ELFET and Shungite for EMF Protection
A unique rock of carbon and silicate minerals - from Karelia in Russia
Its uniqueness stems from the presence of hollow molecular carbon cages known as fullerenes embedded within the rock. Fullerenes (also called buckyballs) look like soccer balls – molecular hexagons and pentagons bound together in a hollow cage or tube.
The natural existence of fullerenes remained unclear until they were verified in deposits of Shungite . . . and since discovered in meteorites and in outer space. In 1991, Science magazine named fullerenes “molecule of the year,” calling them “the discovery most likely to shape the course of scientific research in the years ahead.” Scientists everywhere are researching fullerenes for their technological applications in material science, electronics, and nanotechnology. An entire “family” of buckyballs are known today – from 32-carbon atoms (C32) to giant fullerenes with 960 carbon atoms (C960). Fullerenes resonate in the far infrared spectrum with all forms of living matter. They are thought to be connected with the generation of life
Fullerenes in Shungite
The rock deposit found in Russia (Shungite) is the only known natural source of fullerenes on Earth (with the exception of a few meteorites). The rock has been studied extensively by Russian scientists, but only within the last few years has information regarding Shungite reached the Western world. According to Russian and Ukrainian research, fullerene-rich Shungite has the ability to neutralize numerous forms of negative energy. It attenuates electromagnetic emissions essentially providing protection from electromagnetic fields.
Black Shungite
Contains 40-80% carbon – unpolished it has a dull appearance very much like coal.
This is the material used for the Pendants, Bracelets and other items for the additional step in structuring of drinking water.
Elite Shungite
A higher grade referred to as silver Shungite – has a carbon content of 80% or more (and a correspondingly higher fullerene content). It is shiny and looks very much like the mineral known as galena.
Only 1% of Shungite is in this form.
Both grades will work to enhance water but the silver elite/noble form works much faster.
While elite/noble Shungite has a higher concentration of carbon (and fullerenes), it is brittle and does not lend itself to cutting and shaping for jewelry.
You can also do your own further research on the various grades and other technicalities.
Please Note - before looking at our uses of Shungite :
- All Shungite products give off some black residue – it is normal.
- Clean any rocks/pebbles before putting them into your water.
Polished Shungite Eggs and Spheres
Shungite Pendants
Polished Shungite Pyramids
Bracelet and Necklace Spheres
Polished Shungite Squares
Shungite for Drinking Water:
In our application – only to further enhance the structure and vibration of the water – NOT to sterilize water!
Its ability to enhance water goes far beyond filtration, as demonstrated by the water from lake Onega near the Shungite deposit in Russia. Water from the lake can be used for drinking without any prior treatment – the result of thousands of years of interaction with Shungite. One of the reasons Shungite has the ability to neutralize contaminants is because the fullerenes within its composition can hold a tremendous amount of hydrogen. The stone has been documented to have a high oxidative/reductive capacity. Shungite water is known for its antioxidant effects.
Shungite is one of Mother Earth’s finest gifts for cleansing the environment. It works equally well for cleansing the human body. When water made with Shungite is consumed, it balances and gently cleanses.
How to use Elite Shungite to make fullerene-rich/hydrogen-enhanced water
- Use clean water (not tap – but at least filtered)
- Add some pebbles of Elite Shungite to your water – Approx 3-5 stones per 2l of water
Allow to mature for 3 hours or overnight prior to consuming.
It is best to leave Shungite in the water until it is consumed. This helps to maintain the fullerene-like structure and the hydrogen in the water.
Cleansing Shungite
Nature continually cleanses Shungite in the Earth’s energetic field and in the sunlight. It can be discharged, recharged and reused indefinitely by placing it on the Earth in direct sunlight. Every 3-6 weeks, depending on your water quality.
How does Shungite stone absorb EMF radiation?
Shungite stone has two properties in the fight against EMF radiation.
Shungite is an emf protector stone, it is a natural composite that has the properties of absorption and dispersion of EMF waves. These protective properties are associated with its unusual structure. The structure of Shungite is a quartz matrix (made of silicon dioxide) inside which carbon flakes are scattered. This is a special carbon of the highest allotropic form containing fullerenes and other nanoparticles. In addition, the quartz matrix is doped with micro-sized metals. With these properties, Shungite lends itself as an excellent EMF protector.
How to use Shungite for EMF protection?
In short, Shungite can be used to protect against EMF – in the home and individually.
On or next to these devices, put a Shungite stone, pyramid, a or a cube to absorb EMF radiation
In the home
- Usually these are Wi-Fi routers and repeaters
- Your home computer.
Personally
- Pendants
- Bracelets
- Protective discs for the phones
Shungite EMF Research
The protective properties of Shungite stone have been studied by many scientists and analyzed in research. The Shungite EMF protection properties were measured using very precise and expensive scientific equipment. Shungite studies were carried out in the UHF range from 8 to 70 GHz [19]. As a result, it turned out that Shungite has a very high level of electromagnetic protection. Shungite almost completely absorbs microwave radiation even with a stone thickness of hundreds and even tens of microns.
The shielding ability of Shungite is confirmed by patents of the Russian Federation and the United States (patent of the Russian Federation No. 2255866 from 2005), US Pat. No. 6818821 from 2004, US Pat. No. 6937184 of 2005).
Moreover, in Shungite, the shielding ability increases with an increase in the frequency of electromagnetic oscillations, while in metal structures it decreases from frequencies above 5 GHz [12].
Let us cite as an example study the Shungite emf protection of the Russian candidate of physical and mathematical sciences Rodionov V.V. He proofs that natural Shungite absorbs microwaves in the 12.6 – 40 GHz range from 9.5 to 44.5 dB
Shungite EMF test
There are also many studies of Shungite-based protective composites against EMF [14, 15, 16, 17]. Based on which, the Shungite emf protection in the range of 0.5-18 GHz with a shielding efficiency from –10 dB to –30 dB has been proved [18]. Also proof the high efficiency of Shungite shielding of microwave waves in the UHF range from 8 to 70 GHz [19].
How does Shungite work against EMF at its structural level?
Reflection and scattering of the EMF wave in Shungite works at the structural nanoscale. The EMF wave passes through Shungite and is attenuated in it due to the loss of dielectric resistance due to the silicon frame. In its turn, Shungite also absorbs EMF radiation due to eddy currents in conducting layered carbon nanoparticles of fullerenes and fullerites. Wherein, multiple re-reflection of EMF waves occurs in lamellar carbon nanoparticles. In this case, the dissipation (conversion of particle energy into heat) of microwave energy will increase. This will happen precisely due to multiple passages of waves inside the Shungite carbon nanoparticles.
Therefore, complex absorption mechanisms work in Shungite, which depend on the structure of Shungite. Fullerenes C60 and other nanocarbon inclusions in Shungite operate at the level of nanoscale electromagnetism. Which is significantly different from classical electromagnetism. Thus, science has proven the ability of Shungite to absorb EMF waves, and reflect, as well as scatter waves in its thickness
Futher INFORMATION
Scientific sources:
[1] Bernhardt J.H., 1979, 1984
[2] – Works of Soviet authors Drochigina NA, Sadchikova MN, 1964; Konchalovskaya N.M. et al., 1964; Sokolov V.V. et al., 1964; Belova S.F., 1968; Vermel A.E., Sadchikova N.M., 1983, etc., V.V. Antipov et al., 1980.
– Monographs and reviews Gordon ZV, 1966; thematic collections of Scientific Research Institute GT and PZ of the USSR Academy of Medical Sciences 1960, 1964, 1968, 1972.
– R.A. Williams and Th.S. Webb (1980)
– Kallen Ð’. et al., 1982
-Imerov N.F., Suvorov G.A. “Physical factors of the industrial and natural environment. Hygienic Assessment and Control . – Moscow Medicine, 2003
[3] Siekierzynski H. M., Czerski P. et al., 1974, S. Hamburger et al., 1983, Szmigielski S., Pool R., 1990.
[4] Interview Oleg GRIGORIEV, Director of the Center for Electromagnetic Safety, Deputy Chairman of the Russian National Committee for Protection against Non-Ionizing Radiation, member of the Scientific Advisory Committee of the WHO International Electromagnetic Project.
[5] Jushkin N. P. Globular supramolecular structure shungite data scanning tunneling microscopy Reports. Acad. Science USSR. 1994. Vol. 337, № 6. P. 800–803 [in Russian].
[6] VI All-Russian conference on nanomaterials with elements of a scientific school for young people. Moscow. From 22 to 25 November 2016 The Collection of materials, page 413
[7] Moshnikov I.A., Kovalevsky V.V., Lazareva T.N., Petrov A.V. The use of shungite rocks in the creation of radio-shielding composite materials. Proceedings of the meeting “Geodynamics, magmatism, sedimentogenesis and minerageny of north-west Russia. Petrozavodsk Institute of Geology, KarRC RAS. 2007.S. 272-274.
[8] Lynkov L.M., Mahmud M.Sh., Krishtopova E.A. Screens of electromagnetic radiation based on powdered shungite. Bulletin of Polotsk State University. Series C. Fundamental Sciences. Novopolotsk PSU. 2012. No. 4. S.103-108.
[9] Sokolov V.A., Kalinin Yu.K., Dyukkiev E.F. (ed.). Shungite is a new carbonaceous raw material. Petrozavodsk Karelia. 1984
[10] Rodionov V.V. Mechanisms of interaction of microwave radiation with nanostructured carbon-containing materials. Dissertation for the degree of Ph.D. Kursk. 2014.
[11] Golovanov O.A., Makeeva G.S., Rinkevich A.B. Interaction of electromagnetic waves with periodic lattices of micro- and nanoribbons of graphene in the terahertz range. ZhTF. 2016.V.86. # 2. Pp. 119-126.
[12] D.V. Tyulnin. TO THE QUESTION OF PRIORITY AREAS PRACTICAL USE OF SHUNGITE RAW MATERIALS Seminar No. 7. 2010
[13] V.V. Rodionov Mechanisms of interaction of microwave radiation with nanostructured carbon-containing materials. Dissertation for the degree of candidate of physical and mathematical sciences Kursk, 2015.
[14] Mechanisms of microwave absorp-tion in carbon compounds from shungite S.G. Emelyanov, A.P. Kuzmenko, V.V. Rodionov, M.B. Dobromyslov Journal of Nano- and Electronic Physics. 2013. Vol. 5, N 4. Р. 04023-1 – 04023-3.
[15] Carbon nanostructured formations from shungite A.P. Kuzmenko, V.M. Emelyanov, V.E. Dreizin, S.A. Efanov, V.V. Rodionov News of the South-West State University. 2012.Vol. 2, No. 41, part 1. S. 97-102.
[16] Influence of structural features and physico-chemical properties of metal-carbon nanocomposites with ferromagnetic metal inclusions on microwave radiation A.P. Kuzmenko, L.V. Kozhitov, D.G. Muratov, V.V. Rodionov, A.V. Popkova, E.V. Yaku-shko, M.B. Dobromyslov Journal of Nano- and Electronic Physics. 2017. Vol. 6, N 3. P. 03024-1 – 03024- 5.
[17] Graphene-based microwave absorb-ing composites A review and prospective F. Meng, H. Wang, F. Huang, Y. Guo, Z. Wang, D. Hui, Z. Zhou Composites Part B Engineering. 2018. Vol. 137. Ð . 260-277.
[18] Abdulhadi H. D. A., Belousova E. S., Prudnik A. M., Lynkou L. M. Mechanical and electromagnetic properties of shields on the base of needle-punched material with conductive and dielectric coatings. Proceedings of the National Academy of Sciences of Belarus.Physical-technical series, 2019, vol. 64, no. 1, pp. 44–50.
[19] A model representation of the microstructure, conductivity and microwave properties of graphene-containing shungite. Journal of Radio Electronics. 2017. No. 9.
[20] Golubev E.A. AFM study of aggregates of carbon nanoparticles from aqueous colloidal solutions of shungites and fullerenes E. A. Golubev, N. N. Rozhkova, V. N. Filippov Surface. – 2007. – No. 10. – S. 47-52.
[21] Yushkin N.P. Globular supramolecular structure of shungite data of scanning tunneling microscopy Dokad Academy of Sciences CCCP. 1994. T. 337. No. 6. P. 800–803.
[22] Emelyanov, S.G. Mechanisms of microwave absorption in carbon compounds from shungite [text] S.G. Emelyanov, A.P. Kuzmenko, V.V. Rodionov, M.B. Dobromyslov Journal of Nano- and Electronic Physics. — 2013. — Vol. 5., № 4. — P. 04023-1 – 04023-3.
[23] Kuzmenko, A.P. Microwave absorption mechanisms in carbon compounds from shungite [text] A. P. Kuzmenko, V.V. Rodionov, S. G. Emelyanov Physics and technology of nanomaterials and structures collection of scientific articles of the International Scientific and Practical Conference.– Kursk, 2013.– P. 23 – 25.
[24] Kuzmenko, A.P. Shielding of microwave radiation with carbon nanomaterials [text] A.P. Kuzmenko, V.V. Rodionov Information-measuring diagnostic and control systems. Diagnostics – 2013 Sat. materials III Intern. scientific and technical Conf. – Kursk, 2013. – S. 128 – 135.
[26] International Electrotechnical Commission (IEC) and (CISPR) Special International Committee on Radio Interference (CISPR) a huge research work is carried out in the creation of a regulatory framework in the field of EMC, means and materials are created to protect against electromagnetic disturbances. [25] The Federal Communications Commission fcc.gov5G.
[27] Electromagnetic absorbers based on fire-resistant paints with powder filler. D.N. Lisovsky, M.Sh. Mahmud, G.A. Vlasova, T.A. Pulko. Belarusian State University of Informatics and Radioelectronics. P. Brovki 6, Minsk, 220013, Belarus Received March 27, 2012.
[28] Decorating material based on shungite for protection biological objects from electromagnetic fields M.Sh. Mahmud, E.S. Belousova, A.A. Kazeka, A. M. Pudnik Belarusian State University of Informatics and Radioelectronics. P. Brovki, 6, Minsk, 220013, Belarus. Received October 11, 2014.
[29] Shungite-based nanostructured screens of electromagnetic radiation, E.S. Belousova abstract for the degree of Candidate of Technical Sciences, Mink 2015, Belarusian State University of Informatics and Radioelectronics.
[30] PROTECTION OF RESIDENTIAL SPACES FROM ELECTROMAGNETIC FIELDS AND IONIZING RADIATION. Article in the collection CONSTRUCTION-2014 modern problems of industrial and civil construction. FGBOU VPO Rostov State University of Civil Engineering (Rostov-on-Don), 2014
Most importantly, the advantages of natural stone are that the shungite EMF protection properties of the stone are manifested even at the smallest thickness of the mineral.
[31] ELECTRONIC STRUCTURE OF COMPLEXES CONSISTED OF FULLERENES, THEIR FRAGMENTS, AND SILICON DIOXIDE NANOPARTICLES
Zavodinsky Victor G., Institute for Materials Science of the Russian Academy of Sciences, Khabarovsk, Russia
Kuz’menko Alexander P., South-West State University, Kursk, Russia
[32] Electromagnetic wave absorption material and an associated device, https://patents.google.com/patent/US6818821B2/en