Consider the impact of the flow of protons with energy E = 10²⁰ eV the atmosphere. The number of substances covered by the proton can be found from the following considerations.

t = 1000 g/cm².

The path length of the proton, relatively strong nuclear interaction [4]:

λ = 70 g/cm² ,

The coefficient of inelasticity [2,3]:

K = 0,5,

that is, the proton is experiencing about 15 interactions.

Therefore, energy released from a single particle is:

∆W = 10 J.

With the passage of primary cosmic particles in the environment as a result of strong, weak nuclear and electromagnetic interactions in the atmosphere generated by the electromagnetic avalanche [4].

The number of secondary particles (N_s) in the atmosphere at sea level, the development of the cascading process is determined from the experimental dependence [3]:

lgN_s=lgρ_{_600}+4,44-lg(b-2)+b 0,98

where b=φ(θ,ρ_{_600}) -dependence, determined from the measurement data with a value р_6оо = (2,0-20,0) cm^-2 in the range of Zenith angles

θ = 0° - 45°:

b=3,54-of 2.16(1-cos)+0,15lgρ_{_600} .

Values р_6оо given the mileage of the absorption is known from measurements, find the average function of the spatial distribution (lateral distribution) of charged particles [4]:

f(r)= (N_0 (b-2))/(2πr_{_0}^2 )(〖r/r_{_0} )〗^(-1) 〖(1+ r/r_{_0} )〗^(-(b-1)) m^(-2) ,

where go - malerovsky radius, an average of t_h ≈ 70 m; Ns is the average number of charged particles that characterize the ensemble of showers with р_6оо [3].

The main contribution of secondary particles in extensive air shower at the boundary air - to-ground, NAAA a distance of 0.5 m from the shower axis. One proton can create up to 10¹¹ secondary particles [3].

The flux density of secondary particles is ≈10⁵ m^-2 .

The result is a cascade development of electromagnetic avalanches from each particle is formed of ≈108 secondary nucleons and mesons. Thus, the released energy is ≈10²⁷ eV.

Given the flow of secondary particles created in the atmosphere, the total energy released would amount to 10³² eV.

Each proton produces an energy of ≈10 MeV.

The Coulomb barrier for protons is E = K*q2/r (2 MeV).

Consequently, the protons closer to the distance less 1ферми that creates a condition for a thermonuclear fusion reaction:

H₁² + H₁²→ Не₂³+ n₀¹ + E

The speed of the particle v₀ = ßc, where the relative speed β = 1, the speed of propagation of electromagnetic signal in the medium v = C/n, where n > 1.

That is, v₀ > v.

As a result, the processes of thermonuclear fusion are coherent, with a volume of ≈ 0.5 m³ instantly energy ≈ 10¹³ joules.

That is microthermometry an explosion inside the considered volume. Medium temperature will be ≈ 10⁵ K.

For dry wood creates the fire.

Consider the number of fires over the summer period.

The intensity of the flux of primary particles with enegia 10²⁰ eV is

10^-16 s^-1 cm^-2.

The taiga area of about 10⁷ m². Therefore, in the year of 10² possible cases. Within six months, - 50 cases.

Conclusion.

The conclusion is that one of the possible causes of fires in the taiga is a super dynamic effects of the particles on the environment.

2. Sokurov V. F. a Stream of high-energy particles and the flow very low-frequency signals in the atmospheric surface layer // Izvestiya vuzov. The North Caucasus region. Natural science. Rostov n/D, No. 5. 2008. S. - 40.

3. Sokurov V. F. Research of a stream of cosmic rays a radar-tracking method. THE JOURNAL "INTERNATIONAL JOURNAL OF APPLIED AND FUNDAMENTAL RESEARCH"SSN 1996-3955) , 2013, Munich.

4. Linsley J. Total Flux. / J. Linsley; L. Scarey. // Phys. Rev. 128, 1962. – R. 2384