如果神经组织受到生物能的作用,就会导致细胞膜内外钠离子和钾离子的周期性变化,在生物能的作用下,通过细胞膜表面的钠泵和钾泵的作用,这些钠离子和钾离子会周期性变化,神经冲动就会沿着神经纤维细胞膜传播。我们的研究证实,细胞中磷酸腺苷(ATP)分子水解反应释放的生物能可以发挥作用。该化学反应可释放0.42 eV的生物能,该生物能可沿蛋白质分子运输,激发硒钠泵和钾泵的工作。因此,神经冲动的传播可以在生命系统中自动进行。这就是神经冲动沿着神经纤维细胞膜传播的机制。本文对神经冲动的形成机制及其传播特征进行了深入的阐述和研究。
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