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並列摘要


The attempts to create a super long conductive channels were taken in order to study the upper atmosphere and to settle special tasks, related to solar energy transmission, accumulated by orbital solar stations. There upon the program of creation of ”Impulsar” represents a great interest, as this program in a combination with high-voltage high repetition rate electrical source can be useful to solve the above mentioned problems. The principle of conductive channel production can be shortly described as follows. The ”Impulsar”- laser jet engine vehicle - propulsion take place under the influence of powerful high repetition rate pulse-periodic laser radiation. In the experiments the CO2- laser and solid state Nd: YAG laser systems had been used. Active impulse appears thanks to air breakdown (< 30 km) or to the breakdown of ablated material on the board (>30km), placed in the vicinity of the focusing mirror-acceptor of the breakdown waves. With each pulse of powerful laser the device rises up, leaving a bright and dense trace of products with high degree of ionization and metallization by conductive nano-particles due to ablation. Conductive dust plasma properties investigation in our experiments was produced by two very effective approaches: high power laser controlled ablation and by explosion of wire. Experimental and theoretical results of conductive canal modeling will be presented. The estimations show that with already experimentally demonstrated figures of specific thrust impulse the lower layers of the Ionosphere can be reached in several ten seconds that is enough to keep the high level of channel conductivity and stability with the help of high repetition rate high voltage generator. Some possible applications for new technology are highlighted.

參考文獻


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Apollonov, V. V. and Pletnev, N. V., “Formation of extended conducting channels in atmosphere,” Quantum Electronics, Vol. 42, No. 2, pp. 130- 139 (2012).
Alexandrov, G. N., Ivanov, V. L., Kadzov, G. D., Parfenov, V. A., Pakhomov, L. M., Petrun’kin, V. Y., Podlevskii, V. A., and Seleznev, Y. G., “About possibility to enhance the lighting-protection efficiency with laser spark,” Electrichestvo, No. 2, pp. 47-48 (1980).
Apollonov, V. V., “Feasibility study of CO2- laser based lightningprotection system realization,” Optical Engineering, Vol. 44, No. 1, pp. 014302-1-014302-9 (2005).
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被引用紀錄


盧興波(2006)。設計與合成銥金屬錯合物藍光材料〔碩士論文,國立中央大學〕。華藝線上圖書館。https://www.airitilibrary.com/Article/Detail?DocID=U0031-0207200917335063

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