Geology Reference
In-Depth Information
Plate reference list
1. WSg 95300—H3.3 CHoNDRiTE
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[1] Lofgren, g. E., and Le, L. (2002), Experimental reproduction
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[2] Nittler, L. R., C. M. o'D. Alexander, R. gallino, P. Hoppe,
A. N. Nguyen, F. J. Stadermann, and E. K. Zinner (2008),
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[3] Alexander, C. M. o'D., S. D. Newsome, M. L. Fogel, L. R.
Nittler, H. Busemann, and g. D. Cody (2010), Deuterium
enrichments in chondritic macromolecular material:
implications for the origin and evolution of organics, water
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2. LEW 85320—H5 CHoNDRiTE
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Pillinger (1989), The formation of weathering products on
the LEW 85320 ordinary chondrite: Evidence from carbon
and oxygen stable isotope compositions and implications
for carbonates in SNC meteorites,
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[5] Jull, A. J. T., S. Cheng, J. L. gooding, and M. A. Velbel
(1988), Rapid growth of magnesium-carbonate weathering
products in a stony meteorite from Antarctica,
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[6] Velbel, M. A., and D. T. Long (1989), Meteoritic source of
large-ion lithophile elements in terrestrial nesquehonite from
Antarctic meteorite LEW 85320 (H5),
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[7] Velbel, M. A., D. T. Long, and J. L. gooding (1991),
Terrestrial weathering of Antarctic stone meteorites:
Formation of Mg-carbonates on ordinary chondrites,
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[8] Welten, K. C., L. Lindner, C. Alderliesten, and K. van der
Borg (1999), Terrestrial ages of ordinary chondrites from
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[9] Velbel (2012), Terrestrial weathering of ordinary chon-
drites in nature and continuing during laboratory storage
and processing: Review and implications for Hayabusa
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4. QUE 97008—L3.05 CHoNDRiTE
[16] Alexander C. M.o'D. , S. D. Newsome, M. L. Fogel, L. R.
Nittler, H. Busemann, and g. D. Cody (2010), Deuterium
enrichments in chondritic macromolecular material:
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[17] Busemann, H., C. M. o'D. Alexander, and L. R. Nittler
(2007), Characterization of insoluble organic matter in
primitive meteorites by microRaman spectroscopy,
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[18] grossman, J. N., and A. J. Brearley (2005), The onset of
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[19] D. S. Lauretta, H. Nagahara, and C. M. o'D. Alexander
(2006), Petrology and origin of ferromagnesian silicate
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[20] Nettles, J. W., g. E. Lofgren, W. D. Carlsom, and H. y.
McSween Jr. (2006), Extent of chondrule melting:
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[21] Nittler, L. R., C. M. o'D. Alexander, R. gallino, P.
Hoppe, A. N. Nguyen, F. J. Stadermann, and E. K. Zinne
(2008), Aluminum-, calcium- and titanium-rich oxide
3. LAP 02240—H CHoNDRiTE iMPACT MELT
[10] Cheek, L. C., and D. A. Kring (2008), Cooling rate deter-
mination for H chondrite impact melt breccia LAP 02240,
Lunar Planet. Sci. Conf.
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.
