A condensation model for the formation of chondrules in enstatite chondrites

Meteoritics and Planetary Science

Volumn 44, Issue 4, 2009, Pages 531-543

  Blander, Milton ^a   Pelton, Arthur D ^b   Jung, In Ho ^b  

^a Quest Research   (United States)

^b ÉCOLE POLYTECHNIQUE DE MONTRÉAL   (Canada)

Author keywords

[No Author keywords available]

Indexed keywords

EID: 68149141876     PISSN: 10869379     EISSN: None     Source Type: Journal    
DOI: 10.1111/j.1945-5100.2009.tb00749.x     Document Type: Article

References (87)

1. Alexander C. M. O'D. 2004. Chemical equilibrium and kinetic constraints for chondrule and CAI formation conditions. Geochimica et Cosmochimica Acta 68:3943-3969.
2. Anders E. and Grevesse N. 1989. Abundances of the elements, meteoritic and solar. Geochimica et Cosmochimica Acta 53:197-214.
3. Bell K. R., Cassen P. M., Klahr H. H., and Henning T. H. 1997. The structure and appearance of protestellar accretion disks: Limits on disk flaring. The Astrophysical Jonrnal 486:372-387.
4. Bischoff A. and Stöfller D. 1992. Shock metamorphism as a fundamental process in the evolution of planetary bodies: Information from meteorites. European Journal of Minerology 4:707-755.
5. Blander M. 1983. Condensation of chondrules. In Chondrules and their origins, edited by King E. A. Houston, Texas: Lunar and Planetary Institute. pp. 1 9.
6. Blander M. and Katz J. L. 1967. Condensation of primordial dust. Geochimica et Cosmochimica Acta 31:1025-1034.
7. Blander M. and Abdel Gawad M. 1969. The origin of meteorites and the constrained equilibrium condensation theory. Geochimica et Cosmochimica Acta 34:701-716.
8. Blander M. and Pelton A. D. 1983. Computer assisted analyses of the thermodynamic properties of slags in coal combustion systems. Argonne, Illinois: National Technical Information Service.
9. Blander M. and Pelton A. D. 1984. Analyses and predictions of the thermodynamic properties of multicomponent silicates. Proceeding, Second International Symposium on Metallurgical Slags and Fluxes, TMS AIME, Warrendale, PA. pp. 295 304.
10. Blander M. and Pelton A. D. 1987. Thermodynamic analysis of binary liquid slags and prediction of ternary slag properties by modified quasichemical equations. Geochimica et Cosmochimica Acta 51:85-95.
11. Blander M., Unger L., Pelton A. D., and Eriksson G. 2001. Nucleation constraints lead to molten chondrule precursors in the early solar system. Journal of Physical Chemistry B105:11,823 11,827.
12. Blander M., Pelton A. D., Jung I. H., and Weber R. 2004. Non equilibrium concepts lead to a unified explanation of the formation of chondrules and chondrites. Meteoritics & Planetary Science 39:1897-1910.
13. Boss A. P. 1996. A concise guide to chondrule formation models. In Chondrules and the protoplanetary disc, edited by Hewins R. H., Jones R. H., and Scott E. R. D. Cambridge: Cambridge University Press. pp. 257 263.
14. Cameron A. G. W. 1966. The accumulation of chondritic material. Earth and Planetary Science Letters 1:93-96.
15. Cameron A. G. W. 1995. The first ten million years in the solar nebula. Meteoritics 30:133-161.
16. Cassen P. 1994. Utilitarian models of the solar nebula. Icarus 112: 405-405.
17. 2 melts. Calphad 23:219-230.
18. Ciesla F. J. and Hood L. L. 2002. The nebular shock wave model for chondrule formation: Shock processing in a particle gas suspension. Icarus 158:281-293.
19. Ciesla F. J. and Hood L. L. 2003. Evaluating planetesimal bow shocks as possible sites for chondrule formation (abstract #1400). 34th Lunar Planetary Science Conference. CD ROM.
20. 3 CaO System. Journal of Phase Equilibria 17:476-487.
21. 3 systems. Journal of Phase Equilibria 17:488-494.
22. 2 CaO system. Metallurgical and Materials Transactions B 28:235-42.
23. Degterov S., Jak E., Hayes P., and Pelton A. D. 2001. Experimental study of phase equilibria and thermodynamic optimization of the Fe Zn O system. Metallurgical and Materials Transactions B 32: 643-643.
24. 2 system. Journal of the American Ceramic Society 85:2903-2910.
25. Desch S. J. and Cuzzi J. N. 2000. The generation of lightning in the solar nebula. Icarus 143:87-105.
26. Desch S. J. and Connolly H. C. 2002. A model of the thermal processing of particles in solar nebula shocks: Application to the cooling rates of chondrules. Meteoritics & Planetary Science 37: 183-183.
27. Ebel D. S. 2005. Model evaporation of FeO bearing liquids: Application to chondrules. Geochimica et Cosmochimica Acta 69:3183-3193.
28. Ebel D. S., Engler A., and Kurat G. 2003. Pyroxene chondrules form olivinedepleted, dust enriched systems (abstract #2059). 34th Lunar and Planetary Science Conference. CD ROM.
29. Ebel D. S. and Grossman L. 2000. Condensation in dust enriched systems. Geochimica et Cosmochimica Acta 64:339-366.
30. Engler A., Varela M. E., Kurat G., Ebel D., and Sylvester P. 2007. The origin of non porphyritic pyroxene chondrules in UOCs: Liquid solar nebula condensates? Icarus 192:248-286.
31. Eriksson G. 1975. Thermodynamic studies of high temperature equilibrium. XII Solgasmix, a computer program for calculation of equilibrium compositions in multiphase systems. Chemica Scripta 8:100-103.
32. 2 systems. Metallurgical Transactions B 24:807-816.
33. 3 systems. Calphad 17:189-206.
34. 2 systems. Metallurgical and Materials Transactions B 24:295-805.
35. 2 systems. Canadian Metallurgical Quarterly 33:13-22.
36. Gooding J. L., Keil K., Fukuoka T., and Schmitt R. A. 1980. Elemental abundances in chondrules from unequilibrated chondrites: Evidence for chondrule origin by melting of pre existing materials. Earth and Planetary Science Letters 50:171-180.
37. Grossman J. N. and Wasson J. T. 1982. Evidence for primitive nebular components in chondrules from the Chainpur chondrite. Geochimica et Cosmochimica Acta 46:1081-1099.
38. Hillert M., Janson B., and Sundman B. 1988. Application of the compound energy model to oxide systems. Zeitschrift für Metallkunde 79:81-87.
39. Jarosewich E. 1990. Chemical analyses of meteorites: A compilation of stony and iron meteorite analyses. Meteoritics 25:323-337.
40. 2 systems. Metallurgical and Materials Transactions 35B:259-268.
41. 2 system. Metallurgical and Materials Transactions 35B:877-889.
42. Jung I. H., Decterov S., and Pelton A. D. 2004c. Thermodynamic modeling of the Fe Mg O system. Journal of Physical Chemistry Solids 65:1683-1695.
43. 2 systems. Journal of Phase Equilibria 25:329-345.
44. 2 system. Journal of the European Ceramic Society 25:313-333.
45. 3 systems. Iron and Steel Institute of Japan International 44:965-974.
46. 2 system by critical evaluation, modeling and experiment. Iron and Steel Institute of Japan International 446:975-983.
47. Keil K. 1968. Mineralogical and chemical relationships among enstatite chondrites. Journal of Geophysical Research 73:6945-6976.
48. Larimer J. W. 1967. Chemical fractionation in meteorites. I. Condensation of the elements. Geochimica et Cosmochimica Acta 31:1215-1238.
49. Larimer J. W. and Anders E. 1967. Chemical fractionations in meteorites. II. Abundance patterns and their interpretation. Geochimica et Cosmochimica Acta 31:1239-1270.
50. Lauretta D. S., Lodders K., and Fegley B. Jr. 1997. Experimental simulations of sulfide formation in the solar nebula. Science 277: 358-358.
51. Levy E. H. and Araki S. 1989. Magnetic reconnection flares in the protoplanetary nebula and the possible origin of meteorite chondrules. Icarus 81:74-91.
52. Liffman K. and Brown M. J. I. 1996. The protostellar jet model of chondrule formation. In Chondrules and the protoplanetary disk, edited by Hewins R. H., Jones R. H., and Scott E. R. D. Cambridge: Cambridge University Press. pp. 285 302.
53. McClintock W. E., Izenberg N. R., Holsclaw G. M., Blewett D. T., Domingue D. L., Head J. W. III, Helbert J., McCoy T. J., Murchie S. L., Robinson M. S., Solomon S. C., Sprague A. L., and Vilas F. 2008. Spectroscopic observations of Mercury's surface reflectance during MESSENGER'S first Mercury flyby. Science 321:62-65.
54. Meibom A., Righter K., Chabot N., Dehn G., Antignano A., Mcopy T., Krot A., Zolenski M. E., Petaev I., and Keil K. 2005. Shock melts in QUE 94411, Hammadah Al Hanra 237, and Bencubbin; Remains of the missing matrix? Meteoritics & Planetary Science 40:1377-1391.
55. McBreen B. and Hanlon L. 1999. Gamma ray bursts and the origin of chondrules and planets. Astronomy and Astrophysics 351:759-765.
56. Nagashima K., Tsukamoto K., Kobatake H., Satoh H., and Nozawa J. 2002. Estimation of crystallization temperature of chondrules from levitated hypercooled melt droplets. Journal of the Japanese Association for Crystal Growth 29:105-105.
57. Nagashima K., Tsukamoto K., Satoh H., and Yokoyama E. 2003. In situ observation of chondrules crystallized from hypercooled melt droplets. Journal of the Japanese Association for Crystal Growth 30:134-134.
58. Nagashima K., Satoh H., and Tsukamoto K. 2003. Metastable liquidus of radial pyroxene chondrule melts: Investigation with supercooling experiments (abstract P066 003). Japan Geoscience Union Meeting.
59. Nagashima K., Tsukamoto K., and Satoh H. 2005. In situ observation of chondrule formation during levitation, Japan Geoscience Union Meeting. Abstract P058 015.
60. Petaev M. I. and Wood J. A. 1998. The condensation with partial isolation (CWPI) model of condensation in the solar nebula. Meteoritics & Planetary Science 33:1123-1137.
61. Pelton A. D. and Blander M. 1984. Computer assisted analysis of the thermodynamic properties and phase diagrams of slags. Proceeding, AIME Symposium on Metallurgical Slags and Fluxes. TMS AIME, Warrendale, PA. pp. 281 294.
62. Pelton A. D. and Blander M. 1986. Thermodynamic analysis of ordered liquid solutions by a modified quasi chemical approach Application to silicate slags. Metallurgical and Materials Transactions B 17:805-815.
63. Pelton A. D. and Chartrand P. 2001. The modified quasichemical model II Multicomponent solutions. Metallurgical and Materials Transactions A 32:1355-1360.
64. Pelton A. D., Bale C. W., Thompson W. T., and Eriksson G. 2008. FactSage An integrated thermodynamic databank system for inorganic applications. http://www.factsage.com.
65. Phillip W., Hartquist T. W., Morfill G. E., and Levy E. H. 1998. Chondrule formation by lightning in the protosolar nebula. Astronomy and Astrophysics 331:121-146.
66. Rasmussen K. L. and Wasson J. T. 1982. A new lightning model for chondrule formation (abstract). Workshop on Chondrules and Their Origins. Houston: Lunar and Planetary Institute. p. 53.
67. Rubin A. E., Kallameyn G. W., Wasson G. T., Clayton R. N., Mayeda T. K., Grady T. K., Verchovski A. B., Eugster O., and Llorenzetti S. 2003. Formation of metal and silicate globules in Gujba: A new Bencubbin like meteorite fall. Geochimica et Cosmochimica Acta 67:3282-3298.
68. Schneider D. M., Symes S. J. K., Benoit P. H., and Sears D. W. 2002. Properties of chondrules in EL3 chondrites, comparison with EH3 chondrites, and the implications for the formation of enstatite chondrites. Meteoritics & Planetary Science 37:1401-1416.
69. Shu F. H., Shang H., and Lee T. 1996. Toward an astrophysical theory of chondrites. Science 271:1545-1552.
70. Shu F. H., Shang H., Gounelle M., Glassgold A. E., and Lee T. 2001. The origin of chondrules and refractory inclusions in chondritic meteorites. The Astrophysical Journal 548:1029-1050.
71. Skinner W. R. 1990. Bipolar outflows and a new model of the early solar system. Part I: Overview and implications of the model; Part II: The origins of chondrules, isotopic anomalies, and chemical fractionations (abstract). 21st Lunar and Planetary Science Conference. pp. 1166 1169.
72. Solomon S. C., McNutt R. J. Jr., Watters T. R., Lawrence D. J., Feldman W. C., Head J. W., Krimigis S. M., Murchie S. L., Phillips R. J., Slavin J. A., and Zuber M. T. 2008. Return to Mercury: A global perspective on MESSENGER'S first Mercury flyby. Science 321:59-62.
73. Sonett C. P. 1979. On the origin of chondrules. Geophysical Research Letters 6:677-680.
74. Tsukamoto K., Kobatake H., Nagashima K., Satoh H., and Yurimoto H. 2001. Crystallization of cosmic materials in microgravity (abstract #1846). 32nd Lunar and Planetary Science Conference. CD ROM.
75. Wasson J. T. 1992. Constraints on chondrule origins. Meteoritics 29: 304.
76. Weidenschilling S. J., Marzari F., and Hood L. L. 1998. The origin of chondrules at Jovian resonances. Science 279:681-684.
77. Weisberg M. K., Prinz M., and Robert A. F. 1994. The evolution of enstatite and chondrules in unequilibrated enstatite chondrites. Meteoritics 29:362-373.
78. Whipple F. L. 1966. Chondrules: Suggestions concerning their origin. Science 153:54-56.
79. Wood J. A. 1962. Chondrules and the origin of the terrestrial planets. Nature 197:127-130.
80. Wood J. A. 1963. On the origin of chondrules and chondrites. Icarus 2:152-180.
81. Wood J. A. and McSween Jr. H. Y. 1977. Chondrules as condensation products. In: Comets, asteroids, meteorites: Interrelations, evolution and origins. Proceedings, 39th International Colloquium, Lyon, France. University of Toledo, Toledo, OH. pp. 365 373.
82. Wood J. A. 1983. Formation of chondrules and CAI's from interstellar grains accreting to the solar nebula. Memoirs of the National Institute of Polar Research (Special Issue) 30:84-92.
83. Wood J. A. 1984. On the formation of meteoritic chondrules by aerodynamic drag heating in the solar nebula. Earth Planetary Science Letters 70:11-26.
84. 2 systems. Journal of the American Ceramic Society 76:2059-2064.
85. Wu P., Eriksson G., and Pelton A. D. 1993b. Critical evaluation and optimization of the thermodynamic properties and phase diagrams of the CaO FeO, CaO MgO, CaO MnO, FeO MgO, FeO MnO, and MgO MnO systems. Journal of the American Ceramic Society 76:2065-2075.
86. 2 liquids from cosmic gases. Geochimica et Cosmochimica Acta 59:3413-3444.
87. Zhang Y., Benoit P., and Sears D. 1995. The classification and complex thermal history of the enstatite chondrites. Journal of Geophysical Research 100(E5):9417-9438.