A range of fields over the spectrum in a cell colony may control the timing of its cell cycle

A range of EM and vibrational fields across the spectrum initiated by the dielectric response of biological tissues in a colony of cells may control the timing of its cell cycle. The basis of these fields in biological tissues is the energy slide across the spectrum of their permittivity. The main features of the various field mechanisms within the cell cycle are: (1) an initial charge alignment caused by the energy slide due to the tissue permittivity of the colony; (2) a collective feedback between the colony and the central cell; (3) a superposition of fields that can act simultaneously; (4) a speedup in this initial electrostatic field due to the energy slide; (5) a diffusion and self-organization of dipolar membrane proteins near the cell's polar caps; (6) various resonances across the spectrum including the whole cell; (7) the rounding and stiffening of the cell as metaphase is approached; this enables the various specialized fields required to locate the aster poles, the centrosomes, and the microtubules; (8) a possible resonance of the chromosomes (chromatids) acting as loop antennas when the cells begin communicating with each other via UV; (9) a magnetic field that may assist in replicating the chromatid.