Morphology and high frequency bio-electric fields

TL;DR

This paper explores how oscillating electric dipoles in biological tissues can produce diverse electric field shapes, potentially influencing molecular behavior and enabling novel biological control and communication methods.

Contribution

It introduces a model for the shapes of bio-electric fields generated by oscillating dipoles and discusses their implications for molecular manipulation and information transfer.

Findings

Various field shapes, including limb-like morphologies, can be generated.

Neutral molecules can be attracted or repelled by low-field zones.

Weak forces may influence molecule deposition during growth or regeneration.

Abstract

We investigate possible shapes of the electric field, which oscillating dipoles in a certain region of biological tissue can produce in a neighboring region, or outside the tissue boundaries. We find that a wide range of shapes, including the typical morphology of limbs and appendages, can be generated as a zone of extremely low field amplitudes embedded in a zone of much larger field amplitudes. Neutral molecules with a resonance close to the frequency of the oscillating field may be attracted to this zone or be repelled from it, while the driving effect on molecules with an electric charge is only extremely weak. The forces would be sufficient for the controlled deposition of molecules during growth or regeneration. They could also serve as a method of information transfer.