The old, unique C1 chondrite Flensburg – Insight into the first processes of aqueous alteration, brecciation, and the diversity of water-bearing parent bodies and lithologies
暂无分享,去创建一个
M. Trieloff | W. Neumann | D. Heinlein | P. Schmitt‐Kopplin | J. Gattacceca | H. Busemann | T. Kleine | N. Hertkorn | A. Wallner | A. Jull | D. Harries | D. Foustoukos | J. Godinho | T. Ludwig | J. Barrat | A. Pack | S. Merchel | G. Rugel | M. Schönbächler | A. Bischoff | M. Reitze | C. Alexander | M. Patzek | D. Degering | T. Fockenberg | S. Pavetich | C. Burkhardt | K. Wimmer | A. King | J. Lachner | D. Koll | T. Di Rocco | T. D. Rocco | I. Kerraouch | P. Morino | C. Schmidt | E. Wölfer | M. Fischer | J. Hellmann | M. Rüfenacht | C. Mertens | Anja Holm | W. Neumann | T. Rocco | C. A. Mertens
[1] T. Kleine,et al. Origin of volatile element depletion among carbonaceous chondrites , 2020, Earth and Planetary Science Letters.
[2] M. Trieloff,et al. Microporosity and parent body of the rubble-pile NEA (162173) Ryugu , 2020, Icarus.
[3] H. Hiesinger,et al. Mid-infrared reflectance spectroscopy of carbonaceous chondrites and Calcium–Aluminum-rich inclusions , 2020, Planetary and Space Science.
[4] A. Bischoff,et al. Classification of CM chondrite breccias—Implications for the evaluation of samples from the OSIRIS‐REx and Hayabusa 2 missions , 2020, Meteoritics & Planetary Science.
[5] I. Franchi,et al. Linking asteroids and meteorites to the primordial planetesimal population , 2020, Geochimica et Cosmochimica Acta.
[6] E. A. Lima,et al. Evidence for Asteroid Scattering and Distal Solar System Solids From Meteorite Paleomagnetism , 2020, The Astrophysical Journal.
[7] P. Hoppe,et al. Hydrogen isotopic composition of CI- and CM-like clasts from meteorite breccias – Sampling unknown sources of carbonaceous chondrite materials , 2020 .
[8] F. Torab,et al. Triple oxygen isotope variations in magnetite from iron-oxide deposits, central Iran, record magmatic fluid interaction with evaporite and carbonate host rocks , 2020 .
[9] A. Brearley,et al. Altered primary iron sulfides in CM2 and CR2 carbonaceous chondrites: Insights into parent body processes , 2020, Meteoritics & Planetary Science.
[10] Z. Sharp,et al. An internally consistent triple oxygen isotope calibration of standards for silicates, carbonates and air relative to VSMOW2 and SLAP2 , 2020 .
[11] C. Russell,et al. Ceres’ partial differentiation: undifferentiated crust mixing with a water-rich mantle , 2020, Astronomy & Astrophysics.
[12] J. Borovička,et al. The Renchen L5-6 chondrite breccia – The first confirmed meteorite fall from Baden-Württemberg (Germany) , 2019, Geochemistry.
[13] M. Zolensky,et al. A light, chondritic xenolith in the Murchison (CM) chondrite – Formation by fluid-assisted percolation during metasomatism? , 2019, Geochemistry.
[14] S. Tikoo,et al. Paleomagnetism of the Orgueil and Ivuna meteorites and implications for the evolution of the CI chondrite parent body , 2019 .
[15] S. Russell,et al. Linking mineralogy and spectroscopy of highly aqueously altered CM and CI carbonaceous chondrites in preparation for primitive asteroid sample return , 2019, Meteoritics & Planetary Science.
[16] E. Hauri,et al. Calcite and dolomite formation in the CM parent body: Insight from in situ C and O isotope analyses , 2019, Geochimica et Cosmochimica Acta.
[17] W. Neumann,et al. Differentiation of Enceladus and Retention of a Porous Core , 2019, The Astrophysical Journal.
[18] A. Bischoff,et al. Modal abundances of coarse-grained (>5 μm) components within CI-chondrites and their individual clasts – Mixing of various lithologies on the CI parent body(ies) , 2019 .
[19] T. Kleine,et al. Elemental and isotopic variability in solar system materials by mixing and processing of primordial disk reservoirs , 2019, Geochimica et Cosmochimica Acta.
[20] S. Sandford,et al. Brecciated Boulders: Evidence for Impact Mixing on Bennu's Parent Body , 2019 .
[21] A. Bischoff,et al. Classification of 13 CM Chondrite Breccias and CM Clasts in Two Achondrites , 2019 .
[22] H. Haack,et al. Ejby—A new H5/6 ordinary chondrite fall in Copenhagen, Denmark , 2019, Meteoritics & Planetary Science.
[23] C. Alexander. Quantitative models for the elemental and isotopic fractionations in chondrites: The carbonaceous chondrites , 2019, Geochimica et Cosmochimica Acta.
[24] K. Zuber,et al. The muon intensity in the Felsenkeller shallow underground laboratory , 2019, Astroparticle Physics.
[25] R. Jaumann,et al. Hayabusa2 arrives at the carbonaceous asteroid 162173 Ryugu—A spinning top–shaped rubble pile , 2019, Science.
[26] M. Yamada,et al. The surface composition of asteroid 162173 Ryugu from Hayabusa2 near-infrared spectroscopy , 2019, Science.
[27] Jia Liu,et al. Chromium Isotopic Evidence for an Early Formation of Chondrules from the Ornans CO Chondrite , 2019, The Astrophysical Journal.
[28] M. K. Crombie,et al. Evidence for widespread hydrated minerals on asteroid (101955) Bennu , 2019, Nature Astronomy.
[29] P. Hoppe,et al. Oxygen and Hydrogen Isotopic Evidence for the Existence of Several C1 Parent Bodies in the Early Solar System , 2019 .
[30] M. K. Crombie,et al. The Unexpected Surface of Asteroid (101955) Bennu , 2019, Nature.
[31] Y. Amelin,et al. Carbonaceous achondrites Northwest Africa 6704/6693: Milestones for early Solar System chronology and genealogy , 2019, Geochimica et Cosmochimica Acta.
[32] M. Menneken,et al. Temperature constraints by Raman spectroscopy of organic matter in volatile-rich clasts and carbonaceous chondrites , 2018, Geochimica et Cosmochimica Acta.
[33] A. Bischoff,et al. Shock stage distribution of 2280 ordinary chondrites—Can bulk chondrites with a shock stage of S6 exist as individual rocks? , 2018, Meteoritics & Planetary Science.
[34] N. Braukmüller,et al. The chemical composition of carbonaceous chondrites: Implications for volatile element depletion, complementarity and alteration , 2018, Geochimica et Cosmochimica Acta.
[35] R. Wieler,et al. Brecciation among 2280 ordinary chondrites – Constraints on the evolution of their parent bodies , 2018, Geochimica et Cosmochimica Acta.
[36] A. Maturilli,et al. What is controlling the reflectance spectra (0.35–150 µm) of hydrated (and dehydrated) carbonaceous chondrites? , 2018, Icarus.
[37] A. Brearley,et al. Primary iron sulfides in CM and CR carbonaceous chondrites: Insights into nebular processes , 2018 .
[38] M. Patzek,et al. Mineralogy of volatile‐rich clasts in brecciated meteorites , 2018, Meteoritics & Planetary Science.
[39] N. Kita,et al. Oxygen isotope systematics of chondrules in the Murchison CM2 chondrite and implications for the CO-CM relationship. , 2018, Geochimica et cosmochimica acta.
[40] P. Vermeesch. IsoplotR: A free and open toolbox for geochronology , 2018, Geoscience Frontiers.
[41] A. Bischoff,et al. Chemical variations of sulfides and metal in enstatite chondrites—Introduction of a new classification scheme , 2018 .
[42] C. Wöhler,et al. A Mid-Infrared Reflectance Database in Preparation for Space Missions , 2018 .
[43] T. Kleine,et al. Hf-W chronology of CR chondrites: Implications for the timescales of chondrule formation and the distribution of 26 Al in the solar nebula , 2018 .
[44] F. Moynier,et al. Chromium isotopic homogeneity between the Moon, the Earth, and enstatite chondrites , 2017, 1712.02627.
[45] J. Borovička,et al. Atmospheric trajectory and heliocentric orbit of the Ejby meteorite fall in Denmark on February 6, 2016 , 2017 .
[46] A. Bischoff,et al. Breccia Classification of CM Chondrites , 2017 .
[47] P. Bland,et al. Giant convecting mud balls of the early solar system , 2017, Science Advances.
[48] S. Russell,et al. Type 1 aqueous alteration in CM carbonaceous chondrites: Implications for the evolution of water‐rich asteroids , 2017 .
[49] P. Spurný,et al. The Stubenberg meteorite—An LL6 chondrite fragmental breccia recovered soon after precise prediction of the strewn field , 2017 .
[50] T. Kleine,et al. Mixing and Transport of Dust in the Early Solar Nebula as Inferred from Titanium Isotope Variations among Chondrules , 2017, 1705.03676.
[51] P. Heck,et al. In search of the Earth‐forming reservoir: Mineralogical, chemical, and isotopic characterizations of the ungrouped achondrite NWA 5363/NWA 5400 and selected chondrites , 2017 .
[52] M. Lane,et al. Petrogenesis and Provenance of Ungrouped Achondrite Northwest Africa 7325 from Petrology, Trace Elements, Oxygen, Chromium and Titanium Isotopes, and Mid-IR Spectroscopy. , 2017, Geochimica et cosmochimica acta.
[53] M. Caffee,et al. The Braunschweig meteorite − a recent L6 chondrite fall in Germany , 2017 .
[54] M. Zolensky,et al. The Relationship Between Cosmic-Ray Exposure Ages And Mixing Of CM Chondrite Lithologies , 2017 .
[55] V. Heber,et al. Matrix effects on the relative sensitivity factors for manganese and chromium during ion microprobe analysis of carbonate: Implications for early Solar System chronology , 2017 .
[56] K. Nagashima,et al. 53Mn–53Cr radiometric dating of secondary carbonates in CR chondrites: Timescales for parent body aqueous alteration , 2017 .
[57] L. Borg,et al. A renewed search for short-lived 126Sn in the early Solar System: Hydride generation MC-ICPMS for high sensitivity Te isotopic analysis , 2017 .
[58] R. Carlson,et al. The accretion and impact history of the ordinary chondrite parent bodies , 2017 .
[59] H. Haack,et al. Previously unknown class of metalorganic compounds revealed in meteorites , 2017, Proceedings of the National Academy of Sciences.
[60] A. Gurenko,et al. Oxygen isotope constraints on the alteration temperatures of CM chondrites , 2017 .
[61] M. Schodlok,et al. Characterisation of carbonate minerals from hyperspectral TIR scanning using features at 14 000 and 11 300 nm , 2016 .
[62] A. Davis,et al. A link between oxygen, calcium and titanium isotopes in 26 Al-poor hibonite-rich CAIs from Murchison and implications for the heterogeneity of dust reservoirs in the solar nebula , 2016 .
[63] J. Borovička,et al. Two Very Precisely Instrumentally Documented Meteorite Falls: Zdar nad Sazavou and Stubenberg - Prediction and Reality , 2016 .
[64] E. Shock,et al. A calibration of the triple oxygen isotope fractionation in the SiO2–H2O system and applications to natural samples , 2016 .
[65] E. Nakamura,et al. The oxygen isotope composition of San Carlos olivine on the VSMOW2-SLAP2 scale. , 2016, Rapid communications in mass spectrometry : RCM.
[66] P. Schmitt‐Kopplin,et al. Geochemistry of Dissolved Organic Matter in a Spatially Highly Resolved Groundwater Petroleum Hydrocarbon Plume Cross-Section. , 2016, Environmental science & technology.
[67] M. Zolensky,et al. Mineralogy of iron sulfides in CM1 and CI1 lithologies of the Kaidun breccia: Records of extreme to intense hydrothermal alteration , 2016 .
[68] A. Yamaguchi,et al. Evidence from Tm anomalies for non-CI refractory lithophile element proportions in terrestrial planets and achondrites , 2016 .
[69] S. Akhmadaliev,et al. The first four years of the AMS-facility DREAMS: Status and developments for more accurate radionuclide data , 2016 .
[70] Y. Guan,et al. Episodic carbonate precipitation in the CM chondrite ALH 84049: An ion microprobe analysis of O and C isotopes , 2016 .
[71] L. K. Fifield,et al. Recent near-Earth supernovae probed by global deposition of interstellar radioactive 60Fe , 2016, Nature.
[72] T. Spohn,et al. Modelling the internal structure of Ceres: Coupling of accretion with compaction by creep and implications for the water-rock differentiation , 2015 .
[73] M. Zolensky,et al. CM Carbonaceous Chondrite Lithologies and Their Space Exposure Ages , 2015 .
[74] K. Howard,et al. Modal mineralogy of CI and CI-like chondrites by X-ray diffraction , 2015 .
[75] P. Schmitt‐Kopplin,et al. Nontarget analysis of Murchison soluble organic matter by high‐field NMR spectroscopy and FTICR mass spectrometry , 2015, Magnetic resonance in chemistry : MRC.
[76] P. Spurný. Instrumentally documented meteorite falls: two recent cases and statistics from all falls , 2015, Proceedings of the International Astronomical Union.
[77] A. Yamaguchi,et al. Early stages of core segregation recorded by Fe isotopes in an asteroidal mantle , 2015 .
[78] T. Ireland,et al. Mn–Cr dating of Fe- and Ca-rich olivine from ‘quenched’ and ‘plutonic’ angrite meteorites using Secondary Ion Mass Spectrometry , 2015 .
[79] P. Povinec,et al. Cosmogenic nuclides in the Košice meteorite: Experimental investigations and Monte Carlo simulations , 2015 .
[80] A. Galy,et al. Mn–Cr systematics in primitive meteorites: Insights from mineral separation and partial dissolution , 2015 .
[81] Q. Yin,et al. Differentiated Planetesimals with Chondritic Crusts: New ∆17O-∊54Cr Evidence in Unique, Ungrouped Achondrites for Partial Melting of the CV/CK and CO Parent Bodies , 2015 .
[82] L. K. Fifield,et al. Settling the half-life of 60Fe: fundamental for a versatile astrophysical chronometer. , 2015, Physical review letters.
[83] K. A. Dyl,et al. Classification of hydrous meteorites (CR, CM and C2 ungrouped) by phyllosilicate fraction: PSD-XRD modal mineralogy and planetesimal environments , 2015 .
[84] B. Weiss,et al. An early solar system magnetic field recorded in CM chondrites , 2015 .
[85] P. Schmitt‐Kopplin,et al. Molecular characterization of dissolved organic matter from subtropical wetlands: a comparative study through the analysis of optical properties, NMR and FTICR/MS , 2014 .
[86] Martin R. Lee,et al. Aragonite, breunnerite, calcite and dolomite in the CM carbonaceous chondrites: High fidelity recorders of progressive parent body aqueous alteration , 2014 .
[87] Huifang Xu,et al. Si-magnetite nano-precipitates in silician magnetite from banded iron formation: Z-contrast imaging and ab initio study , 2014 .
[88] Huanting Hu,et al. Triple oxygen isotopes in biogenic and sedimentary carbonates , 2014 .
[89] M. Humayun,et al. Clues to the origin of metal in Almahata Sitta EL and EH chondrites and implications for primitive E chondrite thermal histories , 2014 .
[90] K. Nishiizumi,et al. Cosmic‐ray exposure ages of six chondritic Almahata Sitta fragments , 2014 .
[91] P. Schmitt‐Kopplin,et al. Water droplets in oil are microhabitats for microbial life , 2014, Science.
[92] B. Schmitt,et al. The abundance and stability of “water” in type 1 and 2 carbonaceous chondrites (CI, CM and CR) , 2014 .
[93] M. Bizzarro,et al. Precise measurement of chromium isotopes by MC-ICPMS. , 2014, Journal of Analytical Atomic Spectrometry.
[94] M. Millet,et al. Ultra-precise titanium stable isotope measurements by double-spike high resolution MC-ICP-MS , 2014 .
[95] A. Bischoff,et al. The Almahata Sitta polymict breccia and the late accretion of asteroid 2008 TC3 , 2014 .
[96] T. Hiroi,et al. MULTIPLE AND FAST: THE ACCRETION OF ORDINARY CHONDRITE PARENT BODIES , 2014, 1405.6850.
[97] W. Brand,et al. Assessment of international reference materials for isotope-ratio analysis (IUPAC Technical Report) , 2014 .
[98] A. Pack,et al. The triple oxygen isotope composition of the Earth mantle and understanding ΔO17 variations in terrestrial rocks and minerals , 2014 .
[99] C. Vollmer,et al. Tracking Aqueous Alteration of CM Chondrites —- Insights from In Situ Oxygen Isotope Measurements of Calcite , 2014 .
[100] M. Zolensky,et al. Petrographic, chemical and spectroscopic evidence for thermal metamorphism in carbonaceous chondrites I: CI and CM chondrites , 2014 .
[101] D. O'Brien,et al. Asteroid 2008 TC3 and the Fall of Almahata Sitta, a Unique Meteorite Breccia , 2014 .
[102] R. Bowden,et al. The classification of CM and CR chondrites using bulk H, C and N abundances and isotopic compositions , 2013 .
[103] Peter S. Gural,et al. Chelyabinsk Airburst, Damage Assessment, Meteorite Recovery, and Characterization , 2013, Science.
[104] I. Franchi,et al. The oxygen isotope evolution of parent body aqueous solutions as recorded by multiple carbonate generations in the Lonewolf Nunataks 94101 CM2 carbonaceous chondrite , 2013 .
[105] A. Bouvier,et al. Al-Mg Systematics in a CAI from the NWA 6991 CV3 Chondrite , 2013 .
[106] T. Spohn,et al. Modelling of compaction in planetesimals , 2013 .
[107] M. Zolensky,et al. Clasts in the CM2 carbonaceous chondrite Lonewolf Nunataks 94101: Evidence for aqueous alteration prior to complex mixing , 2013 .
[108] F. Langenhorst,et al. The nanoscale mineralogy of Fe,Ni sulfides in pristine and metamorphosed CM and CM/CI‐like chondrites: Tapping a petrogenetic record , 2013 .
[109] B. Michalke,et al. High-field NMR spectroscopy and FTICR mass spectrometry: powerful discovery tools for the molecular level characterization of marine dissolved organic matter , 2013 .
[110] R. Bowden,et al. Carbonate abundances and isotopic compositions in chondrites , 2013 .
[111] G. Libourel,et al. Aqueous alteration in CR chondrites: Meteorite parent body processes as analogue for long-term corrosion processes relevant for nuclear waste disposal , 2013 .
[112] B. Schmitz,et al. Large spinel grains in a CM chondrite (Acfer 331): Implications for reconstructions of ancient meteorite fluxes , 2013 .
[113] Y. Sano,et al. Mn–Cr ages of dolomites in CI chondrites and the Tagish Lake ungrouped carbonaceous chondrite , 2013 .
[114] N. Dauphas,et al. Abundance, distribution, and origin of 60Fe in the solar protoplanetary disk , 2012, 1212.1490.
[115] M. Bizzarro,et al. The Absolute Chronology and Thermal Processing of Solids in the Solar Protoplanetary Disk , 2012, Science.
[116] Paul F. McMillan,et al. New insights into the structure and chemistry of Titan's tholins via13C and 15N solid state nuclear magnetic resonance spectroscopy , 2012 .
[117] B. Reynard,et al. Creep of phyllosilicates at the onset of plate tectonics , 2012 .
[118] R. Bowden,et al. The Provenances of Asteroids, and Their Contributions to the Volatile Inventories of the Terrestrial Planets , 2012, Science.
[119] M. Wadhwa,et al. Uranium isotope compositions of the basaltic angrite meteorites and the chronological implications for the early Solar System , 2012, Proceedings of the National Academy of Sciences.
[120] F. Moynier,et al. Geochemistry of CI chondrites: Major and trace elements, and Cu and Zn Isotopes , 2012 .
[121] Andrew M. Davis,et al. The proto-Earth as a significant source of lunar material , 2012 .
[122] L. Leshin,et al. An oxygen isotope dichotomy in CM2 chondritic carbonates—A SIMS approach , 2012 .
[123] Y. Sano,et al. Evidence for the late formation of hydrous asteroids from young meteoritic carbonates , 2012, Nature Communications.
[124] A. Davis,et al. A new method for MC-ICPMS measurement of titanium isotopic composition: Identification of correlated isotope anomalies in meteorites , 2011 .
[125] A. Bouvier,et al. Absolute Chronology of the First Solids in the Solar System , 2011 .
[126] M. Gounelle,et al. THE CHROMIUM ISOTOPIC COMPOSITION OF THE UNGROUPED CARBONACEOUS CHONDRITE TAGISH LAKE , 2011 .
[127] M. Bizzarro,et al. EVIDENCE FOR MAGNESIUM ISOTOPE HETEROGENEITY IN THE SOLAR PROTOPLANETARY DISK , 2011 .
[128] J. Aponte,et al. Effects of secondary alteration on the composition of free and IOM-derived monocarboxylic acids in carbonaceous chondrites , 2011 .
[129] F. Langenhorst,et al. Translation interface modulation in NC-pyrrhotites: Direct imaging by TEM and a model toward understanding partially disordered structural states , 2011 .
[130] L. Y. Tseng,et al. Molecular characterization of effluent organic matter identified by ultrahigh resolution mass spectrometry. , 2011, Water research.
[131] Daniel P. Glavin,et al. The effects of parent body processes on amino acids in carbonaceous chondrites , 2010 .
[132] T. Iizuka,et al. U-Pb chronology of the Solar System's oldest solids with variable 238 U/ 235 U , 2010 .
[133] S. Maruyama,et al. 53Mn–53Cr CHRONOMETRY OF CB CHONDRITE: EVIDENCE FOR UNIFORM DISTRIBUTION OF 53Mn IN THE EARLY SOLAR SYSTEM , 2010 .
[134] M. Laubenstein,et al. Asteroid 2008 TC3—Almahata Sitta: A spectacular breccia containing many different ureilitic and chondritic lithologies , 2010 .
[135] A. Makishima,et al. CHROMIUM ISOTOPE SYSTEMATICS OF ACHONDRITES: CHRONOLOGY AND ISOTOPIC HETEROGENEITY OF THE INNER SOLAR SYSTEM BODIES , 2010 .
[136] L. Bonal,et al. Chondritic lithic clasts in the CB/CH-like meteorite Isheyevo: Fragments of previously unsampled parent bodies , 2010 .
[137] B. Schmitt,et al. Hydrous mineralogy of CM and CI chondrites from infrared spectroscopy and their relationship with low albedo asteroids , 2010 .
[138] Gerhard Eckel,et al. High molecular diversity of extraterrestrial organic matter in Murchison meteorite revealed 40 years after its fall , 2010, Proceedings of the National Academy of Sciences.
[139] R. Carlson,et al. Contributors to chromium isotope variation of meteorites , 2010 .
[140] G. Dollinger,et al. A new value for the half-life of 10Be by Heavy-Ion Elastic Recoil Detection and liquid scintillation counting , 2010 .
[141] A. Makishima,et al. Chemical separation and mass spectrometry of Cr, Fe, Ni, Zn, and Cu in terrestrial and extraterrestrial materials using thermal ionization mass spectrometry. , 2009, Analytical chemistry.
[142] P. Bland,et al. Modal mineralogy of CM2 chondrites by X-ray diffraction (PSD-XRD). Part 1: Total phyllosilicate abundance and the degree of aqueous alteration , 2009 .
[143] J. Masarik,et al. Cosmogenic nuclides in stony meteorites revisited , 2009 .
[144] M. Laubenstein,et al. A new low-level gamma-ray spectrometry system for environmental radioactivity at the underground laboratory Felsenkeller. , 2009, Applied radiation and isotopes : including data, instrumentation and methods for use in agriculture, industry and medicine.
[145] M. Bizzarro,et al. Origin of Nucleosynthetic Isotope Heterogeneity in the Solar Protoplanetary Disk , 2009, Science.
[146] J. Birck,et al. High-precision analysis of chromium isotopes in terrestrial and meteorite samples by thermal ionization mass spectrometry , 2008 .
[147] C. Göpel,et al. 53Mn–53Cr systematics of the early Solar System revisited , 2008 .
[148] R. Clayton,et al. Geochemistry, petrology and ages of the lunar meteorites Kalahari 008 and 009: New constraints on early lunar evolution , 2008 .
[149] J. Clerc,et al. Magnetic classification of stony meteorites: 2. Non‐ordinary chondrites , 2008 .
[150] B. Reynard,et al. High-Pressure Creep of Serpentine, Interseismic Deformation, and Initiation of Subduction , 2007, Science.
[151] J. Eiler,et al. Temperatures of aqueous alteration and evidence for methane generation on the parent bodies of the CM chondrites , 2007 .
[152] E. M. Perdue,et al. High-precision frequency measurements: indispensable tools at the core of the molecular-level analysis of complex systems , 2007, Analytical and bioanalytical chemistry.
[153] M. Weisberg,et al. The GRO 95577 CR1 chondrite and hydration of the CR parent body , 2007 .
[154] George D. Cody,et al. The origin and evolution of chondrites recorded in the elemental and isotopic compositions of their macromolecular organic matter , 2007 .
[155] K. Mezger,et al. Late accretion and lithification of chondritic parent bodies: Mg isotope studies on fragments from primitive chondrites and chondritic breccias , 2007 .
[156] Alan E. Rubin,et al. Progressive aqueous alteration of CM carbonaceous chondrites , 2007 .
[157] J. Birck,et al. Widespread 54Cr Heterogeneity in the Inner Solar System , 2007 .
[158] P. Ehrenfreund,et al. Amino acids in Antarctic CM1 meteorites and their relationship to other carbonaceous chondrites , 2007 .
[159] C. Floss,et al. Brecciation and chemical heterogeneities of CI chondrites , 2006 .
[160] A. Shukolyukov,et al. Manganese–chromium isotope systematics of carbonaceous chondrites , 2006 .
[161] P. Rochette,et al. In situ identification, pairing, and classification of meteorites from Antarctica through magnetic susceptibility measurements , 2006 .
[162] F. Wlotzka,et al. Cr spinel and chromite as petrogenetic indicators in ordinary chondrites: Equilibration temperatures of petrologic types 3.7 to 6 , 2005 .
[163] I. Bertini,et al. NMR Spectroscopy of Paramagnetic Metalloproteins , 2005, Chembiochem : a European journal of chemical biology.
[164] M. Zolensky,et al. Hydrogen isotopic composition of water from fossil micrometeorites in howardites , 2005 .
[165] Pierre Rochette,et al. Toward a robust normalized magnetic paleointensity method applied to meteorites , 2004 .
[166] P. Buseck,et al. Nanometer-scale measurements of Fe3+/ΣFe by electron energy-loss spectroscopy: A cautionary note , 2004 .
[167] A. Pelton,et al. Critical thermodynamic assessment and modeling of the Fe-Ni-S system , 2004 .
[168] J. Eiler,et al. Hydrogen isotope evidence for the origin and evolution of the carbonaceous chondrites 1 1 Associate , 2004 .
[169] M. Rehkämper,et al. Application of MC-ICPMS to the precise determination of tellurium isotope compositions in chondrites, iron meteorites and sulfides , 2004 .
[170] V. Alexeev. Meteorite Ablation Evaluated from Data on the Distribution of Cosmogenic Neon Isotopes , 2003 .
[171] M. Trieloff,et al. Structure and thermal history of the H-chondrite parent asteroid revealed by thermochronometry , 2003, Nature.
[172] Michael E. Zolensky,et al. Mineralogy of Tagish Lake: An ungrouped type 2 carbonaceous chondrite , 2002 .
[173] Ian A. Franchi,et al. Light dement geochemistry of the Tagish Lake CI2 chondrite: Comparison with CI1 and CM2 meteorites , 2002 .
[174] F. Senftle,et al. Magnetic study of magnetite in the Tagish Lake meteorite , 2002 .
[175] K. Keil,et al. Meteoritic parent bodies: Their number and identification , 2002 .
[176] T. Yamanaka,et al. Magnetic properties of the Fe2SiO4-Fe3O4 spinel solid solutions , 2001 .
[177] R. Wieler,et al. Primordial noble gases in “phase Q” in carbonaceous and ordinary chondrites studied by closed‐system stepped etching , 2000 .
[178] L. Schultz,et al. Noble gas record, collisional history, and pairing of CV, CO, CK, and other carbonaceous chondrites , 2000 .
[179] T. Faestermann,et al. Accelerator mass spectrometry measurements and model calculations of iron‐60 production rates in meteorites , 1999 .
[180] K. Keil,et al. Early aqueous alteration, explosive disruption, and reprocessing of asteroids , 1999 .
[181] R. Clayton,et al. Oxygen isotope studies of carbonaceous chondrites , 1999 .
[182] S. Merchel,et al. An Update on Radiochemical Separation Techniques for the Determination of Long-Lived Radionuclides via Accelerator Mass Spectrometry , 1999 .
[183] M. Grady. Meteorites: Flux With Time and Impact Effects , 1998 .
[184] A. Bischoff,et al. Aqueous alteration of carbonaceous chondrites: Evidence for preaccretionary alteration—A review , 1998 .
[185] B. Gleisberg,et al. Low-level counting techniques in the underground laboratory “Felsenkeller” in Dresden , 1998 .
[186] Michael E. Zolensky,et al. Correlated alteration effects in CM carbonaceous chondrites , 1996 .
[187] M. Zolensky,et al. The Kaidun meteorite: Mineralogy of an unusual CM1 lithology , 1996 .
[188] C. Tuniz,et al. Exposure history of the Torino meteorite , 1996 .
[189] E. Anders,et al. INTERSTELLAR GRAINS IN METEORITES : III. GRAPHITE AND ITS NOBLE GASES , 1995 .
[190] R. Clayton,et al. Oxygen isotopes in separated components of CI and CM meteorites , 1994 .
[191] G. Huss,et al. Noble gases in presolar diamonds I: Three distinct components and their implications for diamond origins , 1994 .
[192] M. Zolensky,et al. CM chondrites exhibit the complete petrologic range from type 2 to 1. [Abstract only] , 1994 .
[193] A. Rubin,et al. THE COMPOSITIONAL CLASSIFICATION OF CHONDRITES. VI: THE CR CARBONACEOUS CHONDRITE GROUP , 1994 .
[194] A. Bischoff,et al. Mineralogy, Degree of Brecciation, and Aqueous Alteration of CI Chondrites Orgueil, Ivuna, and Alais , 1993 .
[195] C. Johnson,et al. Carbonate compositions in CM and CI chondrites, and implications for aqueous alteration , 1993 .
[196] R. Clayton,et al. The CR (Renazzo-type) carbonaceous chondrite group and its implications , 1993 .
[197] A. Bischoff,et al. Shock metamorphism as a fundamental process in the evolution of planetary bodies; information from meteorites , 1992 .
[198] D. Stöffler,et al. Accretionary dust mantles in CM chondrites: Evidence for solar nebula processes , 1992 .
[199] K. Keil,et al. Shock metamorphism of ordinary chondrites , 1991 .
[200] John W. Salisbury,et al. Midinfrared (2.5–13.5 μm) reflectance spectra of powdered stony meteorites , 1991 .
[201] C. Johnson,et al. Chromite and olivine in type II chondrules in carbonaceous and ordinary chondrites: Implications for thermal histories and group differences , 1991 .
[202] E. Scott,et al. Shock metamorphism of carbonaceous chondrites , 1991 .
[203] H. McSween,et al. Water and the thermal evolution of carbonaceous chondrite parent bodies , 1989 .
[204] M. Zolensky,et al. Aqueous alteration on the hydrous asteroids - Results of EQ3/6 computer simulations , 1989 .
[205] C. Pillinger,et al. The carbon and oxygen isotopic composition of meteoritic carbonates , 1988 .
[206] R. Clayton,et al. A planetary, H-group pebble in the Barwell, L6, unshocked chondritic meteorite , 1988 .
[207] Peter R. Buseck,et al. Matrix mineralogy of the Orgueil CI carbonaceous chondrite , 1988 .
[208] J. Kerridge,et al. Carbonates and sulfates in CI chondrites: formation by aqueous activity on the parent body. , 1988, Meteoritics.
[209] R. Clayton,et al. Oxygen isotopic compositions of several Antarctic meteorites , 1987 .
[210] A. Rubin,et al. Chondrules in the Murray CM2 meteorite and compositional differences between CM-CO and ordinary chondrite chondrules , 1986 .
[211] J. Kerridge. Carbon, hydrogen and nitrogen in carbonaceous chondrites: abundances and isotopic compositions in bulk samples. , 1985, Geochimica et cosmochimica acta.
[212] S. Epstein,et al. Relic interstellar grains in Murchison meteorite , 1984, Nature.
[213] M. Zolensky,et al. Proposed structures for poorly characterized phases in C2M carbonaceous chondrite meteorites , 1984, Nature.
[214] R. Clayton,et al. The oxygen isotope record in Murchison and other carbonaceous chondrites , 1984 .
[215] S. Epstein,et al. Interstellar organic matter in meteorites , 1983 .
[216] R. Kavanagh,et al. Half-life of 26Al , 1983 .
[217] G. Wasserburg,et al. The isotopic composition of titanium in the Allende and Leoville meteorites , 1981 .
[218] H. Zook. A new impact model for the generation of ordinary chondrites , 1980 .
[219] Harry Y. McSween,et al. Alteration in CM carbonaceous chondrites inferred from modal and chemical variations in matrix , 1979 .
[220] H. McSween. Are carbonaceous chondrites primitive or processed? A review , 1979 .
[221] D. Revelle. A quasi-simple ablation model for large meteorite entry: theory vs observations , 1979 .
[222] C. Goetze,et al. Creep of olivine during hot-pressing , 1978 .
[223] R. Clayton,et al. A classification of meteorites based on oxygen isotopes , 1976 .
[224] G. Arrhenius,et al. The paleomagnetic record in carbonaceous chondrites: Natural remanence and magnetic properties , 1974 .
[225] H. Urey. Primary and secondary objects , 1959 .
[226] D. Krietsch. Alteration on asteroids, diversity of primordial volatiles and their carriers in carbonaceous chondrites, and martian shergottite sampling sites - studied by meteoritic noble gases , 2020 .
[227] M. Anand,et al. TWO RECENT CM FALLS: NEW EVIDENCE FOR A LITHOLOGICALLY AND ISOTOPICALLY HETEROGENEOUS CM PARENT BODY , 2020 .
[228] A. Pack,et al. CHARACTERISTICS OF A NEW CARBONACEOUS, METAL-RICH LITHOLOGY FOUND IN THE CARBONACEOUS CHONDRITE BRECCIA AGUAS , 2020 .
[229] Dorothea,et al. Production and characterization of 60 Fe standards for accelerator mass spectrometry , 2019 .
[230] I. Franchi,et al. OXYGEN ISOTOPE EVIDENCE FOR MULTIPLE CM PARENT BODIES : WHAT WILL WE LEARN FROM THE HAYABUSA 2 AND OSIRIS-REx SAMPLE RETURN MISSIONS ? , 2019 .
[231] A. Pack,et al. O-ISOTOPE COMPOSITION OF CI- AND CM-LIKE CLASTS IN UREILITES, HEDS, AND CR CHONDRITES , 2018 .
[232] F. Ciesla,et al. Sources of Water and Aqueous Activity on the Chondrite Parent Asteroids , 2015 .
[233] H. Leroux,et al. The Paris meteorite, the least altered CM chondrite so far , 2014 .
[234] S. Akhmadaliev,et al. The new 6 MV AMS-facility DREAMS at Dresden , 2013 .
[235] Z. Gabelica,et al. Chemical footprint of the solvent soluble extraterrestrial organic matter occluded in Soltmany ordinary chondrite. , 2012 .
[236] G. J. Consolmagnoa,et al. The significance of meteorite density and porosity , 2010 .
[237] C.,et al. Mn/Cr systematics: A tool to discriminate the origin of primitive meteorites? , 2010 .
[238] W. Bach,et al. Fe–Ni–Co–O–S Phase Relations in Peridotite–Seawater Interactions , 2009 .
[239] R. Clayton. Oxygen Isotopes in the Early Solar System — A Historical Perspective , 2008 .
[240] J. Beck,et al. Accelerator mass spectrometry of long-lived light radionuclides , 2008 .
[241] Adrian J. Brearley,et al. The Action of Water , 2006 .
[242] T. Mccoy,et al. Systematics and Evaluation of Meteorite Classification , 2006 .
[243] E. Scott,et al. Nature and Origins of Meteoritic Breccias , 2006 .
[244] M. Zolensky,et al. The Kaidun Microbreccia Meteorite: A Harvest from the Inner and Outer Asteroid Belt , 2003 .
[245] D. Hampshire,et al. Self-shielding in the solar nebula , 2002 .
[246] R. Wieler. Cosmic-Ray-Produced Noble Gases in Meteorites , 2002 .
[247] A. Jull,et al. 14C terrestrial ages of meteorites from Victoria Land, Antarctica, and the infall rates of meteorites , 1998, Geological Society, London, Special Publications.
[248] F. Finocchi,et al. Chemical reactions in protoplanetary accretion disks III. The role of ionisation processes , 1997 .
[249] R. Hutchison. Chondrules and their associates in ordinary chondrites: a planetary connection? , 1996 .
[250] I. Sanders. A chondrule-forming scenario involving molten planetesimals. , 1996 .
[251] A. Bischoff,et al. Constraints on chondrule agglomeration from fine-grained chondrule rims , 1994 .
[252] R. Clayton,et al. Origin of dark clasts in the Acfer 059/El Djouf 001 CR2 chondrite , 1994 .
[253] C. Pieters,et al. Remote geochemical analysis : elemental and mineralogical composition , 1993 .
[254] H. R. Andrews,et al. 14C content of ten meteorites measured by tandem accelerator mass spectrometry , 1984 .
[255] F. Robert,et al. The concentration and isotopic composition of hydrogen, carbon and nitrogen in carbonaceous meteorites☆ , 1982 .
[256] L. Fuchs,et al. Mineralogy, mineral-chemistry, and composition of the Murchison (C2) meteorite , 1973 .
[257] N. Morimoto,et al. Pyrrhotite Phase Relations below 320°C , 1970 .
[258] H. Urey. Parent bodies of the meteorites and the origin of chondrules , 1967 .