Long channel for energy deliver (III)
Author(s)
Victor V. Apollonov*
ABSTRACT
At present time the development of new methods of the single-wire long distance energy transfer is of great interest of science. These works are the prolongation and development of Tesla studies in the beginning of XX century. In particular, not so long ago highly effective energy transfer between two resonant circuits, connected by very thin wire (100 mkm) with more than kilometer length had been demonstrated. In these experiments Tesla type transformers with the output voltage about several ten kilovolts and output power up to 10 kW were used [1]. An effective replacement of wire by laser-plasma channel in that configuration of experiment would be the obvious improvement of demonstrated technology.
At present time the development of new methods of the single-wire long distance energy transfer is of great interest of science. These works are the prolongation and development of Tesla studies in the beginning of XX century. In particular, not so long ago highly effective energy transfer between two resonant circuits, connected by very thin wire (100 mkm) with more than kilometer length had been demonstrated. In these experiments Tesla type transformers with the output voltage about several ten kilovolts and output power up to 10 kW were used [1]. An effective replacement of wire by laser-plasma channel in that configuration of experiment would be the obvious improvement of demonstrated technology.
KEYWORDS
Lightcraft; Impulsar; Conductivity of Dust Plasma; High Power Lasers; Optical Breakdown; Shock Waves
Lightcraft; Impulsar; Conductivity of Dust Plasma; High Power Lasers; Optical Breakdown; Shock Waves
Cite this paper
Apollonov, V. (2012) Long channel for energy deliver (III). Natural Science, 4, 719-723. doi: 10.4236/ns.2012.49095.
Apollonov, V. (2012) Long channel for energy deliver (III). Natural Science, 4, 719-723. doi: 10.4236/ns.2012.49095.
References
[1] Apollonov, V.V., Sorochenko, V.R. and Shakir, Yu.A. (2009) Experimental investigation of resonance single wire line of energy transfer. Report of GPI RAS. [2] Teramobile: Site in INTERNET, French (CNRS)-German (DFG) scientific research program funded by ANR: First mobile terawatt laser in the world for atmospheric studies. [3] Apollonov, V.V. (2008) To the space by laser light. Vestnik of RANS 1. [4] Apollonov, V.V. and Vagin, Yu.S. (2009) Conducting channel creation in a non-conductive media. Patent No. 2009118874. [5] Apollonov, V.V. and Pletnev, N.V. Special features of conducting channel formation in atmosphere. In Press. [6] Apollonov, V.V. and Pletnev, N.V. (2012) Formation of extended conducting channels in atmosphere. Quantum Electronics, 42, 130. doi:1070/QE2012v042n02ABEH014762 [7] Apollonov, V.V. and Pletnev, N.V. Formation of long directed breakdown channels in the atmosphere. In Press.
[1] Apollonov, V.V., Sorochenko, V.R. and Shakir, Yu.A. (2009) Experimental investigation of resonance single wire line of energy transfer. Report of GPI RAS. [2] Teramobile: Site in INTERNET, French (CNRS)-German (DFG) scientific research program funded by ANR: First mobile terawatt laser in the world for atmospheric studies. [3] Apollonov, V.V. (2008) To the space by laser light. Vestnik of RANS 1. [4] Apollonov, V.V. and Vagin, Yu.S. (2009) Conducting channel creation in a non-conductive media. Patent No. 2009118874. [5] Apollonov, V.V. and Pletnev, N.V. Special features of conducting channel formation in atmosphere. In Press. [6] Apollonov, V.V. and Pletnev, N.V. (2012) Formation of extended conducting channels in atmosphere. Quantum Electronics, 42, 130. doi:1070/QE2012v042n02ABEH014762 [7] Apollonov, V.V. and Pletnev, N.V. Formation of long directed breakdown channels in the atmosphere. In Press.