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Biophys J, March 2002, p. 1147-1152, Vol. 82, No. 3
Department of Physics, Yale University, New Haven, Connecticut 06520-8121 USA
Many biological systems can be expected to exhibit
resonance behavior involving the mechanical vibration of system
elements. The natural frequencies of such resonances will,
generally, be in the microwave frequency range. Some of these systems
will be coupled to the electromagnetic field by the charge
distributions they carry, thus admitting the possibility that microwave
exposures may generate physiological effects in man and other species.
However, such microwave excitable resonances are expected to be
strongly damped by interaction with their aqueous biological
environment. Although those dissipation mechanisms have been studied,
the limitations on energy transfers that follow from the limited
coupling of these resonances to the electromagnetic field have not
generally been considered. We show that this coupling must generally be
very small and thus the absorbed energy is so strongly limited that such resonances cannot affect biology significantly even if the systems
are much less strongly damped than expected from basic dissipation models.
Biophys J, March 2002, p. 1147-1152, Vol. 82, No. 3
© 2002 by the Biophysical Society 0006-3495/02/03/1147/06 $2.00
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