A Part II of the Reports on the Ongoing HMD Technology Research

Main Article Content

Aliaksandr Yurievich Alevanau
Olgerd Pavlovich Kuznechik


The report continues reporting of results of an ongoing research verifying a hypothetic energy generation mechanism for reengineering of Gritskevich’s Hydro Magnetic Dynamo (HMD). The HMD technology is a patented technology for electric power generation. It was invented in Russia and deployed in a semi-industrial scale (1.5 MW power unit) in Armenia in 1992. After its successful exploitation during 5 years no more units were assembled. Nowadays the technology needs verification of its physical mechanisms for its successful reengineering. The aim of the report is to present current results of an ongoing theoretical and experimental research of hypothetic physical mechanisms providing energy generation in the unit. It is written without disclosure of its construction and technical details. Thus the theory of hypothetic energy generation mechanisms is described in a general way. The reported experimental results provide only partial support for the theory. They should be independently reproduced and verified.

Scale relativity, fracturing of nanoparticles, low energy nuclear reactions.

Article Details

How to Cite
Alevanau, A. Y., & Kuznechik, O. P. (2019). A Part II of the Reports on the Ongoing HMD Technology Research. Journal of Scientific Research and Reports, 24(3), 1-6. https://doi.org/10.9734/jsrr/2019/v24i330153
Short communication


Alevanau AY, Kuznechik OP. A report on the HMD technology related research. International Journal of Innovative Studies in Sciences and Engineering Technology. 2019;05(02):1-5.

Alevanau AY, Kuznechik OP, Vyhoniailo OI. Prospective engineering applications of dynamic transfer processes possessing the self-organized fractal interfaces. Journal of Engineering. 2013;7.
[Article ID 310748]

Gritskevitch OV. Gritskevitch’s hydro-magnetic dynamo; 2001.

Notalle L. Scale relativity and fractal space-time: Theory and applications. In proceedings of first International conference on the evolution and development of the Universe, Paris; 2008.

Feder J. Fractals, New York and London: Plenum Press; 1991.

Lipson AG, Deryagin BV, Kluev VA, Toporov YP, Sirotjuk MG, Havroshkin OB, Sakov DM. Initiation of nuclear reactions of synthesis under action of caviation on deuterium containing media. Journal of Technical Physics. 1992;62(12):121-130 (In Russian).

Cardone F, Albertini G, Bassani D, Cherubini G, Guerriero E, Mignani R, Monti M, Petrucci A, Sala V, Santoro E, Spera G. Nuclear metamorphosis in mercury. International Journal of Modern Physics B. 2015:29:1550239.

Prince August Irish Company, PA2047: Model Metal.

Notalle L. Generalized quantum potentials. J. Phys. A: Math. Theor. 2009;42:275-306.

Sanyal D, Ramachandrarao P, Gupta OP. A fractal description of transport phenomena in dendritic porous network. Chemical Engineering Science. 2006;61: 307–315.

Lu X, Tian X. Abnormal heat liberation triggered by current in a D/Pd gas-solid system. Russian Journal of Physical Chemistry A. 2015;89(8):1476-1481.

Derjaguin BV, Lipson AG, Kluev VA, Sakov DM, Toporov YP. Titanium fracture yields neutrons? Nature. 1989;341:492.

Klyuev VA, Lipson AG, Toporov YP, Deryagin BV, Lushchikov VJ, Streikov AV, Shabalin EP. High-energy processes associated with the fracture of solids. Sov. Tech. Phys. Lett. 1986;12:551-552.

Petrosyan VI. Resonance RF emission from water. Technical Physics Letters. 2005;31:(12):1007-1008.