Specific structure of convection currents in the system layered intrusion-feeding conduit-parental magma chamber

Russian Geology and Geophysics

Volumn 48, Issue 12, 2007, Pages 1037-1045

  Bazarov, L Sh ^a   Gordeeva, V I ^a   Petrushin, E I ^a  

^a SOBOLEV INSTITUTE OF GEOLOGY AND MINERALOGY   (Russian Federation)

Author keywords

convection; Experiment; intrusion; melt; modeling

Indexed keywords

CONVECTION; CRYSTALLIZATION; HEAT TRANSFER; HYDRODYNAMICS; LAYERED INTRUSION; MAGMA CHAMBER; MASS TRANSFER; STEADY-STATE EQUILIBRIUM; STRATIFICATION;

EID: 36249004919     PISSN: 10687971     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.rgg.2007.11.003     Document Type: Article

References (43)

1. Ariskin, A.A., Barmina, G.S., 2000. Modeling of Phase Equilibrium During Crystallization of Basaltic Magmas [in Russian]. Moscow.
2. Ariskin A.A., and Frenkel M.Ya. Computer-aided modeling of fractional crystallization of basic silicate melts. Geochemistry 3 (1982) 338-356
3. Bartlett R.W. Magma convection, temperature distribution, and differentiation. Amer. J. Sci. 267 (1969) 1067-1082
4. Bazarov L.Sh., Drebuschak T.N., Gordeeva V.I., and Urakaev F.Kh. Numerical modeling of dynamics of homogeneous nucleation of β-quartz and diamond. Dokl. RAN 356 2 (1997) 238-240
5. 3) crystals in homogeneous media. J. Crystal Growth 206 (1999) 75-80
6. Bazarov L.Sh., Gordeeva V.I., Petrushin E.I., and Sobolev N.V. New experimental data on the structure of convective flows in natural system including a basic layered intrusion, conduit, and parental magma chamber. Dokl. Earth Sci. 403A 6 (2005) 841-843
7. Bazarov L.Sh., Gordeeva V.I., Shevchenko V.S., and Petrushin E.I. Experimental modeling of the effect of convection of mass crystallization in the volume of a flat magma chamber. Dokl. Earth Sci. 380 7 (2001) 821-823
8. Bazarov L.Sh., Gordeeva V.I., Shevchenko V.S., and Petrushin E.I. Experimental modeling of processes of mass crystallization in the volume of a flat "magma" chamber. Petrology 10 5 (2002) 532-542
9. Brandeis G., and Jaupart C. On the interaction between convection and crystallization in cooling magma chambers. Earth Planet. Sci. Lett. 77 (1986) 345-361
10. Brandeis G., and Marsh B. The convective liquidus in solidifying magma chamber: a fluid dynamic investigation. Nature 339 (1989) 613-616
11. Campbell I.H. Some problems with the cumulus theory. Lithos 11 (1978) 311-323
12. Dobretsov N.L., and Kirdyashkin A.G. Deep-Level Geodynamics [in Russian] (1994), Izd. SO RAN, NITS OIGGM SO RAN, Novosibirsk
13. Dobretsov N.L., Kirdyashkin A.G., and Kirdyashkin A.A. Deep-Level Geodynamics [in Russian] (2001), Izd. SO RAN, Novosibirsk
14. Elder G. Quantitative laboratory studies of dynamical models of igneous intrusions. In: Newall G., and Rast N. (Eds). Mechanism of Igneous Intrusion (1970) (Russian translation: 1972, Mir, Moscow, pp. 213-229)
15. Frenkel M.Ya. Thermal and Chemical Dynamics of Basic Magma Differentiation [in Russian] (1980), Nauka, Moscow
16. Frenkel M.Ya., Yaroshevsky A.A., Ariskin A.A., Barmina G.S., Koptev-Dvornikov E.V., and Kireev B.S. Dynamics of Basic Magma Chamber Differentiation [in Russian] (1988), Nauka, Moscow
17. Green D., and Ringwood A. An experimental investigation of the gabbro-eclogite transformation and its geological applications. Petrology of Upper Mantle. Dept. Geophys. Geochem. Austral. Nat. Univ. Publ. 444 (1966) 1-59 (Russian translation: 1968, Mir, Moscow, pp. 9-117)
18. Hess H.H. Stillwater igneous complex, Montana: a quantitative mineralogical study. Men. Geol. Soc. Amer. 80 (1960)
19. Huppert H.E., and Sparks R.S.J. Double-diffusion convection due to crystallization in magmas. Ann. Rev. Earth Planet. Sci. 12 (1984) 11-37
20. Huppert H.E., and Turner I.S. A laboratory model of a replenished magma chamber. Earth Planet. Sci. Lett. 54 (1981) 144-152
21. Irvine T.N. Rocks whose composition is determined by crystal accumulation and sorting. In: Yoder H.S. (Ed). The Evolution of the Igneous Rocks (1979), Princeton University Press, Princeton (Russian translation: 1983, Mir, Moscow, pp. 241-300)
22. Jaupart C., and Tait S. Dynamics of differentiation in magma reservoirs. J. Geophys. Res. 100 9 (1995) 17615-17636
23. 2O binary eutectic system. J. Volcan. Geotherm. Res 96 3-4 (2000) 161-174
24. Kushiro I. Fractional crystallization of basaltic magma. In: Yoder H.S. (Ed). The Evolution of the Igneous Rocks (1979), Princeton University Press, Princeton (Russian translation: 1983, Mir, Moscow, pp. 172-202)
25. Likhachev A.P. Layering and ore content of intrusion complexes are the result of formation of magma system under condition of seismogravity effect. Petrology 8 6 (2000) 634-649
26. Lowell R.P. Double-diffusive convection in partially molten silicate systems: Its role during magma chambers. J. Volcan. Geotherm. Res 26 1-2 (1985) 1-24
27. Mangan M.T., and Marsh B.D. Solidification front fractionation in phenocryst-free sheet-like magma bodies. J. Geol. 100 (1992) 605-620
28. McBirney A.R., and Noyes R.M. Crystallization and layering of the Skaergaard intrusion. J. Petrol. 20 (1979) 487-554
29. Naslund H.R. Mineralogical variations in the upper part of the Skaergaard intrusion, East Greenland. Carnegie Inst. Wash. Yearbook 75. Washington, D.C. (1977) 640-644
30. Persikov E.S. Viscosity of Magma Melts [in Russian] (1984), Nauka, Moscow
31. ie, Paris (1970) (Russian translation: 1972, Plutonic Rocks. Mir, Moscow)
32. Sharkov E.V. Formation of Layered Intrusions and Related Ore Mineralization [in Russian] (2006), Nauchnyi Mir, Moscow
33. Sharkov E.V. Petrology of Layered Intrusion [in Russian] (1980), Nauka, Leningrad
34. Sharkov E.V., and Bogatikov O.A. Layered Basic Intrusions. Igneous Rocks. Basic Rocks [in Russian] (1985), Nauka, Moscow 72-103
35. Simakin A.G., and Kislov E.V. Conditions of adcumulate formation during the compositional convection. Abstracts of Physicochemical Petrology (Magmatism, Metamorphism, Mantle) [in Russian] (1991), Nauka, Moscow 28-39
36. Sobolev V.S. Problems of magma digestion during effusive rocks formation. Zap. MVO 110 (1981) 641-645
37. Trubitsin V.P., and Kharybin E.V. Convection in magma chambers caused by the inversion of vertical distribution of cumulating crystals. Physics of the Earth 5 (1997) 47-52
38. Vargaftik N.B. Guide on Thermophysical Properties of Gas and Liquid [in Russian] (1972), Nauka, Moscow
39. Wager L.R. The mechanism of adcumulus growth in the layered series of the Skaergaard intrusion. Miner. Soc. Amer. Spec. Paper 1 (1963) 1-9
40. Wager L.R., and Brown G.M. Layered Igneous Rocks (1967), W.H. Freeman and Co., San Francisco (Russian translation: 1970, Mir, Moscow)
41. Wager L.R., and Deer W.A. Geological investigations in East Greenland, Pt. III. Petrology of the Skaergaard intrusion, Kangerdlugssuaq, East Greenland. Meddelelser om Gronland 105 (1939) 1-352
42. Yaroshevsky Ya.Ya. Pseudorhythmicity as a result of occasional events (to question of rhythmical layering of magma complexes). Geochemistry 2 (2007) 224-228
43. Zavaritsky A.N., and Sobolev V.S. Physicochemical Fundamentals of Effusive Rock Petrology (1961), Gosgeolizdat, Moscow