In-Situ Measurement of Hydrogen on Airless Planetary Bodies Using Laser-Induced Breakdown Spectroscopy
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[1] J. Bridges,et al. A dehydrated space-weathered skin cloaking the hydrated interior of Ryugu , 2022, Nature Astronomy.
[2] P. Wessels,et al. VOILA on the LUVMI-X Rover: Laser-Induced Breakdown Spectroscopy for the Detection of Volatiles at the Lunar South Pole , 2022, Sensors.
[3] P. Wessels,et al. Assessing the Distribution of Water Ice and Other Volatiles at the Lunar South Pole with LUVMI-X: A Mission Concept , 2022, The Planetary Science Journal.
[4] Weiming Xu,et al. Design, Function, and Implementation of China's First LIBS Instrument (MarSCoDe) on the Zhurong Mars Rover , 2021, Atomic Spectroscopy.
[5] Lutz Richter,et al. Development of the VOILA LIBS instrument for volatiles scouting in polar regions of the Moon , 2021, International Conference on Space Optics.
[6] R. Trautner,et al. Dynamics of Subsurface Migration of Water on the Moon , 2021, Journal of Geophysical Research: Planets.
[7] A. Doressoundiram,et al. The SuperCam Instrument Suite on the Mars 2020 Rover: Science Objectives and Mast-Unit Description , 2021, Space Science Reviews.
[8] D. Reuter,et al. Hydrogen abundance estimation and distribution on (101955) Bennu , 2021, Icarus.
[9] J. Rullier,et al. High power continuous wave laser heating of graphite in a high temperature range up to 3800 K , 2021 .
[10] Justin M. McGlown,et al. The SuperCam Instrument Suite on the NASA Mars 2020 Rover: Body Unit and Combined System Tests , 2020, Space Science Reviews.
[11] J. Kleinhenz,et al. Case Studies for Lunar ISRU Systems Utilizing Polar Water , 2020, ASCEND 2020.
[12] B. Schmitt,et al. “Water” abundance at the surface of C-complex main-belt asteroids , 2020, Icarus.
[13] T. Rigaudier,et al. Hydrogen in chondrites: Influence of parent body alteration and atmospheric contamination on primordial components , 2020, Geochimica et Cosmochimica Acta.
[14] W. Fa. Bulk Density of the Lunar Regolith at the Chang'E‐3 Landing Site as Estimated From Lunar Penetrating Radar , 2020, Earth and Space Science.
[15] R. Wiens,et al. Hydrogen Variability in the Murray Formation, Gale Crater, Mars , 2019, Journal of geophysical research. Planets.
[16] Paul G. Lucey,et al. Direct evidence of surface exposed water ice in the lunar polar regions , 2018, Proceedings of the National Academy of Sciences.
[17] X. H. Wang,et al. Laser-induced plasma imaging for low-pressure detection. , 2018, Optics express.
[18] O. Forni,et al. Roughness effects on the hydrogen signal in laser-induced breakdown spectroscopy , 2017 .
[19] Shuai Li,et al. Water on the surface of the Moon as seen by the Moon Mineralogy Mapper: Distribution, abundance, and origins , 2017, Science Advances.
[20] Seiji Sugita,et al. Quantitative Potassium Measurements with Laser-Induced Breakdown Spectroscopy Using Low-Energy Lasers: Application to In Situ K–Ar Geochronology for Planetary Exploration , 2017, Applied spectroscopy.
[21] Steven C. Bender,et al. Quantification of water content by laser induced breakdown spectroscopy on Mars , 2017 .
[22] Stewart Clegg,et al. Recalibration of the Mars Science Laboratory ChemCam instrument with an expanded geochemical database , 2017 .
[23] Sridhar Mahadevan,et al. Comparison of univariate and multivariate models for prediction of major and minor elements from laser-induced breakdown spectra with and without masking , 2016 .
[24] O. Forni,et al. Characterization of Hydrogen in Basaltic Materials With Laser‐Induced Breakdown Spectroscopy (LIBS) for Application to MSL ChemCam Data , 2016, Journal of Geophysical Research: Planets.
[25] Yang Gao,et al. Investigation of the properties of icy lunar polar regolith simulants , 2016 .
[26] Kurt D. Retherford,et al. Evidence for exposed water ice in the Moon’s south polar regions from Lunar Reconnaissance Orbiter ultraviolet albedo and temperature measurements , 2015 .
[27] T. Morota,et al. High-precision potassium measurements using laser-induced breakdown spectroscopy under high vacuum conditions for in situ K–Ar dating of planetary surfaces , 2015 .
[28] Stewart Clegg,et al. Hydrogen detection with ChemCam at Gale crater , 2015 .
[29] Lionel Canioni,et al. Good practices in LIBS analysis: Review and advices , 2014 .
[30] Pavel Yaroshchyk,et al. Automatic correction of continuum background in Laser-induced Breakdown Spectroscopy using a model-free algorithm , 2014 .
[31] B. Schmitt,et al. The abundance and stability of “water” in type 1 and 2 carbonaceous chondrites (CI, CM and CR) , 2014 .
[32] Kiichiro Kagawa,et al. Review of Laser-Induced Plasma, Its Mechanism, and Application to Quantitative Analysis of Hydrogen and Deuterium , 2014 .
[33] R. Bowden,et al. The classification of CM and CR chondrites using bulk H, C and N abundances and isotopic compositions , 2013 .
[34] M B Madsen,et al. Soil Diversity and Hydration as Observed by ChemCam at Gale Crater, Mars , 2013, Science.
[35] Robert L. Tokar,et al. Pre-flight calibration and initial data processing for the ChemCam laser-induced breakdown spectroscopy instrument on the Mars Science Laboratory rover , 2013 .
[36] R. Jaumann,et al. A brief review of chemical and mineralogical resources on the Moon and likely initial In Situ Resource Utilization (ISRU) applications , 2012 .
[37] R. Bowden,et al. The Provenances of Asteroids, and Their Contributions to the Volatile Inventories of the Terrestrial Planets , 2012, Science.
[38] M. Saccoccio,et al. The ChemCam Instrument Suite on the Mars Science Laboratory (MSL) Rover: Science Objectives and Mast Unit Description , 2012 .
[39] N. Bridges,et al. The ChemCam Instrument Suite on the Mars Science Laboratory (MSL) Rover: Body Unit and Combined System Tests , 2012 .
[40] Francisco Sobron,et al. Extraction of compositional and hydration information of sulfates from laser-induced plasma spectra recorded under Mars atmospheric conditions — Implications for ChemCam investigations on Curiosity rover , 2012 .
[41] William Marshall,et al. Detection of Water in the LCROSS Ejecta Plume , 2010, Science.
[42] A. S. Kozyrev,et al. Hydrogen Mapping of the Lunar South Pole Using the LRO Neutron Detector Experiment LEND , 2010, Science.
[43] Andrew J. Effenberger,et al. Effect of Atmospheric Conditions on LIBS Spectra , 2010, Sensors.
[44] Alan E. Rubin,et al. Progressive aqueous alteration of CM carbonaceous chondrites , 2007 .
[45] J. Mustard,et al. Quantifying absolute water content of minerals using near‐infrared reflectance spectroscopy , 2005 .
[46] A. Hofmann,et al. GeoReM: A New Geochemical Database for Reference Materials and Isotopic Standards , 2005 .
[47] David A. Cremers,et al. Characterization of Laser-Induced Breakdown Spectroscopy (LIBS) for Application to Space Exploration , 2000 .
[48] I. Johnstone,et al. Ideal spatial adaptation by wavelet shrinkage , 1994 .
[49] E. Jarosewich,et al. Chemical analyses of meteorites: A compilation of stony and iron meteorite analyses , 1990 .
[50] Wojtek J. Krzanowski,et al. Cross-Validation in Principal Component Analysis , 1987 .
[51] F. J. Flanagan. U.S. Geological Survey silicate rock standards , 1967 .
[52] P. W. Levy,et al. PROTON-INDUCED HYDROXYL FORMATION ON THE LUNAR SURFACE , 1966 .
[53] Cai R. Ytsma,et al. Effects of univariate and multivariate regression on the accuracy of hydrogen quantification with laser-induced breakdown spectroscopy , 2018 .
[54] S. Clegg,et al. Remote laser‐induced breakdown spectroscopy (LIBS) for lunar exploration , 2012 .
[55] S. Maurice,et al. Sensitivity of orbital neutron measurements to the thickness and abundance of surficial lunar water , 2011 .
[56] S. Clegg,et al. Multivariate analysis of remote laser-induced breakdown spectroscopy spectra using partial least squares, principal component analysis, and related techniques , 2009 .