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Allende meteorite, Pueblito de Allende, Chihuahua, Mexico i
Regional Level Types
Allende meteorite Meteorite Fall Location
Pueblito de Allende - not defined -
Chihuahua State
Mexico Country

Regional Level Types
Allende meteorite	Meteorite Fall Location
Pueblito de Allende	- not defined -
Chihuahua	State
Mexico	Country

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CV3 chondrite meteorite

Allende meteorite, Pueblito de Allende, Chihuahua, Mexico

Hutcheonite, etc.

Allende meteorite, Pueblito de Allende, Chihuahua, Mexico

CV3 chondrite meteorite

Allende meteorite, Pueblito de Allende, Chihuahua, Mexico

CV3 chondrite meteorite

Allende meteorite, Pueblito de Allende, Chihuahua, Mexico

Hutcheonite, etc.

Allende meteorite, Pueblito de Allende, Chihuahua, Mexico

CV3 chondrite meteorite

Allende meteorite, Pueblito de Allende, Chihuahua, Mexico

CV3 chondrite meteorite

Allende meteorite, Pueblito de Allende, Chihuahua, Mexico

Hutcheonite, etc.

Allende meteorite, Pueblito de Allende, Chihuahua, Mexico

Latitude & Longitude (WGS84):

26° 58' North , 105° 19' West

Latitude & Longitude (decimal):

26.96667,-105.31667

GRN:

N18W67

Type:

Meteorite Fall Location

Meteorite Class:

CV3 chondrite meteorite

Meteoritical Society Class:

CV3

Metbull:

View entry in Meteoritical Bulletin Database

Köppen climate type:

BSk : Cold semi-arid (steppe) climate

Nearest Settlements:

Place	Population	Distance
Pueblito de Allende	1,381 (2018)	2.9km
San Juan de Allende	287 (2018)	5.5km
Rancho Blanco	123 (2014)	5.7km
Valle de Allende	4,185 (2018)	8.3km
Talamantes	512 (2018)	13.4km

Mindat Locality ID:

Long-form identifier:

mindat:1:2:35:5

GUID (UUID V4):

Other/historical names associated with this locality:

Pueblito de Allende meteorite; Qutrixpileo meteorite

CV3 (Vigarano-like) Carbonaceous Chondrite

The Allende meteorite fell at 1:05 AM on February 8, 1969. With a mass of ~2 metric tons, it is by far the largest recovered carbonaceous chondrite. The strewnfield is very large, measuring approximately 8 by 50 km.

Allende is often described as "the best-studied meteorite in history".
It is notable for possessing abundant, large calcium-aluminium-rich inclusions (CAI), which are among the oldest objects formed in the Solar System. The meteorite is also famous for its complex carbon compounds such as fullerenes (C₆₀ and C₇₀), fulleranes (C₆₀H_x), polycyclic aromatic hydrocarbons, benzofluoranthene and corennulene (Becker and Bunch, 1997). Unlike many other chondrites, Allende is almost completely lacking in Fe-Ni metal.

Select Mineral List Type

Standard Detailed Gallery Strunz Chemical Elements

Mineral List

ⓘ Adrianite (TL)

ⓘ Aenigmatite

ⓘ Allendeite (TL)

ⓘ Barioperovskite ?

ⓘ Baryte

ⓘ Beckettite (TL)

ⓘ Burnettite (TL)

ⓘ Butianite (TL)

ⓘ Calcite

ⓘ Chihuahuaite (TL)

ⓘ Chromite

ⓘ 'Clinopyroxene Subgroup'

ⓘ 'Fayalite-Forsterite Series'

ⓘ Forsterite

ⓘ Gehlenite

ⓘ Grossite

ⓘ Grossmanite (TL)

ⓘ Hexamolybdenum (TL)

ⓘ Hibonite

ⓘ Hutcheonite (TL)

ⓘ Ilmenite

ⓘ Jianmuite (TL)

ⓘ Kaitianite (TL)

ⓘ Majindeite (TL)

ⓘ 'Orthopyroxene Subgroup'

ⓘ 'UM1971-21-SiO:AlCaMgTi'

ⓘ 'UM1978-08-O:AlCaCrFeMgTi'

78 valid minerals. 20 (TL) - type locality of valid minerals.

Meteorite/Rock Types Recorded

Select Rock List Type

Alphabetical List Tree Diagram

ⓘ CV3 chondrite meteorite

Detailed Mineral List:

ⓘ Adrianite (TL)

Formula: Ca₁₂(Al₄Mg₃Si₇)O₃₂Cl₆

Type Locality:

References:

Williams, P. A., Hatert, F., Pasero, M., Mills, S. J. (2014) New minerals and nomenclature modifications approved in 2014, CNMNC Newsletter No 21. Mineralogical Magazine, 78 (4) 797-804 doi:10.1180/minmag.2014.078.4.03

Ma, Chi, Krot, Alexander N. (2018) Adrianite, Ca₁₂(Al₄Mg₃Si₇)O₃₂Cl₆, a new Cl-rich silicate mineral from the Allende meteorite: An alteration phase in a Ca-Al-rich inclusion. American Mineralogist, 103 (8) 1329-1334 doi:10.2138/am-2018-6505

ⓘ Aenigmatite

Formula: Na₄[Fe²⁺₁₀Ti₂]O₄[Si₁₂O₃₆]

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Allendeite (TL)

Formula: Sc₄Zr₃O₁₂

Type Locality:

References:

Ma, C., Beckett, J. R., Rossman, G. R. (2014) Allendeite (Sc₄Zr₃O₁₂) and hexamolybdenum (Mo,Ru,Fe), two new minerals from an ultrarefractory inclusion from the Allende meteorite. American Mineralogist, 99 (4) 654-666 doi:10.2138/am.2014.4667

ⓘ Andradite

Formula: Ca₃Fe³⁺₂(SiO₄)₃

References:

AmMin 56:2053

ⓘ Anorthite

Formula: Ca(Al₂Si₂O₈)

References:

Imai H. and Yurimoto H. (2000).

Stuart A. Sweeney Smith (2010) Characterization of two atypical refractory inclusions from separate CV3 chondritic meteorites: Petrogenesis in the early Solar System . Senior Comprehensive Exercise Carleton College, Northfield, Minnesota.

Ma, C., Paque, J., & Tschauner, O. (2016, March). Discovery of Beckettite, Ca2V6Al6O20, a New Alteration Mineral in a V-Rich Ca-Al-Rich Inclusion from Allende. In Lunar and Planetary Science Conference (Vol. 47, p. 1704).

Ma, C., Yoshizaki, T., Krot, A.N., Beckett, J.R., Nakamura, T., Nagashima, K., Muto, J., Ivanova, M.A. (2017) Discovery of rubinite, Ca3Ti23+Si3O12, a new garnet mineral in refractory inclusions from carbonaceous chondrites. 80th Annual Meeting of the Meteoritical Society 2017 (LPI Contribution No. 1987)

Ma, C. (2018). Discovery of meteoritic baghdadite, Ca_3 (Zr, Ti) Si_2O_9, in Allende: The first solar silicate with structurally essential zirconium?. Meteoritics and Planetary Science, 53(S1), 6358.

Takeshima, Yuko, Hyodo, Hironobu, Tsujimori, Tatsuki, Gouzu, Chitaro, Itaya, Tetsumaru (2022) In Situ Argon Isotope Analyses of Chondrule-Forming Materials in the Allende Meteorite: A Preliminary Study for 40Ar/39Ar Dating Based on Cosmogenic 39Ar. Minerals, 13 (1) 31 doi:10.3390/min13010031

ⓘ 'Apatite'

Formula: Ca₅(PO₄)₃A

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Armalcolite

Formula: MgTi⁴⁺₂O₅

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Augite

Formula: (Ca_xMg_yFe_z)(Mg_y1Fe_z1)Si₂O₆

References:

Imai H. and Yurimoto H. (2000).

ⓘ Augite var. Fassaite

Formula: (Ca,Na)(Mg,Fe²⁺,Al,Fe³⁺,Ti)[(Si,Al)₂O₆]

References:

Imai H. and Yurimoto H. (2000).

ⓘ Awaruite

Formula: Ni₃Fe

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Baddeleyite

Formula: ZrO₂

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Baghdadite

Formula: Ca₆Zr₂(Si₂O₇)₂O₄

References:

ⓘ Barioperovskite ?

Formula: BaTiO₃

Description: A natural occurrence of BaTiO3 is reported by Tanaka and Okumura (1977), but this was not confirmed by Ma & Rossman (2008)

References:

Tanaka, T. and Okumara, K. (1977) Ultrafine barium titanate particles in the Allende meteorite. Geochemical Journal, 11, 137-145

Ma, C., Rossman, G. R. (2008) Barioperovskite, BaTiO3, a new mineral from the Benitoite Mine, California. American Mineralogist, 93 (1) 154-157 doi:10.2138/am.2008.2636

ⓘ Baryte

Formula: BaSO₄

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Beckettite (TL)

Formula: Ca₂V₆Al₆O₂₀

Type Locality:

References:

Mineralogical Magazine, 79, 529-535.

Hålenius, U., Hatert, F., Pasero, M., Mills, S. J. (2015) New minerals and nomenclature modifications approved in 2015, CNMNC Newsletter No 25. Mineralogical Magazine, 79 (3) 529-535 doi:10.1180/minmag.2015.079.3.02

ⓘ Burnettite (TL)

Formula: CaVAlSiO₆

Type Locality:

References:

Williams, P. A., Hatert, F., Pasero, M., Mills, S. J. (2013) New minerals and nomenclature modifications approved in 2013. CNMNC Newsletter No.17. Mineralogical Magazine, 77 (7) 2997-3005 doi:10.1180/minmag.2013.077.7.09

ⓘ Butianite (TL)

Formula: Ni₆SnS₂

Type Locality:

References:

Hålenius, U., Hatert, F., Pasero, M., Mills, S. J. (2016) New minerals and nomenclature modifications approved in 2016, CNMNC Newsletter 32. Mineralogical Magazine, 80 (5) 915-922 doi:10.1180/minmag.2016.080.084

ⓘ Calcite

Formula: CaCO₃

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Chihuahuaite (TL)

Formula: FeAl₁₂O₁₉

Type Locality:

References:

Ma, C. (2010) Hibonite-(Fe), (Fe,Mg)Al₁₂O₁₉, a new alteration mineral from the Allende meteorite. American Mineralogist, 95 (1) 188-191 doi:10.2138/am.2010.3365

ⓘ Chromite

Formula: Fe²⁺Cr³⁺₂O₄

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ 'Clinopyroxene Subgroup'

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Clintonite

Formula: CaAlMg₂(SiAl₃O₁₀)(OH)₂

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Corundum

Formula: Al₂O₃

References:

Ma, C., Simon, S. B., Rossman, G. R., Grossman, L. (2009) Calcium Tschermak's pyroxene, CaAlAlSiO6, from the Allende and Murray meteorites: EBSD and micro-Raman characterizations. American Mineralogist, 94 (10) 1483-1486 doi:10.2138/am.2009.3231

Borriello, Roberto, Xiong, Fahui, Ma, Chi, Lorenzon, Sofia, Mugnaioli, Enrico, Yang, Jingsui, Xu, Xiangzhen, Grew, Edward S. (2025) Jianmuite, ZrTi4+Ti3+5Al3O16, a new mineral from the Allende meteorite and from chromitite near Kangjinla, Tibet, China. American Mineralogist, 110 (4). 630-642 doi:10.2138/am-2024-9362

ⓘ Coulsonite

Formula: Fe²⁺V³⁺₂O₄

References:

ⓘ Davisite (TL)

Formula: CaScAlSiO₆

Type Locality:

References:

Ma, C., Rossman, G. R. (2009) Davisite, CaScAlSiO6, a new pyroxene from the Allende meteorite. American Mineralogist, 94 (5) 845-848 doi:10.2138/am.2009.3209

ⓘ Diamond

Formula: C

References:

Fisenko, A.V. and L.F. Semenova (1997) On the Selection of Chondrites for Studying Interstellar Diamond. Vernadsky Institute of Geochemistry and Analytical Chemistry, Russian Academy of Sciences.

ⓘ Diopside

Formula: CaMgSi₂O₆

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Dmisteinbergite

Formula: Ca(Al₂Si₂O₈)

References:

Ma, C., Krot, A. N., Bizzarro, M. (2013) Discovery of dmisteinbergite (hexagonal CaAl2Si2O8) in the Allende meteorite: A new member of refractory silicates formed in the solar nebula. American Mineralogist, 98 (7) 1368-1371 doi:10.2138/am.2013.4496

ⓘ Enstatite

Formula: Mg₂Si₂O₆

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Eringaite

Formula: Ca₃Sc₂(SiO₄)₃

References:

Krot, A.N., Nagashima, K., Ma, C. and Wasserburg, G.J. (2015): Forsterite-bearing type B CAI with a relict eringaite-bearing ultra-refractory CAI. Meteoritics and Planetary Science: 50 (S1): Abstract No. 5308

ⓘ Fayalite

Formula: Fe²⁺₂(SiO₄)

References:

Imai H. and Yurimoto H. (2000).

ⓘ 'Fayalite-Forsterite Series'

References:

Brenker, F. E., Krot, A. N. (2002) Evidence for a High Temperature Episode During Multistage Alteration of Allende Dark Inclusions. 65th Annual Meteoritical Society Meeting (2002).

ⓘ Forsterite

Formula: Mg₂(SiO₄)

References:

Imai H. and Yurimoto H. (2000).

ⓘ Gehlenite

Formula: Ca₂Al[AlSiO₇]

References:

ⓘ Grossite

Formula: CaAl₄O₇

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Grossmanite (TL)

Formula: CaTi³⁺ AlSiO₆

Type Locality:

References:

ⓘ Grossular

Formula: Ca₃Al₂(SiO₄)₃

References:

ⓘ Heazlewoodite

Formula: Ni₃S₂

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Hedenbergite

Formula: CaFe²⁺Si₂O₆

References:

Brenker, F. E., Krot, A. N. (2002) Evidence for a High Temperature Episode During Multistage Alteration of Allende Dark Inclusions. 65th Annual Meteoritical Society Meeting (2002).

ⓘ Hercynite

Formula: Fe²⁺Al₂O₄

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Hexamolybdenum (TL)

Formula: (Mo,Ru,Fe,Ir,Os)

Type Locality:

References:

ⓘ Hibonite

Formula: CaAl₁₂O₁₉

References:

ⓘ Hutcheonite (TL)

Formula: Ca₃Ti₂(SiO₄)(AlO₄)₂

Type Locality:

References:

Williams, P. A., Hatert, F., Pasero, M., Mills, S. J. (2013) New minerals and nomenclature modifications approved in 2013. CNMNC Newsletter No 16. Mineralogical Magazine, 77 (6) 2695-2709 doi:10.1180/minmag.2013.077.6.01

ⓘ Ilmenite

Formula: Fe²⁺TiO₃

References:

Ma, C., Beckett, J.R., Rossman, G.R. (2009) Allendeite and Hexamolybdenum: Two New Ultra-Refractory Minerals in Allende and Two Missing Links. 40th Lunar and Planetary Science Conference.

ⓘ Jianmuite (TL)

Formula: ZrTi⁴⁺Ti³⁺₅Al₃O₁₆

Type Locality:

References:

Bosi, Ferdinando, Hatert, Frédéric, Pasero, Marco, Mills, Stuart J. (2023) Newsletter 75. Mineralogical Magazine, 1-4 doi:10.1180/mgm.2023.76

ⓘ Kaitianite (TL)

Formula: Ti³⁺₂Ti⁴⁺O₅

Type Locality:

References:

Hålenius, U., Hatert, F., Pasero, M., Mills, S. J. (2018) New minerals and nomenclature modifications approved in 2018. Mineralogical Magazine, 82 (2). 445-451 doi:10.1180/mgm.2018.71p.450

Ma, C., Beckett, J.R. (2020) Kaitianite, Ti3+2Ti4+O5 a new titanium oxide mineral from Allende. Meteoritics & Planetary Science: 1-12.

ⓘ Kamiokite

Formula: Fe₂Mo₃O₈

References:

72nd Meteor.Soc. Meeting, Abs. 5090(2009)

ⓘ Kangite (TL)

Formula: (Sc,Ti,Al,Zr,Mg,Ca,◻)₂O₃

Type Locality:

References:

Williams, P. A., Hatert, F., Pasero, M., Mills, S. J. (2012) New minerals and nomenclature modifications approved in 2012. CNMNC Newsletter No 12. Mineralogical Magazine, 76 (1) 151-155 doi:10.1180/minmag.2012.076.1.151

Ma, C., Tschauner, O., Beckett, J. R., Rossman, G. R., Liu, W. (2013) Kangite, (Sc,Ti,Al,Zr,Mg,Ca,◻)₂O₃, a new ultra-refractory scandia mineral from the Allende meteorite: Synchrotron micro-Laue diffraction and electron backscatter diffraction. American Mineralogist, 98 (5) 870-878 doi:10.2138/am.2013.4290

ⓘ Khamrabaevite

Formula: (Ti,V,Fe)C

References:

Ma, C., Rossman, G. R. (2009) Tistarite, Ti₂O₃, a new refractory mineral from the Allende meteorite. American Mineralogist, 94 (5) 841-844 doi:10.2138/am.2009.3203

ⓘ Kirschsteinite

Formula: CaFe²⁺(SiO₄)

References:

Brenker, F. E., Krot, A. N. (2002) Evidence for a High Temperature Episode During Multistage Alteration of Allende Dark Inclusions. 65th Annual Meteoritical Society Meeting (2002).

ⓘ Kushiroite

Formula: CaAlAlSiO₆

References:

Kimura, M., Mikouchi, T., Suzuki, A., Miyahara, M., Ohtani, E., Goresy, A. E. (2009) Kushiroite, CaAlAlSiO6: A new mineral of the pyroxene group from the ALH 85085 CH chondrite, and its genetic significance in refractory inclusions. American Mineralogist, 94 (10) 1479-1482 doi:10.2138/am.2009.3242

ⓘ Magnetite

Formula: Fe²⁺Fe³⁺₂O₄

References:

LUNAR AND PLANETARY SCIENCE XV, P. 699-700. Abstract.

72nd Meteor.Soc. Meeting, Abs. 5090(2009)

ⓘ Majindeite (TL)

Formula: Mg₂Mo₃O₈

Type Locality:

References:

Williams, P. A., Hatert, F., Pasero, M., Mills, S. J. (2013) IMA Commission on New Minerals, Nomenclature and Classification. CNMNC Newsletter No. 15. Mineralogical Magazine, 77 (1) 1-12 doi:10.1180/minmag.2013.077.1.01

ⓘ Margarite

Formula: CaAl₂(Al₂Si₂O₁₀)(OH)₂

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ 'Melilite Group'

Formula: Ca₂M(XSiO₇)

References:

Imai H. and Yurimoto H. (2000).

ⓘ Merrillite

Formula: Ca₉NaMg(PO₄)₇

References:

LUNAR AND PLANETARY SCIENCE XV, P. 699-700. Abstract.

ⓘ 'Mica Group'

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Molybdenite

Formula: MoS₂

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Monipite (TL)

Formula: MoNiP

Type Locality:

References:

72nd Meteor.Soc. Meeting, Abs. 5090(2009)

ⓘ Monticellite

Formula: CaMg(SiO₄)

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Montmorillonite

Formula: (Na,Ca)_0.33(Al,Mg)₂(Si₄O₁₀)(OH)₂ · nH₂O

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Mullite

Formula: Al_4+2xSi_2-2xO_10-x

References:

ⓘ Native Iron

Formula: Fe

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Native Iron var. Kamacite

Formula: (Fe,Ni)

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ 'Native Rhenium'

Formula: Re

References:

El Goresy, A., Nagel, K., Dominik, B., Ramdohr, P. (1977) Fremdlinge: Potential Presolar Material in Ca, Al rich inclusions of Allende. Meteoritics: 12: 215-216.

ⓘ Nepheline

Formula: Na₃K(Al₄Si₄O₁₆)

References:

Clarke Jr, R. S., Jarosewich, E., Mason, B., Nelen, J., & Gomez, M. (1970). J.. R. Hyde, The Allende, Mexico, meteorite shower, Smithson. Con-trib. Earth Sci, 5, 1-53.

Kimura, M., & Ikeda, Y. (1995). Anhydrous alteration of Allende chondrules in the solar nebula II: Alkali-Ca exchange reactions and formation of nepheline, sodalite and Ca-rich phases in chondrules. Antarctic Meteorite Research, 8, 123-138.

Brenker, F. E., Krot, A. N. (2002) Evidence for a High Temperature Episode During Multistage Alteration of Allende Dark Inclusions. 65th Annual Meteoritical Society Meeting (2002).

Ma, C., Beckett, J.R., Rossman, G.R. (2009) Allendeite and Hexamolybdenum: Two New Ultra-Refractory Minerals in Allende and Two Missing Links. 40th Lunar and Planetary Science Conference.

Woolley, Alan R. (2019) Alkaline Rocks and Carbonatites of the World. Part 4: Antarctica, Asia and Europe (excluding the former USSR), Australasia and Oceanic Islands. The Geological Society of London. doi:10.1144/mpar4

ⓘ Nuwaite (TL)

Formula: Ni₆GeS₂

Type Locality:

References:

ⓘ 'Olivine Group'

Formula: M₂SiO₄

References:

ⓘ 'Orthopyroxene Subgroup'

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Panguite (TL)

Formula: (Ti,Al,Sc,Mg,Zr,Ca)_1.8O₃

Type Locality:

References:

Williams, P. A., Hatert, F., Pasero, M., Mills, S. J. (2011) New minerals and nomenclature modifications approved in 2010, CNMNC Newsletter No 7. Mineralogical Magazine, 75 (1) 27-31 doi:10.1180/minmag.2011.075.1.27

Ma, C., Tschauner, O., Beckett, J. R., Rossman, G. R., Liu, W. (2012) Panguite, (Ti⁴⁺,Sc,Al,Mg,Zr,Ca)_1.8O₃, a new ultra-refractory titania mineral from the Allende meteorite: Synchrotron micro-diffraction and EBSD. American Mineralogist, 97 (7) 1219-1225 doi:10.2138/am.2012.4027

ⓘ Paqueite (TL)

Formula: Ca₃TiSi₂(Al,Ti,Si)₃O₁₄

Type Locality:

References:

ⓘ Pentlandite

Formula: (Ni_xFe_y)_Σ9S₈

References:

LUNAR AND PLANETARY SCIENCE XV, P. 699-700. Abstract.

ⓘ Perovskite

Formula: CaTiO₃

References:

Imai H. and Yurimoto H. (2000).

ⓘ Pigeonite

Formula: (Ca_xMg_yFe_z)(Mg_y1Fe_z1)Si₂O₆

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ 'Plagioclase'

Formula: (Na,Ca)[(Si,Al)AlSi₂]O₈

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Pyrrhotite

Formula: Fe_1-xS

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Rhönite

Formula: Ca₄[Mg₈Fe³⁺₂Ti₂]O₄[Si₆Al₆O₃₆]

References:

Fuchs, Louis H. (1971) Occurrence of wollastonite, rhönite, and andradite in the Allende meteorite. American Mineralogist, 56 (11-12) 2053-2068

ⓘ Rubinite (TL)

Formula: Ca₃Ti³⁺₂(SiO₄)₃

Type Locality:

References:

ⓘ Rutile

Formula: TiO₂

References:

Ma, C., Beckett, J.R. (2020) Kaitianite, Ti3+2Ti4+O5 a new titanium oxide mineral from Allende. Meteoritics & Planetary Science: 1-12.

ⓘ Sodalite

Formula: Na₄(Si₃Al₃)O₁₂Cl

References:

Clarke Jr, R. S., Jarosewich, E., Mason, B., Nelen, J., & Gomez, M. (1970). J.. R. Hyde, The Allende, Mexico, meteorite shower, Smithson. Con-trib. Earth Sci, 5, 1-53.

Ma, C., Beckett, J.R., Rossman, G.R. (2009) Allendeite and Hexamolybdenum: Two New Ultra-Refractory Minerals in Allende and Two Missing Links. 40th Lunar and Planetary Science Conference.

ⓘ Spinel

Formula: MgAl₂O₄

References:

Imai H. and Yurimoto H. (2000).

ⓘ Taenite

Formula: (Ni,Fe)

References:

Brearley, A. J. & Jones, R. H. (1998): Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA. (1998).

ⓘ Tazheranite

Formula: (Zr,Ti,Ca)(O,◻)₂

References:

Ma, C., Beckett, J.R., Rossman, G.R. (2009) Allendeite and Hexamolybdenum: Two New Ultra-Refractory Minerals in Allende and Two Missing Links. 40th Lunar and Planetary Science Conference.

ⓘ Tistarite (TL)

Formula: Ti³⁺₂O₃

Type Locality:

References:

Am. Min. 94,841-844(2009)

ⓘ Troilite

Formula: FeS

References:

LUNAR AND PLANETARY SCIENCE XV, P. 699-700. Abstract.

ⓘ Tschermakite

Formula: ◻(Ca₂)(Mg₃Al₂)(Al₂Si₆O₂₂)(OH)₂

References:

ⓘ Tugarinovite

Formula: MoO₂

References:

72nd Meteor.Soc. Meeting, Abs. 5090(2009)

ⓘ 'UM1971-21-SiO:AlCaMgTi'

Formula: Ca₄(Mg₇AlTi³⁺₂Ti⁴⁺₂)O₄[Si₅Al₇O₃₆]

References:

Fuchs, Louis H. (1971) Occurrence of wollastonite, rhönite, and andradite in the Allende meteorite. American Mineralogist, 56 (11-12) 2053-2068

ⓘ 'UM1978-08-O:AlCaCrFeMgTi'

Formula: (Ti³⁺,Cr,Al,Ca,Mg,Fe)(Ti)_2-3O₇

References:

Haggerty, S.E. (1978): The Allende meteorite: solid solution characteristics and the significance of a new titanate mineral series in association with armalcolite. Proc. 9th Lunar Planetary Sci. Conf.: 1: 133l-1344

Fleischer, Michael, Cabri, Louis J., Chao, G. Y., Pabst, Adolf (1980) New Mineral Names. American Mineralogist, 65 (7-8) 808-814 p.812

ⓘ Wadalite

Formula: (Ca,Mg)₆(Al,Fe³⁺)₄((Si,Al)O₄)₃O₄Cl₃

References:

ⓘ Wollastonite

Formula: Ca₃(Si₃O₉)

References:

AmMin 56:2053

ⓘ 'Wollastonite-1A'

Formula: CaSiO₃

References:

Brenker, F. E., Krot, A. N. (2002) Evidence for a High Temperature Episode During Multistage Alteration of Allende Dark Inclusions. 65th Annual Meteoritical Society Meeting (2002).

ⓘ 'Wollastonite-2M'

Formula: CaSiO₃

References:

Brenker, F. E., Krot, A. N. (2002) Evidence for a High Temperature Episode During Multistage Alteration of Allende Dark Inclusions. 65th Annual Meteoritical Society Meeting (2002).

Gallery:

CaTi³⁺ AlSiO₆ⓘ Grossmanite (TL)

Grossmanite

Allende meteorite, Pueblito de Allende, Chihuahua, Mexico

Grossmanite

Allende meteorite, Pueblito de Allende, Chihuahua, Mexico

Grossmanite

Allende meteorite, Pueblito de Allende, Chihuahua, Mexico

List of minerals arranged by Strunz 10th Edition classification

Group 1 - Elements
ⓘ	'Native Rhenium'	1.AB.05	Re
ⓘ	Native Iron	1.AE.05	Fe
ⓘ	var. Kamacite	1.AE.05	(Fe,Ni)
ⓘ	Hexamolybdenum (TL)	1.AE.05	(Mo,Ru,Fe,Ir,Os)
ⓘ	Taenite	1.AE.10	(Ni,Fe)
ⓘ	Awaruite	1.AE.20	Ni₃Fe
ⓘ	Khamrabaevite	1.BA.20	(Ti,V,Fe)C
ⓘ	Monipite (TL)	1.BD.10	MoNiP
ⓘ	Diamond	1.CB.10a	C
Group 2 - Sulphides and Sulfosalts
ⓘ	Heazlewoodite	2.BB.05	Ni₃S₂
ⓘ	Pentlandite	2.BB.15	(Ni_xFe_y)_Σ9S₈
ⓘ	Pyrrhotite	2.CC.10	Fe_1-xS
ⓘ	Troilite	2.CC.10	FeS
ⓘ	Molybdenite	2.EA.30	MoS₂
ⓘ	Nuwaite (TL)	2.LA.65	Ni₆GeS₂
ⓘ	Butianite (TL)	2.LA.65	Ni₆SnS₂
Group 4 - Oxides and Hydroxides
ⓘ	Jianmuite (TL)	4.BB.	ZrTi⁴⁺Ti³⁺₅Al₃O₁₆
ⓘ	Chromite	4.BB.05	Fe²⁺Cr³⁺₂O₄
ⓘ	Coulsonite	4.BB.05	Fe²⁺V³⁺₂O₄
ⓘ	Hercynite	4.BB.05	Fe²⁺Al₂O₄
ⓘ	Magnetite	4.BB.05	Fe²⁺Fe³⁺₂O₄
ⓘ	Spinel	4.BB.05	MgAl₂O₄
ⓘ	Corundum	4.CB.05	Al₂O₃
ⓘ	Ilmenite	4.CB.05	Fe²⁺TiO₃
ⓘ	Tistarite (TL)	4.CB.05	Ti³⁺₂O₃
ⓘ	Armalcolite	4.CB.15	MgTi⁴⁺₂O₅
ⓘ	Kaitianite (TL)	4.CB.30	Ti³⁺₂Ti⁴⁺O₅
ⓘ	Kamiokite	4.CB.40	Fe₂Mo₃O₈
ⓘ	Majindeite (TL)	4.CB.40	Mg₂Mo₃O₈
ⓘ	Allendeite (TL)	4.CC.	Sc₄Zr₃O₁₂
ⓘ	Grossite	4.CC.15	CaAl₄O₇
ⓘ	Perovskite	4.CC.30	CaTiO₃
ⓘ	Barioperovskite ?	4.CC.30	BaTiO₃
ⓘ	Panguite (TL)	4.CC.35	(Ti,Al,Sc,Mg,Zr,Ca)_1.8O₃
ⓘ	Hibonite	4.CC.45	CaAl₁₂O₁₉
ⓘ	Chihuahuaite (TL)	4.CC.45	FeAl₁₂O₁₉
ⓘ	Kangite (TL)	4.CC.45	(Sc,Ti,Al,Zr,Mg,Ca,◻)₂O₃
ⓘ	Rutile	4.DB.05	TiO₂
ⓘ	Tugarinovite	4.DB.05	MoO₂
ⓘ	Baddeleyite	4.DE.35	ZrO₂
ⓘ	Tazheranite	4.DL.10	(Zr,Ti,Ca)(O,◻)₂
ⓘ	Beckettite (TL)	4.HC.	Ca₂V₆Al₆O₂₀
Group 5 - Nitrates and Carbonates
ⓘ	Calcite	5.AB.05	CaCO₃
Group 7 - Sulphates, Chromates, Molybdates and Tungstates
ⓘ	Baryte	7.AD.35	BaSO₄
Group 8 - Phosphates, Arsenates and Vanadates
ⓘ	Merrillite	8.AC.45	Ca₉NaMg(PO₄)₇
Group 9 - Silicates
ⓘ	Burnettite (TL)	9.00.	CaVAlSiO₆
ⓘ	Fayalite	9.AC.05	Fe²⁺₂(SiO₄)
ⓘ	Forsterite	9.AC.05	Mg₂(SiO₄)
ⓘ	Kirschsteinite	9.AC.05	CaFe²⁺(SiO₄)
ⓘ	Monticellite	9.AC.10	CaMg(SiO₄)
ⓘ	Adrianite (TL)	9.AD.	Ca₁₂(Al₄Mg₃Si₇)O₃₂Cl₆
ⓘ	Andradite	9.AD.25	Ca₃Fe³⁺₂(SiO₄)₃
ⓘ	Grossular	9.AD.25	Ca₃Al₂(SiO₄)₃
ⓘ	Wadalite	9.AD.25	(Ca,Mg)₆(Al,Fe³⁺)₄((Si,Al)O₄)₃O₄Cl₃
ⓘ	Eringaite	9.AD.25	Ca₃Sc₂(SiO₄)₃
ⓘ	Hutcheonite (TL)	9.AD.25	Ca₃Ti₂(SiO₄)(AlO₄)₂
ⓘ	Rubinite (TL)	9.AD.25	Ca₃Ti³⁺₂(SiO₄)₃
ⓘ	Mullite	9.AF.20	Al_4+2xSi_2-2xO_10-x
ⓘ	Gehlenite	9.BB.10	Ca₂Al[AlSiO₇]
ⓘ	Baghdadite	9.BE.17	Ca₆Zr₂(Si₂O₇)₂O₄
ⓘ	Enstatite	9.DA.05	Mg₂Si₂O₆
ⓘ	Pigeonite	9.DA.10	(Ca_xMg_yFe_z)(Mg_y1Fe_z1)Si₂O₆
ⓘ	Augite	9.DA.15	(Ca_xMg_yFe_z)(Mg_y1Fe_z1)Si₂O₆
ⓘ	Diopside	9.DA.15	CaMgSi₂O₆
ⓘ	Hedenbergite	9.DA.15	CaFe²⁺Si₂O₆
ⓘ	Augite var. Fassaite	9.DA.15	(Ca,Na)(Mg,Fe²⁺,Al,Fe³⁺,Ti)[(Si,Al)₂O₆]
ⓘ	Davisite (TL)	9.DA.15	CaScAlSiO₆
ⓘ	Kushiroite	9.DA.15	CaAlAlSiO₆
ⓘ	Grossmanite (TL)	9.DA.15	CaTi³⁺ AlSiO₆
ⓘ	Tschermakite	9.DE.10	◻(Ca₂)(Mg₃Al₂)(Al₂Si₆O₂₂)(OH)₂
ⓘ	Wollastonite	9.DG.05	Ca₃(Si₃O₉)
ⓘ	'Wollastonite-1A'	9.DG.05	CaSiO₃
ⓘ	Aenigmatite	9.DH.40	Na₄[Fe²⁺₁₀Ti₂]O₄[Si₁₂O₃₆]
ⓘ	Rhönite	9.DH.40	Ca₄[Mg₈Fe³⁺₂Ti₂]O₄[Si₆Al₆O₃₆]
ⓘ	Margarite	9.EC.30	CaAl₂(Al₂Si₂O₁₀)(OH)₂
ⓘ	Clintonite	9.EC.35	CaAlMg₂(SiAl₃O₁₀)(OH)₂
ⓘ	Montmorillonite	9.EC.40	(Na,Ca)_0.33(Al,Mg)₂(Si₄O₁₀)(OH)₂ · nH₂O
ⓘ	Dmisteinbergite	9.EG.15	Ca(Al₂Si₂O₈)
ⓘ	Nepheline	9.FA.05	Na₃K(Al₄Si₄O₁₆)
ⓘ	Anorthite	9.FA.35	Ca(Al₂Si₂O₈)
ⓘ	Sodalite	9.FB.10	Na₄(Si₃Al₃)O₁₂Cl
ⓘ	Paqueite (TL)	9.HA.42	Ca₃TiSi₂(Al,Ti,Si)₃O₁₄
Unclassified
ⓘ	'Wollastonite-2M'	-	CaSiO₃
ⓘ	'Mica Group'	-
ⓘ	'Clinopyroxene Subgroup'	-
ⓘ	'Fayalite-Forsterite Series'	-
ⓘ	'Plagioclase'	-	(Na,Ca)[(Si,Al)AlSi₂]O₈
ⓘ	'Orthopyroxene Subgroup'	-
ⓘ	'Apatite'	-	Ca₅(PO₄)₃A
ⓘ	'Olivine Group'	-	M₂SiO₄
ⓘ	'Melilite Group'	-	Ca₂M(XSiO₇)
ⓘ	'UM1971-21-SiO:AlCaMgTi'	-	Ca₄(Mg₇AlTi³⁺₂Ti⁴⁺₂)O₄[Si₅Al₇O₃₆]
ⓘ	'UM1978-08-O:AlCaCrFeMgTi'	-	(Ti³⁺,Cr,Al,Ca,Mg,Fe)(Ti)_2-3O₇

List of minerals for each chemical element

H	Hydrogen
H	ⓘ Clintonite	CaAlMg₂(SiAl₃O₁₀)(OH)₂
H	ⓘ Margarite	CaAl₂(Al₂Si₂O₁₀)(OH)₂
H	ⓘ Montmorillonite	(Na,Ca)_0.33(Al,Mg)₂(Si₄O₁₀)(OH)₂ · nH₂O
H	ⓘ Tschermakite	◻(Ca₂)(Mg₃Al₂)(Al₂Si₆O₂₂)(OH)₂
C	Carbon
C	ⓘ Calcite	CaCO₃
C	ⓘ Diamond	C
C	ⓘ Khamrabaevite	(Ti,V,Fe)C
O	Oxygen
O	ⓘ Aenigmatite	Na₄[Fe₁₀²⁺Ti₂]O₄[Si₁₂O₃₆]
O	ⓘ Andradite	Ca₃Fe₂³⁺(SiO₄)₃
O	ⓘ Anorthite	Ca(Al₂Si₂O₈)
O	ⓘ Armalcolite	MgTi₂⁴⁺O₅
O	ⓘ Augite	(Ca_xMg_yFe_z)(Mg_y1Fe_z1)Si₂O₆
O	ⓘ Baddeleyite	ZrO₂
O	ⓘ Baghdadite	Ca₆Zr₂(Si₂O₇)₂O₄
O	ⓘ Baryte	BaSO₄
O	ⓘ Calcite	CaCO₃
O	ⓘ Chromite	Fe²⁺Cr₂³⁺O₄
O	ⓘ Clintonite	CaAlMg₂(SiAl₃O₁₀)(OH)₂
O	ⓘ Corundum	Al₂O₃
O	ⓘ Coulsonite	Fe²⁺V₂³⁺O₄
O	ⓘ Diopside	CaMgSi₂O₆
O	ⓘ Dmisteinbergite	Ca(Al₂Si₂O₈)
O	ⓘ Enstatite	Mg₂Si₂O₆
O	ⓘ Fayalite	Fe₂²⁺(SiO₄)
O	ⓘ Forsterite	Mg₂(SiO₄)
O	ⓘ Gehlenite	Ca₂Al[AlSiO₇]
O	ⓘ Grossite	CaAl₄O₇
O	ⓘ Grossular	Ca₃Al₂(SiO₄)₃
O	ⓘ Hedenbergite	CaFe²⁺Si₂O₆
O	ⓘ Hercynite	Fe²⁺Al₂O₄
O	ⓘ Hibonite	CaAl₁₂O₁₉
O	ⓘ Ilmenite	Fe²⁺TiO₃
O	ⓘ Kamiokite	Fe₂Mo₃O₈
O	ⓘ Kirschsteinite	CaFe²⁺(SiO₄)
O	ⓘ Magnetite	Fe²⁺Fe₂³⁺O₄
O	ⓘ Margarite	CaAl₂(Al₂Si₂O₁₀)(OH)₂
O	ⓘ Monticellite	CaMg(SiO₄)
O	ⓘ Mullite	Al_4+2xSi_2-2xO_10-x
O	ⓘ Montmorillonite	(Na,Ca)_0.33(Al,Mg)₂(Si₄O₁₀)(OH)₂ · nH₂O
O	ⓘ Nepheline	Na₃K(Al₄Si₄O₁₆)
O	ⓘ Perovskite	CaTiO₃
O	ⓘ Pigeonite	(Ca_xMg_yFe_z)(Mg_y1Fe_z1)Si₂O₆
O	ⓘ Rhönite	Ca₄[Mg₈Fe₂³⁺Ti₂]O₄[Si₆Al₆O₃₆]
O	ⓘ Rutile	TiO₂
O	ⓘ Sodalite	Na₄(Si₃Al₃)O₁₂Cl
O	ⓘ Spinel	MgAl₂O₄
O	ⓘ Tazheranite	(Zr,Ti,Ca)(O,◻)₂
O	ⓘ Tschermakite	◻(Ca₂)(Mg₃Al₂)(Al₂Si₆O₂₂)(OH)₂
O	ⓘ Tugarinovite	MoO₂
O	ⓘ Wadalite	(Ca,Mg)₆(Al,Fe³⁺)₄((Si,Al)O₄)₃O₄Cl₃
O	ⓘ Wollastonite-2M	CaSiO₃
O	ⓘ Wollastonite	Ca₃(Si₃O₉)
O	ⓘ Merrillite	Ca₉NaMg(PO₄)₇
O	ⓘ Wollastonite-1A	CaSiO₃
O	ⓘ Fayalite-Forsterite Series
O	ⓘ Plagioclase	(Na,Ca)[(Si,Al)AlSi₂]O₈
O	ⓘ Augite var. Fassaite	(Ca,Na)(Mg,Fe²⁺,Al,Fe³⁺,Ti)[(Si,Al)₂O₆]
O	ⓘ Apatite	Ca₅(PO₄)₃A
O	ⓘ Olivine Group	M₂SiO₄
O	ⓘ Melilite Group	Ca₂M(XSiO₇)
O	ⓘ Barioperovskite	BaTiO₃
O	ⓘ Allendeite	Sc₄Zr₃O₁₂
O	ⓘ Tistarite	Ti₂³⁺O₃
O	ⓘ Davisite	CaScAlSiO₆
O	ⓘ Kushiroite	CaAlAlSiO₆
O	ⓘ Grossmanite	CaTi³⁺ AlSiO₆
O	ⓘ Chihuahuaite	FeAl₁₂O₁₉
O	ⓘ Eringaite	Ca₃Sc₂(SiO₄)₃
O	ⓘ Panguite	(Ti,Al,Sc,Mg,Zr,Ca)_1.8O₃
O	ⓘ Kangite	(Sc,Ti,Al,Zr,Mg,Ca,◻)₂O₃
O	ⓘ Majindeite	Mg₂Mo₃O₈
O	ⓘ Hutcheonite	Ca₃Ti₂(SiO₄)(AlO₄)₂
O	ⓘ Paqueite	Ca₃TiSi₂(Al,Ti,Si)₃O₁₄
O	ⓘ Burnettite	CaVAlSiO₆
O	ⓘ Adrianite	Ca₁₂(Al₄Mg₃Si₇)O₃₂Cl₆
O	ⓘ Beckettite	Ca₂V₆Al₆O₂₀
O	ⓘ UM1971-21-SiO:AlCaMgTi	Ca₄(Mg₇AlTi₂³⁺Ti₂⁴⁺)O₄[Si₅Al₇O₃₆]
O	ⓘ UM1978-08-O:AlCaCrFeMgTi	(Ti³⁺,Cr,Al,Ca,Mg,Fe)(Ti)_2-3O₇
O	ⓘ Rubinite	Ca₃Ti₂³⁺(SiO₄)₃
O	ⓘ Kaitianite	Ti₂³⁺Ti⁴⁺O₅
O	ⓘ Jianmuite	ZrTi⁴⁺Ti₅³⁺Al₃O₁₆
Na	Sodium
Na	ⓘ Aenigmatite	Na₄[Fe₁₀²⁺Ti₂]O₄[Si₁₂O₃₆]
Na	ⓘ Montmorillonite	(Na,Ca)_0.33(Al,Mg)₂(Si₄O₁₀)(OH)₂ · nH₂O
Na	ⓘ Nepheline	Na₃K(Al₄Si₄O₁₆)
Na	ⓘ Sodalite	Na₄(Si₃Al₃)O₁₂Cl
Na	ⓘ Merrillite	Ca₉NaMg(PO₄)₇
Na	ⓘ Plagioclase	(Na,Ca)[(Si,Al)AlSi₂]O₈
Na	ⓘ Augite var. Fassaite	(Ca,Na)(Mg,Fe²⁺,Al,Fe³⁺,Ti)[(Si,Al)₂O₆]
Mg	Magnesium
Mg	ⓘ Armalcolite	MgTi₂⁴⁺O₅
Mg	ⓘ Augite	(Ca_xMg_yFe_z)(Mg_y1Fe_z1)Si₂O₆
Mg	ⓘ Clintonite	CaAlMg₂(SiAl₃O₁₀)(OH)₂
Mg	ⓘ Diopside	CaMgSi₂O₆
Mg	ⓘ Enstatite	Mg₂Si₂O₆
Mg	ⓘ Forsterite	Mg₂(SiO₄)
Mg	ⓘ Monticellite	CaMg(SiO₄)
Mg	ⓘ Montmorillonite	(Na,Ca)_0.33(Al,Mg)₂(Si₄O₁₀)(OH)₂ · nH₂O
Mg	ⓘ Pigeonite	(Ca_xMg_yFe_z)(Mg_y1Fe_z1)Si₂O₆
Mg	ⓘ Rhönite	Ca₄[Mg₈Fe₂³⁺Ti₂]O₄[Si₆Al₆O₃₆]
Mg	ⓘ Spinel	MgAl₂O₄
Mg	ⓘ Tschermakite	◻(Ca₂)(Mg₃Al₂)(Al₂Si₆O₂₂)(OH)₂
Mg	ⓘ Wadalite	(Ca,Mg)₆(Al,Fe³⁺)₄((Si,Al)O₄)₃O₄Cl₃
Mg	ⓘ Merrillite	Ca₉NaMg(PO₄)₇
Mg	ⓘ Fayalite-Forsterite Series
Mg	ⓘ Augite var. Fassaite	(Ca,Na)(Mg,Fe²⁺,Al,Fe³⁺,Ti)[(Si,Al)₂O₆]
Mg	ⓘ Panguite	(Ti,Al,Sc,Mg,Zr,Ca)_1.8O₃
Mg	ⓘ Majindeite	Mg₂Mo₃O₈
Mg	ⓘ Adrianite	Ca₁₂(Al₄Mg₃Si₇)O₃₂Cl₆
Mg	ⓘ UM1971-21-SiO:AlCaMgTi	Ca₄(Mg₇AlTi₂³⁺Ti₂⁴⁺)O₄[Si₅Al₇O₃₆]
Mg	ⓘ UM1978-08-O:AlCaCrFeMgTi	(Ti³⁺,Cr,Al,Ca,Mg,Fe)(Ti)_2-3O₇
Al	Aluminium
Al	ⓘ Anorthite	Ca(Al₂Si₂O₈)
Al	ⓘ Clintonite	CaAlMg₂(SiAl₃O₁₀)(OH)₂
Al	ⓘ Corundum	Al₂O₃
Al	ⓘ Dmisteinbergite	Ca(Al₂Si₂O₈)
Al	ⓘ Gehlenite	Ca₂Al[AlSiO₇]
Al	ⓘ Grossite	CaAl₄O₇
Al	ⓘ Grossular	Ca₃Al₂(SiO₄)₃
Al	ⓘ Hercynite	Fe²⁺Al₂O₄
Al	ⓘ Hibonite	CaAl₁₂O₁₉
Al	ⓘ Margarite	CaAl₂(Al₂Si₂O₁₀)(OH)₂
Al	ⓘ Mullite	Al_4+2xSi_2-2xO_10-x
Al	ⓘ Montmorillonite	(Na,Ca)_0.33(Al,Mg)₂(Si₄O₁₀)(OH)₂ · nH₂O
Al	ⓘ Nepheline	Na₃K(Al₄Si₄O₁₆)
Al	ⓘ Rhönite	Ca₄[Mg₈Fe₂³⁺Ti₂]O₄[Si₆Al₆O₃₆]
Al	ⓘ Sodalite	Na₄(Si₃Al₃)O₁₂Cl
Al	ⓘ Spinel	MgAl₂O₄
Al	ⓘ Tschermakite	◻(Ca₂)(Mg₃Al₂)(Al₂Si₆O₂₂)(OH)₂
Al	ⓘ Wadalite	(Ca,Mg)₆(Al,Fe³⁺)₄((Si,Al)O₄)₃O₄Cl₃
Al	ⓘ Plagioclase	(Na,Ca)[(Si,Al)AlSi₂]O₈
Al	ⓘ Augite var. Fassaite	(Ca,Na)(Mg,Fe²⁺,Al,Fe³⁺,Ti)[(Si,Al)₂O₆]
Al	ⓘ Davisite	CaScAlSiO₆
Al	ⓘ Kushiroite	CaAlAlSiO₆
Al	ⓘ Grossmanite	CaTi³⁺ AlSiO₆
Al	ⓘ Chihuahuaite	FeAl₁₂O₁₉
Al	ⓘ Panguite	(Ti,Al,Sc,Mg,Zr,Ca)_1.8O₃
Al	ⓘ Hutcheonite	Ca₃Ti₂(SiO₄)(AlO₄)₂
Al	ⓘ Paqueite	Ca₃TiSi₂(Al,Ti,Si)₃O₁₄
Al	ⓘ Burnettite	CaVAlSiO₆
Al	ⓘ Adrianite	Ca₁₂(Al₄Mg₃Si₇)O₃₂Cl₆
Al	ⓘ Beckettite	Ca₂V₆Al₆O₂₀
Al	ⓘ UM1971-21-SiO:AlCaMgTi	Ca₄(Mg₇AlTi₂³⁺Ti₂⁴⁺)O₄[Si₅Al₇O₃₆]
Al	ⓘ UM1978-08-O:AlCaCrFeMgTi	(Ti³⁺,Cr,Al,Ca,Mg,Fe)(Ti)_2-3O₇
Al	ⓘ Jianmuite	ZrTi⁴⁺Ti₅³⁺Al₃O₁₆
Si	Silicon
Si	ⓘ Aenigmatite	Na₄[Fe₁₀²⁺Ti₂]O₄[Si₁₂O₃₆]
Si	ⓘ Andradite	Ca₃Fe₂³⁺(SiO₄)₃
Si	ⓘ Anorthite	Ca(Al₂Si₂O₈)
Si	ⓘ Augite	(Ca_xMg_yFe_z)(Mg_y1Fe_z1)Si₂O₆
Si	ⓘ Baghdadite	Ca₆Zr₂(Si₂O₇)₂O₄
Si	ⓘ Clintonite	CaAlMg₂(SiAl₃O₁₀)(OH)₂
Si	ⓘ Diopside	CaMgSi₂O₆
Si	ⓘ Dmisteinbergite	Ca(Al₂Si₂O₈)
Si	ⓘ Enstatite	Mg₂Si₂O₆
Si	ⓘ Fayalite	Fe₂²⁺(SiO₄)
Si	ⓘ Forsterite	Mg₂(SiO₄)
Si	ⓘ Gehlenite	Ca₂Al[AlSiO₇]
Si	ⓘ Grossular	Ca₃Al₂(SiO₄)₃
Si	ⓘ Hedenbergite	CaFe²⁺Si₂O₆
Si	ⓘ Kirschsteinite	CaFe²⁺(SiO₄)
Si	ⓘ Margarite	CaAl₂(Al₂Si₂O₁₀)(OH)₂
Si	ⓘ Monticellite	CaMg(SiO₄)
Si	ⓘ Mullite	Al_4+2xSi_2-2xO_10-x
Si	ⓘ Montmorillonite	(Na,Ca)_0.33(Al,Mg)₂(Si₄O₁₀)(OH)₂ · nH₂O
Si	ⓘ Nepheline	Na₃K(Al₄Si₄O₁₆)
Si	ⓘ Pigeonite	(Ca_xMg_yFe_z)(Mg_y1Fe_z1)Si₂O₆
Si	ⓘ Rhönite	Ca₄[Mg₈Fe₂³⁺Ti₂]O₄[Si₆Al₆O₃₆]
Si	ⓘ Sodalite	Na₄(Si₃Al₃)O₁₂Cl
Si	ⓘ Tschermakite	◻(Ca₂)(Mg₃Al₂)(Al₂Si₆O₂₂)(OH)₂
Si	ⓘ Wadalite	(Ca,Mg)₆(Al,Fe³⁺)₄((Si,Al)O₄)₃O₄Cl₃
Si	ⓘ Wollastonite-2M	CaSiO₃
Si	ⓘ Wollastonite	Ca₃(Si₃O₉)
Si	ⓘ Wollastonite-1A	CaSiO₃
Si	ⓘ Fayalite-Forsterite Series
Si	ⓘ Plagioclase	(Na,Ca)[(Si,Al)AlSi₂]O₈
Si	ⓘ Augite var. Fassaite	(Ca,Na)(Mg,Fe²⁺,Al,Fe³⁺,Ti)[(Si,Al)₂O₆]
Si	ⓘ Olivine Group	M₂SiO₄
Si	ⓘ Melilite Group	Ca₂M(XSiO₇)
Si	ⓘ Davisite	CaScAlSiO₆
Si	ⓘ Kushiroite	CaAlAlSiO₆
Si	ⓘ Grossmanite	CaTi³⁺ AlSiO₆
Si	ⓘ Eringaite	Ca₃Sc₂(SiO₄)₃
Si	ⓘ Hutcheonite	Ca₃Ti₂(SiO₄)(AlO₄)₂
Si	ⓘ Paqueite	Ca₃TiSi₂(Al,Ti,Si)₃O₁₄
Si	ⓘ Burnettite	CaVAlSiO₆
Si	ⓘ Adrianite	Ca₁₂(Al₄Mg₃Si₇)O₃₂Cl₆
Si	ⓘ UM1971-21-SiO:AlCaMgTi	Ca₄(Mg₇AlTi₂³⁺Ti₂⁴⁺)O₄[Si₅Al₇O₃₆]
Si	ⓘ Rubinite	Ca₃Ti₂³⁺(SiO₄)₃
P	Phosphorus
P	ⓘ Merrillite	Ca₉NaMg(PO₄)₇
P	ⓘ Apatite	Ca₅(PO₄)₃A
P	ⓘ Monipite	MoNiP
S	Sulfur
S	ⓘ Baryte	BaSO₄
S	ⓘ Heazlewoodite	Ni₃S₂
S	ⓘ Molybdenite	MoS₂
S	ⓘ Pentlandite	(Ni_xFe_y)_Σ9S₈
S	ⓘ Pyrrhotite	Fe_1-xS
S	ⓘ Troilite	FeS
S	ⓘ Nuwaite	Ni₆GeS₂
S	ⓘ Butianite	Ni₆SnS₂
Cl	Chlorine
Cl	ⓘ Sodalite	Na₄(Si₃Al₃)O₁₂Cl
Cl	ⓘ Wadalite	(Ca,Mg)₆(Al,Fe³⁺)₄((Si,Al)O₄)₃O₄Cl₃
Cl	ⓘ Adrianite	Ca₁₂(Al₄Mg₃Si₇)O₃₂Cl₆
K	Potassium
K	ⓘ Nepheline	Na₃K(Al₄Si₄O₁₆)
Ca	Calcium
Ca	ⓘ Andradite	Ca₃Fe₂³⁺(SiO₄)₃
Ca	ⓘ Anorthite	Ca(Al₂Si₂O₈)
Ca	ⓘ Augite	(Ca_xMg_yFe_z)(Mg_y1Fe_z1)Si₂O₆
Ca	ⓘ Baghdadite	Ca₆Zr₂(Si₂O₇)₂O₄
Ca	ⓘ Calcite	CaCO₃
Ca	ⓘ Clintonite	CaAlMg₂(SiAl₃O₁₀)(OH)₂
Ca	ⓘ Diopside	CaMgSi₂O₆
Ca	ⓘ Dmisteinbergite	Ca(Al₂Si₂O₈)
Ca	ⓘ Gehlenite	Ca₂Al[AlSiO₇]
Ca	ⓘ Grossite	CaAl₄O₇
Ca	ⓘ Grossular	Ca₃Al₂(SiO₄)₃
Ca	ⓘ Hedenbergite	CaFe²⁺Si₂O₆
Ca	ⓘ Hibonite	CaAl₁₂O₁₉
Ca	ⓘ Kirschsteinite	CaFe²⁺(SiO₄)
Ca	ⓘ Margarite	CaAl₂(Al₂Si₂O₁₀)(OH)₂
Ca	ⓘ Monticellite	CaMg(SiO₄)
Ca	ⓘ Montmorillonite	(Na,Ca)_0.33(Al,Mg)₂(Si₄O₁₀)(OH)₂ · nH₂O
Ca	ⓘ Perovskite	CaTiO₃
Ca	ⓘ Pigeonite	(Ca_xMg_yFe_z)(Mg_y1Fe_z1)Si₂O₆
Ca	ⓘ Rhönite	Ca₄[Mg₈Fe₂³⁺Ti₂]O₄[Si₆Al₆O₃₆]
Ca	ⓘ Tazheranite	(Zr,Ti,Ca)(O,◻)₂
Ca	ⓘ Tschermakite	◻(Ca₂)(Mg₃Al₂)(Al₂Si₆O₂₂)(OH)₂
Ca	ⓘ Wadalite	(Ca,Mg)₆(Al,Fe³⁺)₄((Si,Al)O₄)₃O₄Cl₃
Ca	ⓘ Wollastonite-2M	CaSiO₃
Ca	ⓘ Wollastonite	Ca₃(Si₃O₉)
Ca	ⓘ Merrillite	Ca₉NaMg(PO₄)₇
Ca	ⓘ Wollastonite-1A	CaSiO₃
Ca	ⓘ Plagioclase	(Na,Ca)[(Si,Al)AlSi₂]O₈
Ca	ⓘ Augite var. Fassaite	(Ca,Na)(Mg,Fe²⁺,Al,Fe³⁺,Ti)[(Si,Al)₂O₆]
Ca	ⓘ Apatite	Ca₅(PO₄)₃A
Ca	ⓘ Melilite Group	Ca₂M(XSiO₇)
Ca	ⓘ Davisite	CaScAlSiO₆
Ca	ⓘ Kushiroite	CaAlAlSiO₆
Ca	ⓘ Grossmanite	CaTi³⁺ AlSiO₆
Ca	ⓘ Eringaite	Ca₃Sc₂(SiO₄)₃
Ca	ⓘ Panguite	(Ti,Al,Sc,Mg,Zr,Ca)_1.8O₃
Ca	ⓘ Hutcheonite	Ca₃Ti₂(SiO₄)(AlO₄)₂
Ca	ⓘ Paqueite	Ca₃TiSi₂(Al,Ti,Si)₃O₁₄
Ca	ⓘ Burnettite	CaVAlSiO₆
Ca	ⓘ Adrianite	Ca₁₂(Al₄Mg₃Si₇)O₃₂Cl₆
Ca	ⓘ Beckettite	Ca₂V₆Al₆O₂₀
Ca	ⓘ UM1971-21-SiO:AlCaMgTi	Ca₄(Mg₇AlTi₂³⁺Ti₂⁴⁺)O₄[Si₅Al₇O₃₆]
Ca	ⓘ UM1978-08-O:AlCaCrFeMgTi	(Ti³⁺,Cr,Al,Ca,Mg,Fe)(Ti)_2-3O₇
Ca	ⓘ Rubinite	Ca₃Ti₂³⁺(SiO₄)₃
Sc	Scandium
Sc	ⓘ Allendeite	Sc₄Zr₃O₁₂
Sc	ⓘ Davisite	CaScAlSiO₆
Sc	ⓘ Eringaite	Ca₃Sc₂(SiO₄)₃
Sc	ⓘ Panguite	(Ti,Al,Sc,Mg,Zr,Ca)_1.8O₃
Sc	ⓘ Kangite	(Sc,Ti,Al,Zr,Mg,Ca,◻)₂O₃
Ti	Titanium
Ti	ⓘ Aenigmatite	Na₄[Fe₁₀²⁺Ti₂]O₄[Si₁₂O₃₆]
Ti	ⓘ Armalcolite	MgTi₂⁴⁺O₅
Ti	ⓘ Ilmenite	Fe²⁺TiO₃
Ti	ⓘ Khamrabaevite	(Ti,V,Fe)C
Ti	ⓘ Perovskite	CaTiO₃
Ti	ⓘ Rhönite	Ca₄[Mg₈Fe₂³⁺Ti₂]O₄[Si₆Al₆O₃₆]
Ti	ⓘ Rutile	TiO₂
Ti	ⓘ Tazheranite	(Zr,Ti,Ca)(O,◻)₂
Ti	ⓘ Augite var. Fassaite	(Ca,Na)(Mg,Fe²⁺,Al,Fe³⁺,Ti)[(Si,Al)₂O₆]
Ti	ⓘ Barioperovskite	BaTiO₃
Ti	ⓘ Tistarite	Ti₂³⁺O₃
Ti	ⓘ Grossmanite	CaTi³⁺ AlSiO₆
Ti	ⓘ Panguite	(Ti,Al,Sc,Mg,Zr,Ca)_1.8O₃
Ti	ⓘ Hutcheonite	Ca₃Ti₂(SiO₄)(AlO₄)₂
Ti	ⓘ Paqueite	Ca₃TiSi₂(Al,Ti,Si)₃O₁₄
Ti	ⓘ UM1971-21-SiO:AlCaMgTi	Ca₄(Mg₇AlTi₂³⁺Ti₂⁴⁺)O₄[Si₅Al₇O₃₆]
Ti	ⓘ UM1978-08-O:AlCaCrFeMgTi	(Ti³⁺,Cr,Al,Ca,Mg,Fe)(Ti)_2-3O₇
Ti	ⓘ Rubinite	Ca₃Ti₂³⁺(SiO₄)₃
Ti	ⓘ Kaitianite	Ti₂³⁺Ti⁴⁺O₅
Ti	ⓘ Jianmuite	ZrTi⁴⁺Ti₅³⁺Al₃O₁₆
V	Vanadium
V	ⓘ Coulsonite	Fe²⁺V₂³⁺O₄
V	ⓘ Khamrabaevite	(Ti,V,Fe)C
V	ⓘ Burnettite	CaVAlSiO₆
V	ⓘ Beckettite	Ca₂V₆Al₆O₂₀
Cr	Chromium
Cr	ⓘ Chromite	Fe²⁺Cr₂³⁺O₄
Cr	ⓘ UM1978-08-O:AlCaCrFeMgTi	(Ti³⁺,Cr,Al,Ca,Mg,Fe)(Ti)_2-3O₇
Fe	Iron
Fe	ⓘ Aenigmatite	Na₄[Fe₁₀²⁺Ti₂]O₄[Si₁₂O₃₆]
Fe	ⓘ Andradite	Ca₃Fe₂³⁺(SiO₄)₃
Fe	ⓘ Augite	(Ca_xMg_yFe_z)(Mg_y1Fe_z1)Si₂O₆
Fe	ⓘ Awaruite	Ni₃Fe
Fe	ⓘ Chromite	Fe²⁺Cr₂³⁺O₄
Fe	ⓘ Coulsonite	Fe²⁺V₂³⁺O₄
Fe	ⓘ Fayalite	Fe₂²⁺(SiO₄)
Fe	ⓘ Hedenbergite	CaFe²⁺Si₂O₆
Fe	ⓘ Hercynite	Fe²⁺Al₂O₄
Fe	ⓘ Ilmenite	Fe²⁺TiO₃
Fe	ⓘ Native Iron	Fe
Fe	ⓘ Native Iron var. Kamacite	(Fe,Ni)
Fe	ⓘ Kamiokite	Fe₂Mo₃O₈
Fe	ⓘ Khamrabaevite	(Ti,V,Fe)C
Fe	ⓘ Kirschsteinite	CaFe²⁺(SiO₄)
Fe	ⓘ Magnetite	Fe²⁺Fe₂³⁺O₄
Fe	ⓘ Pentlandite	(Ni_xFe_y)_Σ9S₈
Fe	ⓘ Pigeonite	(Ca_xMg_yFe_z)(Mg_y1Fe_z1)Si₂O₆
Fe	ⓘ Pyrrhotite	Fe_1-xS
Fe	ⓘ Rhönite	Ca₄[Mg₈Fe₂³⁺Ti₂]O₄[Si₆Al₆O₃₆]
Fe	ⓘ Taenite	(Ni,Fe)
Fe	ⓘ Troilite	FeS
Fe	ⓘ Wadalite	(Ca,Mg)₆(Al,Fe³⁺)₄((Si,Al)O₄)₃O₄Cl₃
Fe	ⓘ Fayalite-Forsterite Series
Fe	ⓘ Augite var. Fassaite	(Ca,Na)(Mg,Fe²⁺,Al,Fe³⁺,Ti)[(Si,Al)₂O₆]
Fe	ⓘ Hexamolybdenum	(Mo,Ru,Fe,Ir,Os)
Fe	ⓘ Chihuahuaite	FeAl₁₂O₁₉
Fe	ⓘ UM1978-08-O:AlCaCrFeMgTi	(Ti³⁺,Cr,Al,Ca,Mg,Fe)(Ti)_2-3O₇
Ni	Nickel
Ni	ⓘ Awaruite	Ni₃Fe
Ni	ⓘ Heazlewoodite	Ni₃S₂
Ni	ⓘ Native Iron var. Kamacite	(Fe,Ni)
Ni	ⓘ Pentlandite	(Ni_xFe_y)_Σ9S₈
Ni	ⓘ Taenite	(Ni,Fe)
Ni	ⓘ Monipite	MoNiP
Ni	ⓘ Nuwaite	Ni₆GeS₂
Ni	ⓘ Butianite	Ni₆SnS₂
Ge	Germanium
Ge	ⓘ Nuwaite	Ni₆GeS₂
Zr	Zirconium
Zr	ⓘ Baddeleyite	ZrO₂
Zr	ⓘ Baghdadite	Ca₆Zr₂(Si₂O₇)₂O₄
Zr	ⓘ Tazheranite	(Zr,Ti,Ca)(O,◻)₂
Zr	ⓘ Allendeite	Sc₄Zr₃O₁₂
Zr	ⓘ Panguite	(Ti,Al,Sc,Mg,Zr,Ca)_1.8O₃
Zr	ⓘ Jianmuite	ZrTi⁴⁺Ti₅³⁺Al₃O₁₆
Mo	Molybdenum
Mo	ⓘ Kamiokite	Fe₂Mo₃O₈
Mo	ⓘ Molybdenite	MoS₂
Mo	ⓘ Tugarinovite	MoO₂
Mo	ⓘ Hexamolybdenum	(Mo,Ru,Fe,Ir,Os)
Mo	ⓘ Monipite	MoNiP
Mo	ⓘ Majindeite	Mg₂Mo₃O₈
Ru	Ruthenium
Ru	ⓘ Hexamolybdenum	(Mo,Ru,Fe,Ir,Os)
Sn	Tin
Sn	ⓘ Butianite	Ni₆SnS₂
Ba	Barium
Ba	ⓘ Baryte	BaSO₄
Ba	ⓘ Barioperovskite	BaTiO₃
Re	Rhenium
Re	ⓘ Native Rhenium	Re
Os	Osmium
Os	ⓘ Hexamolybdenum	(Mo,Ru,Fe,Ir,Os)
Ir	Iridium
Ir	ⓘ Hexamolybdenum	(Mo,Ru,Fe,Ir,Os)

Other Databases

Wikipedia:	https://en.wikipedia.org/wiki/Allende_meteorite
Wikidata ID:	Q1930079

Other Regions, Features and Areas containing this locality

North AmericaContinent

North America PlateTectonic Plate

Sierra Madre OrientalWide Rift

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References

Fuchs, Louis H. (1971) Occurrence of wollastonite, rhönite, and andradite in the Allende meteorite. American Mineralogist, 56 (11-12) 2053-2068

Grossman, Lawrence (1975) Petrography and mineral chemistry of Ca-rich inclusions in the Allende meteorite. Geochimica et Cosmochimica Acta, 39 (4) 433-454 doi:10.1016/0016-7037(75)90099-x

El Goresy, A., Nagel, K., Dominik, B., Ramdohr, P. (1977) Fremdlinge: Potential Presolar Material in Ca, Al rich inclusions of Allende. Meteoritics: 12: 215-216.

Murrell, M.T, Burnett, D.S (1987) Actinide chemistry in Allende Ca-Al-rich inclusions. Geochimica et Cosmochimica Acta, 51 (4). 985-999 doi:10.1016/0016-7037(87)90110-4

Becker L., Bunch T.E. (1997) Fullerenes, fulleranes and polycyclic aromatic hydrocarbons in the Allende meteorite. Meteoritics & Planetary Science: 32(4): 479-487.

Fisenko, A.V., L.F. Semenova (1997) On the Selection of Chondrites for Studying Interstellar Diamond. Vernadsky Institute of Geochemistry and Analytical Chemistry, Russian Academy of Sciences.

Brearley, A.J., Jones, R.H. (1998) Chondritic Meteorites. In: Planetary Materials (Papike, J. J., Editor): Chapter 3, 398 pages. Mineralogical Society of America: Washington, DC, USA.

Imai, H., Yurimoto, H. (2000) Distribution of oxygen isotopes in an amoeboid olivine aggregate from the Allende meteorite. Antarctic Meteorites XXV. Papers presented at the 25th Symposium on Antarctic Meteorites, NIPR, Tokyo, June 21-23, 2000: 29-31.

Brenker, F.E., Krot, A.N. (2002) Evidence for a high temperature episode during multistage alteration of Allende dark inclusions. 65th Annual Meteoritical Society Meeting, 5053.pdf (Abs.) http://www.lpi.usra.edu/meetings/metsoc2002/pdf/5053.pdf

Ma, C., Beckett, J.R., Rossman, G.R. (2009) Discovery of a Mg-dominant analogue of kamiokite, Mg2Mo3O8, a new mineral from an Allende type B1 CAI. Meteoritics and Planetary Science: 44: A128.

Beckett, J., Rossman, G.R. (2009) Discovery of a new phosphide mineral, Monipite (MoNiP) in an Allende Type B1 CAI. 72nd Annual Meteorical Society Meeting Abstracts: 5090.

Ma, C., Beckett, J.R., Rossman, G.R. (2009) Allendeite and Hexamolybdenum: Two New Ultra-Refractory Minerals in Allende and Two Missing Links. 40th Lunar and Planetary Science Conference.

Ma, C., Rossman, G. R. (2009) Tistarite, Ti₂O₃, a new refractory mineral from the Allende meteorite. American Mineralogist, 94 (5) 841-844 doi:10.2138/am.2009.3203

Ma, C., Rossman, G. R. (2009) Davisite, CaScAlSiO6, a new pyroxene from the Allende meteorite. American Mineralogist, 94 (5) 845-848 doi:10.2138/am.2009.3209

Ma, C., Rossman, G. R. (2009) Grossmanite, CaTi³⁺AlSiO₆, a new pyroxene from the Allende meteorite. American Mineralogist, 94 (10) 1491-1494 doi:10.2138/am.2009.3310

Ma, C. (2010) Hibonite-(Fe), (Fe,Mg)Al₁₂O₁₉, a new alteration mineral from the Allende meteorite. American Mineralogist, 95 (1) 188-191 doi:10.2138/am.2010.3365

Ma, C., Beckett, J. R., Rossman, G. R. (2014) Monipite, MoNiP, a new phosphide mineral in a Ca-Al-rich inclusion from the Allende meteorite. American Mineralogist, 99 (1) 198-205 doi:10.2138/am.2014.4512

Ma, C., Krot, A. N. (2014) Hutcheonite, Ca₃Ti₂(SiAl₂)O₁₂, a new garnet mineral from the Allende meteorite: An alteration phase in a Ca-Al-rich inclusion. American Mineralogist, 99 (4) 667-670 doi:10.2138/am.2014.4761

Ma, C. (2015) Discovery of nuwaite, Ni6GeS2, a new alteration mineral in Allende. 78th Annual Meeting of the Meteoritical Society: PDF no. 5151.

Ma, C., Beckett, J.R. (2015) Burnettite, CaVAlSiO6, and paqueite, Ca3TiSi2(Al2Ti)O14, two new minerals from Allende: clues to the evolution of a V-rich Ca-Al-rich inclusion. 47th Lunar and Planetary Science Conference: PDF no. 1595.

Hålenius, U., Hatert, F., Pasero, M., Mills, S.J. (2016) New minerals and nomenclature modifications approved in 2016, CNMNC Newsletter no 30. Mineralogical Magazine, 80 (2) 407-413 doi:10.1180/minmag.2016.080.081

Ma, C., Paque, J., Tschauner, O. (2016) Discovery of beckettite, Ca2V6Al6O20, a new alteration mineral in a V-rich Ca-Al-rich inclusion from Allende. Lunar and Planetary Science Conference: 47: PDF no.1704.

Ma, Chi, Beckett, John R. (2016) Majindeite, Mg₂Mo₃O₈, a new mineral from the Allende meteorite and a witness to post-crystallization oxidation of a Ca-Al-rich refractory inclusion. American Mineralogist, 101 (5) 1161-1170 doi:10.2138/am-2016-5399

Hålenius, U., Hatert, F., Pasero, M., Mills, S. J. (2018) New minerals and nomenclature modifications approved in 2018. Mineralogical Magazine, 82 (2). 445-451 doi:10.1180/mgm.2018.71

Ma, C., Beckett, J.R. (2020) Kaitianite, Ti3+2Ti4+O5 a new titanium oxide mineral from Allende. Meteoritics & Planetary Science: 1-12.

Ivanova, M. A. (2023) Principal Studies of the First Solid Material Formed in the Early Solar System: A Review. Geochemistry International, 61 (8) 781-909 doi:10.1134/s0016702923080037

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Allende meteorite, Pueblito de Allende, Chihuahua, MexicoiRegional Level TypesAllende meteoriteMeteorite Fall Location Pueblito de Allende- not defined - ChihuahuaState MexicoCountry function showexplain() { $("#locexplain").toggle(); if (typeof movemap === "function") movemap(); }

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Allende meteorite, Pueblito de Allende, Chihuahua, Mexico i
Regional Level Types
Allende meteorite Meteorite Fall Location
Pueblito de Allende - not defined -
Chihuahua State
Mexico Country