The communication system within the body that utilizes electrical potential differences across cell membranes and tissues to regulate cellular processes and coordinate physiological functions. These endogenous electrical fields are crucial for processes ranging from embryonic development to tissue regeneration and immune response modulation. Bioelectric signals act in concert with biochemical and hormonal signals to maintain systemic control and cellular identity.
Origin
The foundation of bioelectric signaling lies in classic electrophysiology, established by pioneers who studied the electrical properties of excitable cells like neurons and muscle fibers. Modern understanding extends this concept beyond the nervous system to include all cell types, recognizing their ability to generate and respond to changes in membrane voltage. This fundamental biological phenomenon is deeply integrated into human physiology and development.
Mechanism
The process is mediated by the precise opening and closing of ion channels and pumps embedded in the cell membrane, which control the flux of charged ions like potassium, sodium, and calcium. This movement generates a resting membrane potential, or cellular voltage, which serves as a regulatory signal. Changes in this potential can trigger cell proliferation, differentiation, or the release of hormones and neurotransmitters, linking electrical activity directly to endocrine function.
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