It has been confirmed the mitogenetic effect both in solid
and in liquid culture and it has been shown that the effect is correlated
in time to the maximum of the yeast growing rate and of ultraweak photon
emission. Moreover it has been pointed that attention must be given to
the experimental conditions, which must be analyzed and compared carefully
in order to reproduce the experiments. The controversial results in this
field could be attributed in fact to the different experimental conditions.
As it regards the SUPE from soya seeds, it has been demonstrated that
the photon emission from germinating seeds depends strongly on time, the
time dependence being different according to the physiological state of
the seeds.
Moreover the photon spectrum has two relevant contributions in the UV
and red extremes, being zero in the visible range and the different spectral
components show different time dependences, which change with the seeds
physiological state; the high yield of the UV component at the starting
of germination could be the experimental evidence of the mitogenetic radiation,
expected to be in the same spectral region.
The correlation of the emission of biophotons with the process of germination
in live seeds has been demonstrated; in fact the process of germination
and that of emission show the same dependence on temperature, giving origin
to the same activation energy, while the activation energy relative to
the emission and imbibition is different.
As a consequence of the above considerations and measurements it is
possible to state that the ultraweak luminescence induces biological effects
and thereafter has a regulatory role in the metabolism of the cell cycle.
The correlations evidenced, as well as the correlation between bioelectrical
activity in seeds and ultraweak emissions found from other researchers
[5], make one hypothesize an eventual
not necessarily biochemical approach to the understanding of the ultraweak
emission and of the behaviour of the biological systems.
Even if the specific emitters and the concrete mechanism of the biophotons
are not yet known, the results of the measurements shown consolidate the
fact that ultraweak emission is a phenomenon widespread in nature and is
connected to the fundamental processes of life.
In order to better understand the mechanism of emission it will be necessary
to explore the biological processes occurring during the growth in order
to have a better knowledge of the time dependence of other biological parameters;
is also necessary to better characterize the time dependence of the spectral
emission, which could add more information about the origin and the role
that ultraweak photon emission has in biological systems.