AMBITION – comet nucleus cryogenic sample return
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N. Thomas | M. Bizzarro | G. Filacchione | F. Capaccioni | J. Blum | J. Vincent | A. Hérique | S. Ulamec | A. Levasseur-Regourd | C. Snodgrass | C. Tubiana | C. Güttler | L. Bonal | S. Ivanovski | M. Choukroun | D. Bockelée-Morvan | M. D. De Sanctis | A. Rotundi | H. Cottin | B. Davidsson | M. Galand | K. Altwegg | R. Kokotanekova | P. Henri | C. Engrand | C. Codella | M. Drozdovskaya | M. Schönbächler | K. Miller | E. Bianchi
[1] Nan Liu. Presolar Grains , 2021, Oxford Research Encyclopedia of Planetary Science.
[2] K. Glassmeier,et al. The Philae lander reveals low-strength primitive ice inside cometary boulders , 2020, Nature.
[3] N. Thomas,et al. Dust-to-Gas and Refractory-to-Ice Mass Ratios of Comet 67P/Churyumov-Gerasimenko from Rosetta Observations , 2020, Space Science Reviews.
[4] N. Thomas,et al. Ammonium salts are a reservoir of nitrogen on a cometary nucleus and possibly on some asteroids , 2020, Science.
[5] S. Erard,et al. Infrared detection of aliphatic organics on a cometary nucleus , 2020, 2009.14476.
[6] J. Berthelier,et al. Evidence of ammonium salts in comet 67P as explanation for the nitrogen depletion in cometary comae , 2019, Nature Astronomy.
[7] Nicolas Thomas,et al. Towards New Comet Missions , 2019, Space Science Reviews.
[8] Stephan Ulamec,et al. A rover for the JAXA MMX Mission to Phobos , 2019 .
[9] J. Blum,et al. Homogeneity of 67P/Churyumov-Gerasimenko as seen by CONSERT: implication on composition and formation , 2019, Astronomy & Astrophysics.
[10] P. Encrenaz,et al. Long-term monitoring of the outgassing and composition of comet 67P/Churyumov-Gerasimenko with the Rosetta/MIRO instrument , 2019, Astronomy & Astrophysics.
[11] K. Glassmeier,et al. Unusually high magnetic fields in the coma of 67P/Churyumov-Gerasimenko during its high-activity phase , 2019, Astronomy & Astrophysics.
[12] J. Jørgensen,et al. Ingredients for solar-like systems: protostar IRAS 16293-2422 B versus comet 67P/Churyumov–Gerasimenko , 2019, Monthly Notices of the Royal Astronomical Society.
[13] F. Scholten,et al. Images from the surface of asteroid Ryugu show rocks similar to carbonaceous chondrite meteorites , 2019, Science.
[14] J. Berthelier,et al. A comparison between the two lobes of comet 67P/Churyumov–Gerasimenko based on D/H ratios in H2O measured with the Rosetta/ROSINA DFMS , 2019, Monthly Notices of the Royal Astronomical Society.
[15] P. Ehrenfreund,et al. Dust of comet 67P/Churyumov-Gerasimenko collected by Rosetta/MIDAS: classification and extension to the nanometer scale , 2019, Astronomy & Astrophysics.
[16] N. Thomas,et al. Surface Morphology of Comets and Associated Evolutionary Processes: A Review of Rosetta’s Observations of 67P/Churyumov–Gerasimenko , 2019, Space Science Reviews.
[17] A. Thirouin,et al. From Centaurs to comets: 40 Years , 2019, The Trans-Neptunian Solar System.
[18] Helmut Wiesemeyer,et al. Terrestrial deuterium-to-hydrogen ratio in water in hyperactive comets , 2019, Astronomy & Astrophysics.
[19] R. Jaumann,et al. Hayabusa2 arrives at the carbonaceous asteroid 162173 Ryugu—A spinning top–shaped rubble pile , 2019, Science.
[20] S. Squyres,et al. The CAESAR New Frontiers Mission: 1. Expected Nature of the Returned Comet Sample , 2019 .
[21] D. Bodewits,et al. Solar wind charge exchange in cometary atmospheres , 2019, Astronomy & Astrophysics.
[22] Tobias Kramer,et al. Outgassing-induced acceleration of comet 67P/Churyumov-Gerasimenko , 2019, Astronomy & Astrophysics.
[23] David Kappel,et al. Comet 67P/CG Nucleus Composition and Comparison to Other Comets , 2019, Space Science Reviews.
[24] C. Niemann,et al. Recalling and Updating Research on Diamagnetic Cavities: Experiments, Theory, Simulations , 2019, Front. Astron. Space Sci..
[25] F. Scholten,et al. Constraining models of activity on comet 67P/Churyumov-Gerasimenko with Rosetta trajectory, rotation, and water production measurements , 2019, Astronomy & Astrophysics.
[26] Matthias Hahn,et al. The Nucleus of comet 67P/Churyumov–Gerasimenko – Part I: The global view – nucleus mass, mass-loss, porosity, and implications , 2018, Monthly Notices of the Royal Astronomical Society.
[27] Stephan Ulamec,et al. Development and testing of a pyro-driven launcher for harpoon-based comet sample acquisition , 2018, Acta Astronautica.
[28] F. Moreno,et al. The refractory-to-ice mass ratio in comets , 2018, Monthly Notices of the Royal Astronomical Society.
[29] C. Ceccarelli,et al. The census of interstellar complex organic molecules in the Class I hot corino of SVS13-A , 2018, Monthly Notices of the Royal Astronomical Society.
[30] R. Hajra,et al. Plasma source and loss at comet 67P during the Rosetta mission , 2018, Astronomy & Astrophysics.
[31] K. Varmuza,et al. H/C elemental ratio of the refractory organic matter in cometary particles of 67P/Churyumov-Gerasimenko , 2018, Astronomy & Astrophysics.
[32] P. Hoppe,et al. Presolar Isotopic Signatures in Meteorites and Comets: New Insights from the Rosetta Mission to Comet 67P/Churyumov–Gerasimenko , 2018, Space science reviews.
[33] N. Thomas,et al. Thermal inertia and roughness of the nucleus of comet 67P/Churyumov–Gerasimenko from MIRO and VIRTIS observations , 2018, Astronomy & Astrophysics.
[34] J. Berthelier,et al. On the origin of molecular oxygen in cometary comae , 2018, Nature Communications.
[35] M. Rubin,et al. Cold electrons at comet 67P/Churyumov-Gerasimenko , 2018, Astronomy & Astrophysics.
[36] K. Schmidt,et al. The tensile strength of ice and dust aggregates and its dependence on particle properties , 2018, Monthly Notices of the Royal Astronomical Society.
[37] C. Walsh,et al. Linking interstellar and cometary O2: a deep search for 16O18O in the solar-type protostar IRAS 16293–2422 , 2018, Astronomy & Astrophysics.
[38] H. Leroux,et al. Ultracarbonaceous Antarctic micrometeorites (UCAMMs): clues for their origin , 2018 .
[39] J. Blum,et al. Local growth of dust- and ice-mixed aggregates as cometary building blocks in the solar nebula , 2018 .
[40] Derek C. Richardson,et al. Catastrophic disruptions as the origin of bilobate comets , 2018, Nature Astronomy.
[41] Steven W. Squyres,et al. The CAESAR New Frontiers Mission: 1. Overview , 2018 .
[42] J. Blum. Dust Evolution in Protoplanetary Discs and the Formation of Planetesimals , 2018, Space Science Reviews.
[43] S. Debei,et al. Tensile strength of 67P/Churyumov-Gerasimenko nucleus material from overhangs (Corrigendum) , 2017, Astronomy & Astrophysics.
[44] Katherine E. Johnson,et al. Exposed H2O-rich areas detected on Ceres with the dawn visible and infrared mapping spectrometer , 2017, Icarus.
[45] Larry Denneau,et al. A brief visit from a red and extremely elongated interstellar asteroid , 2017, Nature.
[46] E. Dartois,et al. Dome C UltraCarbonaceous Antarctic MicroMeteorites Infrared and Raman fingerprints , 2017, 1711.00647.
[47] K. Glassmeier,et al. Impact of a cometary outburst on its ionosphere Rosetta Plasma Consortium observations of the outburst exhibited by comet 67P/Churyumov-Gerasimenko on 19 February 2016 , 2017 .
[48] G. Naletto,et al. CASTAway: An asteroid main belt tour and survey , 2017, Advances in Space Research.
[49] Roberto Orosei,et al. The Main Belt Comets and ice in the Solar System , 2017, 1709.05549.
[50] M. Trieloff,et al. The Castalia mission to Main Belt Comet 133P/Elst-Pizarro , 2017, Advances in Space Research.
[51] Martin Rubin,et al. Isotopic composition of CO 2 in the coma of 67P/Churyumov-Gerasimenko measured with ROSINA/DFMS , 2017 .
[52] S. Debei,et al. Seasonal erosion and restoration of the dust cover on comet 67P/Churyumov-Gerasimenko as observed by OSIRIS onboard Rosetta , 2017 .
[53] J. Blum,et al. Fractal dust constrains the collisional history of comets , 2017 .
[54] J. De Keyser,et al. Sulphur isotope mass-independent fractionation observed in comet 67P/Churyumov–Gerasimenko by Rosetta/ROSINA , 2017 .
[55] K. Varmuza,et al. Nitrogen to carbon atomic ratio measured by COSIMA in the particles of comet 67P/Churyumov-Gerasimenko , 2017 .
[56] J. Berthelier,et al. Organics in comet 67P – a first comparative analysis of mass spectra from ROSINA–DFMS, COSAC and Ptolemy , 2017 .
[57] K. Glassmeier,et al. Evolution of the magnetic field at comet 67P/Churyumov-Gerasimenko , 2017 .
[58] K. Glassmeier,et al. Diamagnetic region(s): structure of the unmagnetized plasma around Comet 67P/CG , 2017 .
[59] M. Wieser,et al. Evolution of the ion environment of comet 67P during the Rosetta mission as seen by RPC-ICA , 2017 .
[60] J. Bertaux,et al. Diffuse interstellar bands carriers and cometary organic material , 2017 .
[61] A. Eriksson,et al. Rosetta photoelectron emission and solar ultraviolet flux at comet 67P , 2017, 1709.03874.
[62] Harry Lehto,et al. Carbon-rich dust in comet 67P/Churyumov-Gerasimenko measured by COSIMA/Rosetta , 2017 .
[63] Urs Mall,et al. Change of outgassing pattern of 67P/Churyumov–Gerasimenko during the March 2016 equinox as seen by ROSINA , 2017 .
[64] A. Johansen,et al. Evidence for the formation of comet 67P/Churyumov-Gerasimenko through gravitational collapse of a bound clump of pebbles , 2017, 1710.07846.
[65] Wlodek Kofman,et al. The Philae lander mission and science overview , 2017, Philosophical Transactions of the Royal Society A: Mathematical, Physical and Engineering Sciences.
[66] S. Debei,et al. Seasonal mass transfer on the nucleus of comet 67P/Chuyumov–Gerasimenko , 2017, 1707.06812.
[67] T. Owen,et al. D2O and HDS in the coma of 67P/Churyumov–Gerasimenko , 2017, Philosophical Transactions of the Royal Society A: Mathematical, Physical and Engineering Sciences.
[68] N. Biver,et al. The composition of cometary ices , 2017, Philosophical Transactions of the Royal Society A: Mathematical, Physical and Engineering Sciences.
[69] S. Debei,et al. The highly active Anhur–Bes regions in the 67P/Churyumov–Gerasimenko comet: results from OSIRIS/ROSETTA observations , 2017, 1707.02945.
[70] S. F. Green,et al. Rotation of cometary nuclei: new light curves and an update of the ensemble properties of Jupiter-family comets , 2017, 1707.02133.
[71] Michael Lange,et al. MASCOT—The Mobile Asteroid Surface Scout Onboard the Hayabusa2 Mission , 2017 .
[72] N. Biver,et al. Ion composition at comet 67P near perihelion: Rosetta observations and model-based interpretation , 2017, Monthly Notices of the Royal Astronomical Society.
[73] H. Balsiger,et al. Xenon isotopes in 67P/Churyumov-Gerasimenko show that comets contributed to Earth's atmosphere , 2017, Science.
[74] K. Giapis,et al. Dynamic molecular oxygen production in cometary comae , 2017, Nature Communications.
[75] G. Cody,et al. The nature, origin and modification of insoluble organic matter in chondrites, the possibly interstellar source of Earth's C and N. , 2017, Chemie der Erde : Beitrage zur chemischen Mineralogie, Petrographie und Geologie.
[76] J. Berthelier,et al. Evidence for depletion of heavy silicon isotopes at comet 67P/Churyumov-Gerasimenko , 2017, 1705.02896.
[77] S. Debei,et al. Surface changes on comet 67P/Churyumov-Gerasimenko suggest a more active past , 2017, Science.
[78] B. J. Buratti,et al. The Rosetta mission orbiter science overview: the comet phase , 2017, Philosophical Transactions of the Royal Society A: Mathematical, Physical and Engineering Sciences.
[79] M. K. Crombie,et al. OSIRIS-REx: Sample Return from Asteroid (101955) Bennu , 2017, Space Science Reviews.
[80] U. Fink,et al. Seasonal exposure of carbon dioxide ice on the nucleus of comet 67P/Churyumov-Gerasimenko , 2016, Science.
[81] S. Debei,et al. Rosetta’s comet 67P/Churyumov-Gerasimenko sheds its dusty mantle to reveal its icy nature , 2016, Science.
[82] Anny,et al. Fractal cometary dust – a window into the early Solar system , 2016 .
[83] E. Grün,et al. Unexpected and significant findings in comet 67P/Churyumov–Gerasimenko: an interdisciplinary view , 2016 .
[84] C. Pilorget,et al. Origin of the local structures at the Philae landing site and possible implications on the formation and evolution of 67P/Churyumov–Gerasimenko , 2016 .
[85] E. Palomba,et al. Comet 67P/Churyumov-Gerasimenko preserved the pebbles that formed planetesimals , 2016 .
[86] W. Benz,et al. How primordial is the structure of comet 67P? - Combined collisional and dynamical models suggest a late formation , 2016, 1611.02604.
[87] P. Drossart,et al. Detection of exposed H2O ice on the nucleus of comet 67P/Churyumov-Gerasimenko - as observed by Rosetta OSIRIS and VIRTIS instruments , 2016 .
[88] J. Lasue,et al. Cosmochemical implications of CONSERT permittivity characterization of 67P/CG , 2016 .
[89] N. Biver,et al. Evolution of water production of 67P/Churyumov-Gerasimenko: an empirical model and a multi-instrument study , 2016 .
[90] S. Debei,et al. Summer fireworks on comet 67P , 2016, 1609.07743.
[91] E. Grün,et al. High-molecular-weight organic matter in the particles of comet 67P/Churyumov–Gerasimenko , 2016, Nature.
[92] S. Erard,et al. Detection of exposed H₂O ice on the nucleus of comet 67P/Churyumov-Gerasimenko , 2016, 1609.00551.
[93] C. Walsh,et al. Cometary ices in forming protoplanetary disc midplanes , 2016, 1607.07861.
[94] S. Erard,et al. Refractory and semi-volatile organics at the surface of comet 67P/Churyumov-Gerasimenko: Insights from the VIRTIS/Rosetta imaging spectrometer , 2016 .
[95] Tobias Kramer,et al. ON THE ORIGIN OF INNER COMA STRUCTURES OBSERVED BY ROSETTA DURING A DIURNAL ROTATION OF COMET 67P/CHURYUMOV–GERASIMENKO , 2016, 1607.03825.
[96] T. Owen,et al. Prebiotic chemicals—amino acid and phosphorus—in the coma of comet 67P/Churyumov-Gerasimenko , 2016, Science Advances.
[97] Giuseppe Piccioni,et al. Water and carbon dioxide distribution in the 67P/Churyumov-Gerasimenko coma from VIRTIS-M infrared observations , 2016 .
[98] B. Marty,et al. Origins of volatile elements (H, C, N, noble gases) on Earth and Mars in light of recent results from the ROSETTA cometary mission , 2016 .
[99] S. Erard,et al. The global surface composition of 67P/CG nucleus by Rosetta/VIRTIS. (I) Prelanding mission phase , 2016, 1602.09098.
[100] S. Debei,et al. Sunset jets observed on comet 67P/Churyumov-Gerasimenko sustained by subsurface thermal lag , 2016 .
[101] J. Blum,et al. Comet formation in collapsing pebble clouds. What cometary bulk density implies for the cloud mass and dust-to-ice ratio , 2016, 1601.05726.
[102] U. Fink,et al. Exposed water ice on the nucleus of comet 67P/Churyumov–Gerasimenko , 2016, Nature.
[103] J. Halekas,et al. Surface charging and electrostatic dust acceleration at the nucleus of comet 67P during periods of low activity , 2015 .
[104] S. Debei,et al. Are fractured cliffs the source of cometary dust jets ? insights from OSIRIS/Rosetta at 67P/Churyumov-Gerasimenko , 2015, 1512.03193.
[105] John R. Brophy,et al. Asteroid Redirect Mission Concept: A Bold Approach for Utilizing Space Resources , 2015 .
[106] S. Debei,et al. The primordial nucleus of comet 67P/Churyumov-Gerasimenko , 2015 .
[107] Giampiero Naletto,et al. OSIRIS observations of meter-sized exposures of H2O ice at the surface of 67P/Churyumov-Gerasimenko and interpretation using laboratory experiments , 2015 .
[108] M. Horányi,et al. Negatively charged nano-grains at 67P/Churyumov-Gerasimenko , 2015 .
[109] J. Berthelier,et al. Composition-dependent outgassing of comet 67P/Churyumov-Gerasimenko from ROSINA/DFMS - Implications for nucleus heterogeneity? , 2015 .
[110] J. De Keyser,et al. Abundant molecular oxygen in the coma of comet 67P/Churyumov–Gerasimenko , 2015, Nature.
[111] Ludmilla Kolokolova,et al. Cometary Science with the James Webb Space Telescope , 2015, 1510.05878.
[112] D. Lis,et al. Ethyl alcohol and sugar in comet C/2014 Q2 (Lovejoy) , 2015, Science Advances.
[113] S. Debei,et al. Two independent and primitive envelopes of the bilobate nucleus of comet 67P , 2015, Nature.
[114] S. Erard,et al. The diurnal cycle of water ice on comet 67P/Churyumov–Gerasimenko , 2015, Nature.
[115] P. Armitage. Physical Processes in Protoplanetary Disks , 2015, Saas-Fee Advanced Course.
[116] Frances Westall,et al. Astrobiology and the Possibility of Life on Earth and Elsewhere… , 2015, Space Science Reviews.
[117] T. Gombosi,et al. Observation of charged nanograins at comet 67P/Churyumov‐Gerasimenko , 2015 .
[118] D. Plettemeier,et al. Properties of the 67P/Churyumov-Gerasimenko interior revealed by CONSERT radar , 2015, Science.
[119] M. Banaszkiewicz,et al. Thermal and mechanical properties of the near-surface layers of comet 67P/Churyumov-Gerasimenko , 2015, Science.
[120] Hideyo Kawakita,et al. Cometary Isotopic Measurements , 2015 .
[121] Hans Rickman,et al. Comets as collisional fragments of a primordial planetesimal disk , 2015, 1504.04512.
[122] E. Grün,et al. DENSITY AND CHARGE OF PRISTINE FLUFFY PARTICLES FROM COMET 67P/CHURYUMOV–GERASIMENKO , 2015 .
[123] T. Encrenaz,et al. Subsurface properties and early activity of comet 67P/Churyumov-Gerasimenko , 2015, Science.
[124] S. Debei,et al. The morphological diversity of comet 67P/Churyumov-Gerasimenko , 2015, Science.
[125] U. Fink,et al. The organic-rich surface of comet 67P/Churyumov-Gerasimenko as seen by VIRTIS/Rosetta , 2015, Science.
[126] E. Neefs,et al. 67P/Churyumov-Gerasimenko, a Jupiter family comet with a high D/H ratio , 2015, Science.
[127] S. Debei,et al. On the nucleus structure and activity of comet 67P/Churyumov-Gerasimenko , 2015, Science.
[128] E. Kührt,et al. Time variability and heterogeneity in the coma of 67P/Churyumov-Gerasimenko , 2015, Science.
[129] M. Zolensky,et al. Late formation of a comet Wild 2 crystalline silicate particle, Pyxie, inferred from Al–Mg chronology of plagioclase , 2015 .
[130] J. Wahlund,et al. ON THE POSSIBILITY OF SIGNIFICANT ELECTRON DEPLETION DUE TO NANOGRAIN CHARGING IN THE COMA OF COMET 67P/CHURYUMOV-GERASIMENKO NEAR PERIHELION , 2015 .
[131] Stephan Ulamec,et al. COSAC prepares for sampling and in situ analysis of cometary matter from comet 67P/Churyumov-Gerasimenko , 2014 .
[132] Larry Denneau,et al. The main-belt comets: The Pan-STARRS1 perspective , 2014, 1410.5084.
[133] Donald E. Brownlee,et al. The Stardust Mission: Analyzing Samples from the Edge of the Solar System , 2014 .
[134] Laurent Nahon,et al. ENANTIOMERIC EXCESSES INDUCED IN AMINO ACIDS BY ULTRAVIOLET CIRCULARLY POLARIZED LIGHT IRRADIATION OF EXTRATERRESTRIAL ICE ANALOGS: A POSSIBLE SOURCE OF ASYMMETRY FOR PREBIOTIC CHEMISTRY , 2014 .
[135] J. P. Moore,et al. A ring system detected around the Centaur (10199) Chariklo , 2014, Nature.
[136] B. Carry,et al. Solar System evolution from compositional mapping of the asteroid belt , 2014, Nature.
[137] D. Teyssier,et al. Localized sources of water vapour on the dwarf planet (1) Ceres , 2014, Nature.
[138] Tokyo Institute of Technology,et al. Complex organic molecules in protoplanetary disks , 2013, 1403.0390.
[139] M. Horányi,et al. DUSTY PLASMA EFFECTS IN COMETS: EXPECTATIONS FOR ROSETTA , 2013 .
[140] J. Wahlund,et al. Aerosol growth in Titan’s ionosphere , 2013, Proceedings of the National Academy of Sciences.
[141] M. Burchell,et al. THE ABUNDANCE OF PRESOLAR GRAINS IN COMET 81P/WILD 2 , 2013 .
[142] C. Ceccarelli,et al. Detection of complex organic molecules in a prestellar core: a new challenge for astrochemical models , 2012 .
[143] C. Floss,et al. Amoeboid olivine aggregates (AOAs) in the Efremovka, Leoville and Vigarano (CV3) chondrites: A record of condensate evolution in the solar nebula , 2012 .
[144] T. Tyliszczak,et al. INCORPORATION OF A LATE-FORMING CHONDRULE INTO COMET WILD 2 , 2011, 1112.3943.
[145] J. Wahlund,et al. Dusty plasma in the vicinity of Enceladus , 2011 .
[146] Paul Hartogh,et al. Ocean-like water in the Jupiter-family comet 103P/Hartley 2 , 2011, Nature.
[147] Steven B. Charnley,et al. The Chemical Composition of Comets—Emerging Taxonomies and Natal Heritage , 2011 .
[148] Alessandro Morbidelli,et al. A low mass for Mars from Jupiter’s early gas-driven migration , 2011, Nature.
[149] H. Melosh,et al. EPOXI at Comet Hartley 2 , 2011, Science.
[150] T. Hyde,et al. CHARGING AND COAGULATION OF DUST IN PROTOPLANETARY PLASMA ENVIRONMENTS , 2011, 1104.5677.
[151] M. Gounelle. The Asteroid–Comet Continuum: In Search of Lost Primitivity , 2011 .
[152] Tomoaki Matsumoto,et al. The origin and formation of the circumstellar disc , 2010, 1008.0920.
[153] H. Leroux,et al. Extreme Deuterium Excesses in Ultracarbonaceous Micrometeorites from Central Antarctic Snow , 2010, Science.
[154] Julie Ziffer,et al. Water ice and organics on the surface of the asteroid 24 Themis , 2010, Nature.
[155] D. Brownlee,et al. Constraints on the Formation Age of Cometary Material from the NASA Stardust Mission , 2009, Science.
[156] G. Cody,et al. Ultra-primitive interplanetary dust particles from the comet 26P/Grigg–Skjellerup dust stream collection , 2009 .
[157] C. Dullemond,et al. The outcome of protoplanetary dust growth: pebbles, boulders or planetesimals? , 2009, 1001.0488.
[158] F. Ciesla. Dynamics of high‐temperature materials delivered by jets to the outer solar nebula , 2009 .
[159] Stephan Ulamec,et al. Landing Strategies for Small Bodies Missions - Philae and beyond , 2009 .
[160] S. F. Green,et al. Triple F—a comet nucleus sample return mission , 2009 .
[161] Stephan Ulamec,et al. Capabilities of Philae, the Rosetta Lander , 2008 .
[162] L. Nittler,et al. Combined micro‐Raman, micro‐infrared, and field emission scanning electron microscope analyses of comet 81P/Wild 2 particles collected by Stardust , 2008 .
[163] M. Chi,et al. Comparison of Comet 81P/Wild 2 Dust with Interplanetary Dust from Comets , 2008, Science.
[164] A. Boss. Mixing in the solar nebula: Implications for isotopic heterogeneity and large-scale transport of refractory grains , 2008, 0801.1622.
[165] Jeffrey S. Oishi,et al. Rapid planetesimal formation in turbulent circumstellar disks , 2007, Nature.
[166] Andrew Steele,et al. Comet 81P/Wild 2 Under a Microscope , 2006, Science.
[167] David Jewitt,et al. A Population of Comets in the Main Asteroid Belt , 2006, Science.
[168] A. Davis,et al. Calcium-Aluminum-rich Inclusions: Major Unanswered Questions , 2005 .
[169] H. Melosh,et al. Deep Impact: Excavating Comet Tempel 1 , 2005, Science.
[170] Ralph E. Pudritz,et al. Outflows and Jets from Collapsing Magnetized Cloud Cores , 2005, astro-ph/0508374.
[171] K. Tsiganis,et al. Origin of the orbital architecture of the giant planets of the Solar System , 2005, Nature.
[172] M. Podolak,et al. A note on the snow line in protostellar accretion disks , 2004 .
[173] Alan E. Rubin,et al. Chemical, Mineralogical and Isotopic Properties of Chondrules: Clues to Their Origin , 2004 .
[174] K. Keil,et al. Amoeboid olivine aggregates and related objects in carbonaceous chondrites: records of nebular and asteroid processes , 2004 .
[175] Larry R. Nittler,et al. Astrophysics with Presolar Stardust , 2004 .
[176] R. H. Brown,et al. Observations of Comet 19P/Borrelly by the Miniature Integrated Camera and Spectrometer Aboard Deep Space 1 , 2002, Science.
[177] D. Gautier,et al. Turbulent Radial Mixing in the Solar Nebula as the Source of Crystalline Silicates in Comets , 2000 .
[178] W. Cochran,et al. N+2 and CO+ in Comets 122P/1995 S1 (deVico) and C/1995 O1 (Hale–Bopp) , 2000, astro-ph/0003122.
[179] E. Herbst,et al. Deuterium Fractionation in Protoplanetary Disks , 1999 .
[180] S. Pizzarello,et al. Enantiomeric Excesses in Meteoritic Amino Acids , 1997, Science.
[181] R. Bachiller. BIPOLAR MOLECULAR OUTFLOWS FROM YOUNG STARS AND PROTOSTARS , 1996 .
[182] F. Shu,et al. Toward an Astrophysical Theory of Chondrites , 1996, Science.
[183] Gerhard H. Schwehm,et al. Challenges of the rosetta sample return mission , 1994 .
[184] J. Bradley. Chemically Anomalous, Preaccretionally Irradiated Grains in Interplanetary Dust from Comets , 1994, Science.
[185] D. Brownlee,et al. CHON as a component of dust from comet Halley , 1992, Nature.
[186] Jochen Kissel,et al. Aspects of the major element composition of Halley's dust , 1988, Nature.
[187] Cesare Barbieri,et al. First Halley Multicolour Camera imaging results from Giotto , 1986 .
[188] Y. Langevin,et al. Composition of comet Halley dust particles from Vega observations , 1986 .
[189] S. Weidenschilling,et al. Aerodynamics of solid bodies in the solar nebula. , 1977 .
[190] F. Shu. Self-similar collapse of isothermal spheres and star formation. , 1977 .
[191] J. Oró,et al. Comets and the Formation of Biochemical Compounds on the Primitive Earth , 1961, Nature.
[192] N. Thomas,et al. Cometary Dust , 2018, Space science reviews.
[193] R. Kirk,et al. THE CAESAR NEW FRONTIERS MISSION: 3. TAG SITE SELECTION AND CAMERA SUITE , 2018 .
[194] M. Hilchenbach,et al. Characterization of the refractory organic matter present in the dust particles of 67P/Churyumov-Gerasimenko , 2016 .
[195] J. Blum,et al. Comet formation in collapsing pebble clouds , 2016 .
[196] A. Fitzsimmons,et al. MarcoPolo-R: Near-Earth Asteroid sample return mission selected for the assessment study phase of the ESA program cosmic vision , 2016 .
[197] J. Berthelier,et al. Rosetta mission results pre-perihelion Special feature Solar wind sputtering of dust on the surface of 67 P / Churyumov-Gerasimenko , 2015 .
[198] P. Spurný,et al. Meteorites from the Outer Solar System , 2008 .
[199] W. Delamere,et al. The internal structure of Jupiter family cometary nuclei from Deep Impact observations: The “talps” or “layered pile” model , 2007 .
[200] G. J. Flynn,et al. The Nature and Distribution of the Organic Material in Carbonaceous Chondrites and Interplanetary Dust Particles , 2006 .
[201] C. Woodward,et al. Mg-Rich Silicate Crystals in Comet Hale–Bopp: ISM Relics or Solar Nebula Condensates? , 2000 .
[202] Walter F. Huebner,et al. Simulation Experiments with Cometary Analogous Material , 1998 .
[203] C. Cosmovici,et al. Comets and life on the primitive Earth , 1997 .
[204] P. Andre',et al. From T Tauri stars to protostars: Circumstellar material and young stellar objects in the rho Ophiuchi cloud , 1994 .
[205] T. Cravens. THEORY AND OBSERVATIONS OF COMETARY IONOSPHERES , 1987 .
[206] F. R. Krueger,et al. Composition of comet Halley dust particles from Giotto observations , 1986 .
[207] Yann Alibert,et al. Astronomy Astrophysics Letter to the Editor Photophoresis as a source of hot minerals in comets , 2022 .
[208] Th. Henning,et al. An Electronic Publication Dedicated to Early Stellar Evolution and Molecular Clouds Episodic Formation of Cometary Material in the Outburst of a Young Sun-like Star Protoplanetary Disk Structures in Ophiuchus , 2022 .