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Xevqenko M..; za ta patentovlacnik Inctityt metalofiziki im.. G.B.
KKpddmova HAH Ukpa|ni. – №94148; zav. 16.06.2014, opybl.27.10.2014 p., BBl.20
H. Yu. Mykhailova et al.
10. Ebbesen TW, Lezec HJ, Hiura H, Bennett JW, Ghaemi HF, Thio T (1996) Electrical conductivity
of individual carbon nanotubes. Nature London 382(4):54–56
11. Xappic P (2003) Uglepodnye nanotpybki i podctvennye ctpyktypy. Hovye
matepialy XXI Beka / P. Xappic. – M.:Texnocfepa, 335 c
12. Axmetov AO (2010) Cictema kontpoll pabotocpocobnocti fynkcionallno
clonyx integpallnyx mikpocxem ppi ppovedenii padiacionnyx iccledovanii
/ A.O. Axmetov, D.B. Bobpovckii, P.B. Hekpacov // lektponika, mikpo- i
nanolektponika. Cbopnik nayqnyx tpydov. M.:HIIU MIFI, C.258–265
13. Kotakoski J, Krasheninnikov AV, Nordlung K (2007) Atomistic simulations of irradiation
effects in carbon nanotubes: an overview. Rad Effec Defect Solids 162(3–4):157–169
14. Wilkins R (2005) Ground-based space radiation effects studies on single-walled carbon
nanotube materials. Wilkins R, Pulikkathara MX, Khabashesku VN et al. Mater Res Soc
Sympos Proc 851:NN6.5
15. Hovikov LC (2010) Padiacionnye vozdectvii na matepialy kocmiqecko texniki
/ L.C. Hovikov. – M.: Univepcitetcka kniga, 192 c
16. Makynin AB (2011) Polimep-nanoyglepodnye kompozity dll kocmiqeckix
texnologii. Qactt 1. Cintez i cvoctva nanoyglepodnyx ctpyktyp. Uqebnoe
pocobie / A.B. Makynin, H.G. Qeqenin. – M: Univepcitetcka kniga, 150 c
17. de Jonge N, Bonard JM (2004) Carbon nanotube electron sources and applications. Philosoph
Trans Royal Soc London. 362:2239–2266
18. Ackland G (2010) Controlling radiation damage. Science 327:1587–1588
19. Patent na kopicny modell “Cpocib viznaqennn popepeqno| elektpoppovidnocti
popoxky z anizotpopip fopmi qactinok” / Hiwenko M.M., Mixalova G..,
Xevqenko M..; za ta patentovlacnik Inctityt metalofiziki im.. G.B.
KKpddmova HAH Ukpa|ni. – №94148; zav. 16.06.2014, opybl.27.10.2014 p., BBl.20