Experimental electrical resistivity of liquid carbon in the temperature range from 4800 to ∼20,000 K

Carbon

Volumn 47, Issue 10, 2009, Pages 2322-2328

  Savvatimskiy, A I ^a  

^a JOINT INSTITUTE FOR HIGH TEMPERATURES   (Russian Federation)

Author keywords

[No Author keywords available]

Indexed keywords

CONSTANT VOLUMES; ELECTRICAL RESISTIVITY; HEAT CAPACITIES; HEATING PROCESS; HIGH DENSITY; INPUT ENERGY; LIQUID CARBON; PYROLYTIC GRAPHITE; SAPPHIRE TUBES; SEMI-METAL; TEMPERATURE RANGE; TRANSITION TEMPERATURE;

CORUNDUM; ELECTRIC RESISTANCE; GRAPHITE; LIQUID METALS; SAPPHIRE;

SUPERCONDUCTING TRANSITION TEMPERATURE;

EID: 67349275449     PISSN: 00086223     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.carbon.2009.04.009     Document Type: Article

References (32)

1. Bundy F.P. Melting of graphite at very high pressure. J Chem Phys 38 3 (1963) 618-630
2. Bundy F.P. The P, T phase and reaction diagram for elemental carbon, 1979. J Geophys Res 85 B12 (1980) 6930-6936
3. Bundy F.P. Pressure-temperature phase diagram of elemental carbon. Physica A 156 1 (1989) 169-178
4. Bundy F.P., Basset W.A., Weathers M.S., Hemley R.J., Mao H.K., and Goncharov A.F. The pressure-temperature phase and transformation diagram for carbon; updated through 1994. Carbon 34 (1996) 141-153
5. Togaya M. Pressure dependences of the melting temperature of graphite and the electrical resistivity of liquid carbon. Phys Rev Lett 79 (1997) 2474-2477
6. Togaya M. Electrical resistivity of liquid carbon at high pressure. In: Manghnani M.H., Nellis W.J., and Nicol M.F. (Eds). Science and technology of high pressure, proceedings of AIRAPT-17 (2000), University Press, Hyderabad, India 871-874
7. Togaya M. Behaviors of liquid carbon at high pressure. In: Brazhkin VV, et al. editor. New kinds of phase transitions: transformations in disordered substances, Kluwer Academic Publishers; 2002. p. 255-66.
8. Savvatimskiy A.I. Melting point of graphite and liquid carbon. Physics - Uspekhi 46 12 (2003) 1295-1303
9. Savvatimskiy A.I. Measurements of the melting point of graphite and the properties of liquid carbon (a review for 1963-2003). Carbon 43 6 (2005) 1115-1142
10. Savvatimskiy A.I. Liquid carbon density and resistivity. J Phys: Condens Matter 20 (2008) 114112 6p
11. Pottlacher G., Hixson R.S., Melnitzky S., Kaschnitz E., Winkler M.A., and Jager H. Thermophysical properties of POCO AXF-5Q graphite up to melting. Thermochim Acta 218 (1993) 183-193
12. Korobenko V.N., Savvatimski A.I., and Cheret R. Graphite melting and properties of liquid carbon. Int J Thermophys 20 4 (1999) 1247-1256
13. Musella M., Ronchi C., Brykin M., and Sheindlin M. The molten state of graphite: an experimental study. J Appl Phys 84 (1998) 2530-2537
14. Yu B.A., Brykin M.V., Yu M.M., Pakhomov I.S., and Sitnikov S.F. Methods of increasing the measurement accuracy during the experimental determination of the melting point of graphite. High Temp 42 1 (2004) 60-67
15. Leider H.R., Krikorian O.H., and Young D.A. Thermodynamic properties of carbon up to the critical point. Carbon 11 (1973) 555-563
16. Lebedev S.V., and Savvatimskiy A.I. Investigation of metals and graphite under conditions of rapid electric heating. In: Sheindlin A.E., and Fortov V.E. (Eds). Thermal physics reviews, section B vol. 5 (1993), Harwood Academic GmbH, Yverdon, Switzerland 1-79 Part 3
17. Savvatimskiy A.I., Fortov V.E., and Cheret R. Thermophysical properties of liquid metals and graphite, and diamond production under fast heating. High Temp - High Pressure 30 (1998) 1-18
18. Bityukov V.K., and Petrov V.A. Absorbed coefficient of alumina melts. Prikladnaya Fizika 4 (2007) 18-34 [in Russian]
19. Abrevaya H., and Nordine P.C. Evaporation and energy transfer for partially molten, laser-heated sapphire filament. J Am Ceram Soc 71 7 (1988) 546-553
20. Regel A.R., and Glazov V.M. Physical properties of electronic melts. Nauka 136 (1980) 1-295 [Moscow (in Russian)]
21. Tumanov AT, Portnoi KI. Refractory materials in machine-building (reference book), "Mashinostroenie"; 1967 [Moscow (in Russian)].
22. Gurvich L.V., Veitz I.V., Medvedev D.F., et al. Thermodynamic properties of individual substances. Nauka 3 2 (1981) 1-395 [in Russian]
23. 3 in the melting region. Int J Thermophys 15 2 (1994) 309-316
24. Shpil'rain E.E., Kagan D.N., Barhatov L.S., and Zhmakin L.I. The electric conductivity of alumina near the melting point. High Temp - High Pressure 8 (1976) 177-181
25. Telegin G.P., Romanov A.I., Peletskii V.E., Akopov F.A., Sheider S., Negas T., et al. Investigation of thermophysical properties of refractory materials used in MHD generator channels. High Temp - High Pressure 8 (1976) 199-208
26. Ten Cate J., Zwart J., and Van Zytveld J.B. Electrical resistivity and thermopower of europium and ytterbium in the solid and liquid phases. J Phys F: Metal Phys 10 (1980) 669-676
27. Wilthan B., Cagran C., and Pottlacher G. Combined DSC and pulse-heating measurements of electrical resistively and enthalpy of tungsten, niobium, and titanium. Int J Thermophys 26 4 (2005) 1017-1029
28. Ivanov V.V., Lebedev S.V., and Savvatimskiy A.I. The resistivity's peculiarities of liquid tungsten in the confined volume and under free expansion. Teplofizika Vysokikh Temperatur 20 6 (1982) 1093-1097 [in Russian]
29. Cusack N.E. The electronic properties of liquid metals. Rep. Prog. Phys. 26 (1963) 361-393
30. Gunhterodt H.-J., Hauser E., Kunzi H.U., Evers R., and Kaldis E. Negative temperature coefficients of electrical resistivity: the divalent liquid metals Eu, Yb, and Ba. J Phys F: Metal Phys 6 8 (1976) 1513-1522
31. Neaton J.B., and Ashcroft N.W. Pairing in dense lithium. Nature (Letters to Nature) 400 (1999) 141-144
32. Maksimov E.G., Magnitzkaya M.V., and Fortov V.E. Non-simple behavior of simple metals at high pressure. Physics - Uspekhi 175 8 (2005) 793-813