*ibed as c radia- with iso~ respec- ranges tty of dheric ‘ively, ‘ors path in windows, ide with Approved For Release 2000/08/08 : CIA-RDP96-00789R003100280001-7 0 ” Fig. regions is thesis was the course flows that tion (MMR) organisms. wtzee TM ARTE 1. Np EN OE FARR RR Sem mt et ae ee rR Approved For Release 2000/08/08 : CIA-RDP96-00789R00 ie oo atin Si,, Wim*s te near 2.5, 1.7, 0.9, and 0.9 mm. 5 A A we 5 5 Nel oe eo mabe A a oy ee Ne 7 & SF 4 §$ 8 A,mm 45° 50 60 7S 10a 180 ¥,Ghe 0 188. SOO Hz Fig. 2 Fig. 3 Fig. 2. Spectral densities of radiation flows: 1) solar at T= 6000K; 2) atmosphere based on data of [4,6]. 3. Vertical attentuation of MMR as a funetion of wave- length in clear atmosphere: 1) January; 2) July. atmospheric absorption bands; the natural field background in them is minimal and is entirely determined by the proper noise radiation of the atmosphere, The spectral. FD of the natural background in these 10729 to 19719 W/(m**Hz), Based on this analysis, a hypo- advanced postulating that biological Systems, adapted in of evolution toa low-background level, can respond to EMF rise slightly above the background radiation on wavelengths Quantum energy of millimetric radia- is sufficient for inducing important bLlological processes associated with rotation of water molecules’ and oscillations of H50 lattice, rotation of terminal groups within molecules, conformation of protein molecules, etc. [1,3,10]. Estimating the potential role of MMR in biloinformational interac- tions (BII), we should note that MMR wavelengths in biological tissues are such that, even in case of a very strong MMR absorption, it can synchronize biochemical processes in single-celled and multicellular - 155 100280001-7
1 Approved For Release 2000/08/08 : CIA;RDP96-00789R003100280001 a Se Tt a oe eee te Lee eee jf td & 40 agtsa 2 60 0 0S GHz Fig. 4, Relative frequency. of seng-— ory Tesponse as a function of MMR: ) a data of Pyasetskii (see [13])3. b) our data, distances, When nonthermal-intensity MMR acted upon selected acupunctural haracteristic Sensory response was absorbed with radiation frequencies in the band of 53-78 GHz. We conducted similar tests with 116-121 Guz at radiation FD on the order of 1078 W/em®, The band includes 0, absorption line with the center near 119 GHz [15]. The He-Gu acupunctural point on the right hand was irradiated. Based on 130 tests, a distribution of the relative number of sensory response | was plotted as a function of MMR frequency (Fig. 4), Subjective re. Sponses were simtlar to those described in [13]: Parastheslas, sensa- tions of warmth, tingling, ete. Several tests were also conducted where, in similar conditions, a Sensory indication of MMR with fre- quency near 180 GHz was observed, A ped for the experiment to test the pos- ings we ween noncontiguous biological objects, masters ilters were placed between biological The tra objects, Changes in the state of the object were recorded; the bio- ; Copper logical objects thus functioned as detectors. The inductor was an oper. in iden: ator who had been found in earlier experiments to be capable of in- ducing Sensory reactions in Subjects similar to those produced by MMR. The 156 Yar nae ener etree rere -f Approved For Release 2000/08/08 : CIA-RDP96-00789R003100280001
Approved For Release 2000/08/08 : CIA-RDP96-00789RQ03100280001-7 ° 2 NR ee eR ca oh, * S 5a Fig. 5. Transmittance characteristics of gauze eal : bandpass filters: 1) no. 10; 2) no, 11; 3) no. 123 4) calculated. ‘ric and t small ural with imilar n, daz [15]. Based -sesponse : > re- ; f 2 5 4° 6 OM, 3ensa— . Fig. 6. Distribution of occurrence frequency of sensory reactions with ied BII through filters with various _ ‘re= transmittance maxima. he pos- A series of passband net filters with a honeycomb array of open- ibjects. ; ings were prepared. The filters were made from the same photographic ogical masters by photolithography and etching of 0.2—mm-thick copper foil. bio- The transmittance Characteristics of the filters are given in Fig. 5. an oper- : Copper foil screens were also used. Filters anda Screens were enclosed ine . in identical opaque paper envelopes. y MMR. The subject lay down on a couch; his entire body surface was cov- | 157 ae Approved For Release-2000/08/08 :.CIA:RDP96-00789R0031 Q0280001-7 ‘
TEPER SET nt Tan ea anna = , Fig. 7. Setup for irradiation of bacteria (a) and experiments to detect BII (b). ered with two layers of carbon fabric so that only He point on the right hand was exposed. filters in the short-wave wing at A<c0,1<dngs increases to the level of geometric transparency [9], only one sequence of filters was applied: first, the shortest-wave filter Np = 1, followed by Ne = 2,.6., N = 12. -Ge acupuncture Since the transmittance of the f Zz Thus, a Sequence of filters (F) and screens (S) was formed: SF) PSSF3SSFy,..., where the random quantities were only the number and sequence of screens, , Based on the results of the study, a distribution of subjects accurding to filter numbers was constructed (Fig. 6; the dashed curve indicates the distribution of the random process of origination of sensory responses to presentation &). In the next experiment, we attempted to discaver a difference in Pesponses of biosystems to MMR with frequencies 116-121 GHz. Proteus bacteria were irradiated, and placed in a culture medium (Fig. 7a). The hemolytic activity of irradiated bacteria was measured afte hours of incubation in a thermostat ity of the specimen. r three » 43 expressed by the optical dens- The MMR generator was readjusted in the range of 116.8-120.6 GHz to produce on the culture surface a flux density on the order of 50 uW/om, The radiation power was maintained constant within 41.5 dB; the frequency setting error was within t0.1%.. Each specimen was irradiated for 180 sec. 158 Approved For Release 2000/08/08 : CIA-RDP96-00789R003100280001-7 Fict oO 1 The ex values. Tw at each fre ated). Bac It was disc lytic activ GHz (Fig. & Simult radiation 6b (Fig. 7b). maximum at mens were ™ produced so: the human i. The st and attempt ity of such 1. Na tion bands be associat observed ex this view [ 2. Th of BII in E — nae eaten Sie Rants SoU IR’ porter « ~~~ -- naiiaaaeia Ce go RE oe ieee enn ea Sem Approved For Release 2000/08/08 : CIA-RDP96-00789R003100280001 -7
Approved For Release 2000/08/08 : CIA-RDP96-00789R603100280001-7 oe as 80 £20 9 9¥,GHe & & 8 » £ Q a7 it 119 Griz 40 20 52 aymm a b Fig. 8. Probability of hemolytic activity change by low-intensity MMR irradiation (for the threshold of likelihood ratio function Ly > 1) and variation of optical density R of specimens with Proteus "1rradiated" by hu- man inductor through filters 5 and 7. The experiment followed a randomized plan for five frequency values. Twenty bacteria samples of the same eulture were irradiated at each frequency (an additional 20 control samples were not irradi- ated). Bacterial concentration in the specimens was 108 cells/ml. It was discovered that MMR of 116-121 GHz modifted the Proteus hemo- cture lytic activity, with the maximum probability of the effect at 118.8 f the GHz (Fig. 8a). el of ; : . olied Simultaneously, an experiment was staged to study the effect of N. = radiation by the human inductor. on the activity of the same bacteria sae (Fig. 7b). Two filters (Nos. 5 and 7) were used with transmittance ser maximum at 1.9 and 2.4 mm, respectively. Through each filter 9 speci- mens were "irradiated" (with 9 control specimens). The experiment produced some increase of hemolytic activity of Proteus irradiated by ts the human inductor through a filter with Ieu=24 mm (Fig. 8b). ae The study made general analysis of the problem of BIT in EHF-band and attempted to obtain an experimental ¢onfirmation of the possibil- ity of such interactions. The following conclusions were drawn. O° ean 1. Natural EM background at frequencies of atmospheric absorp- a). tion bands in BHF—band has an absolute minimum forvz<icm. This may three be associated with a high sensitivity of biological objects to MMI dens- observed experimentally. Other investigators are inclined to share age of this view [10]. . on the 2. The experimental results are encouraging for the possibility within of BIT in EHF band. Previously, BII between biological objects have t:imen 159 CT ES ST Og NE re rene ener arene OR Meee eee - 7 Approved For Release 2000/08/08 . CIA-RDP96-00769R003100280001