O. B. Khavroshkin, V. V. Tsyplakov / Natural Scienc e 5 (2013) 1001-1005
Copyright © 2013 SciRes.
1005
we obtain K = 0.52 × 1010. That is the number of neutri-
nos interacting in the standard model with U235 (N ≈
10−9 - 10−6 particles/s.) may be increased to once and for
Nu ≈ 0.5 × 10 - 104 particles/s. Thus detected gamma
radiation measured ~102 events per second.
OPEN ACCESS
4. SOLAR NEUTRINOS, SEISMICITY
AND THE EARTH’S HEAT FLOW
(RADIOACTIVE COMPONENT)
According to various estimates, the radioactive com-
ponent of the heat flow of the Earth is about 80% of the
total energy. This component is due to the existence of
natural radioactive sources, primarily the isotopes of ura-
nium, thorium, potassium, and others [4]. Heat flow of
the Earth is 7 × 10−2 W/cm2 or 1 × 10−6 cal/cm2 sec. and
determines the energy of the Earth heat engine including
seismicity. Activity or signs of activity create a constant
background literally heterogeneous (1.5-5-fold difference
in level, Table 3, [10]). Activity the ore is much higher
but in general we can assume that the constant back-
ground given its geological volumes as well as the ore is
subject to modulation periods of natural oscillations of
the Sun. That is the heat flow as a smooth function is
perturbed by the known solar periods. And if the labora-
tory is registered as a variation of the activity the global
scale in the rock mass of the crust and mantle these
variations should show up as extra-long seismic oscilla-
tions with periods of solar oscillations. First of all, this
effect is observed and discovered in the spectra of the
Earth’s oscillations [4-12]. Reliable and accurate match
with the above model the interaction of solar neutrinos
and a heavy radioactive element of the Earth and the
Earth’s crust require the creation of a new mechanism of
the dynamics of solar—terrestrial links. On the other
hand, according to MANKO V.I. from the Ph. Inst. RAS
it is a consequence of the uncertainty relation for the
coordinate-pulse in quantum systems in thermal equilib-
rium [13]. Processes of decay and fusion in the light of
the different quantum correlations over a potential barrier
which suggests a new section for the capture of solar
neutrinos.
5. GENERAL CONCLUSIONS
The spectrum of temporal variations in the activity of
the sample Zabaikalskaya radioactive ore contains peaks
which coincide with the period of natural oscillations of
the Sun.
1) The capture cross section of the radioactive heavy
deformed nucleus in time decay increases in many orders
and is able to interact with the stream of solar neutrinos
which are modulated by own oscillations of the Sun.
2) The picks of spectrum of long-period oscillations of
the Earth exceed its own and contain peaks that match
he value with an accuracy of 1% - 3% with peaks of its
own oscillations of the Sun. The mechanism of excitation
of these oscillations is similar to the nature of variations
in the activity of a radioactive sample of ore.
3) These effects are included in the mechanisms of
interaction of the Earth—the Sun systems and impact on
seismicity; search problem of existing natural nuclear
reactor inside Earth core.
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