Peer-reviewed literature
Please visit my Google scholar profile for more details (817 citations, H index of 17, since May 2016), as of April 12, 2024.
Last update: April 12, 2024
* denotes (former) BSc/MSc student status
Please visit my Google scholar profile for more details (817 citations, H index of 17, since May 2016), as of April 12, 2024.
Last update: April 12, 2024
* denotes (former) BSc/MSc student status
In review / in preparation
[xx] Steenstra ES, Renggli CJ, Berndt J, Klemme S, Evaporation of volatile melts from planetary cores and metal-rich planetesimals. Under review.
Published - Scientific articles
[30] Steenstra ES, Klaver M, Berndt J, Flemetakis S, Rohrbach A, Klemme S (2024) Thermal stability of F-rich phlogopite and K-
richterite during partial melting of metasomatized mantle peridotite with implications for deep Earth volatile cycles. Journal
of Geophysical Research: Solid Earth, in press.
[29] Steenstra ES, Renggli CJ, Berndt J, Klemme S (2023) Evaporation of moderately volatile elements from metal and sulfide
melts: implications for volatile element abundances in magmatic iron meteorites. Earth and Planetary Science Letters, 622,
118406.
[28] Haupt CP, Renggli CJ, Klaver M, Steenstra ES, Berndt J, Rohrbach A, Klemme S (2023) Experimental and Petrological
Investigations into the Origin of the Lunar Chang'E 5 Basalts. Icarus, 402, 115625.
[27] Steenstra ES, Berndt J, Klemme S, Rohrbach A, Bullock ES, van Westrenen W, Walter M. Partitioning of Ru, Pd, Ag, Re, Pt, Ir
and Au between sulfide-, metal- and silicate liquid at highly reduced conditions: implications for terrestrial accretion and
aubrite parent body evolution (2022c). Geochimica et Cosmochimica Acta, 336, 15-32.
[26] Klaver M, Steenstra ES, Borchert M, Welter E, Wilke M, Berndt J, Klemme S (2022) The effect of alkalinity on Ni single bond O
bond length in silicate glasses: Implications for Ni isotope geochemistry. Chemical Geology,121070.
[25] Steenstra ES., Lord O., Vitale S., Bullock E.S., Klemme S., Walter M. (2022b) The solubility of sulfur in a deep magma ocean:
implications for the deep sulfur cycle. Geochemical Perspective Letters, https://doi.org/10.7185/geochemlet.2219.
[24] Steenstra ES., Berndt J., Klemme S., W. van Westrenen, A. Heginbotham, Davies G.E. (2022a) Analysis of the CHARM Cu-alloy
reference materials using excimer ns-LA-ICP-MS: assessment of matrix effects and applicability to artefact provenancing.
Archaeometry, https://doi.org/10.1111/arcm.12729.
[23] Steenstra ES, Berndt J, Klemme S, Snape J, Bullock ES, van Westrenen W (2020i). The fate of sulfur and chalcophile elements
during crystallization of the lunar magma ocean. JGR: Planets 125, Issue11, e2019JE006328.
[22] Steenstra ES, Kelderman E*, Berndt J, Klemme S, Bullock ES, van Westrenen W. Highly reduced accretion of the Earth by
large impactors? Evidence from elemental partitioning between sulfide liquids and silicate melts at highly reduced
conditions (2020h). Geochimica et Cosmochimica Acta 286, 248-268.
[21] Steenstra ES, Berndt J., Klemme S., Fei Y, van Westrenen W (2020g). A potential high temperature-origin of the Moon and its
geochemical consequences. Earth and Planetary Science Letters, 538, 116222.
[20] Steenstra ES, Berndt J., Klemme S., van Westrenen W, A. Shahar. Addressing matrix effects for 193 nm excimer LA-ICP-Ms
analyses of Fe-rich sulfides and a new predictive model (2020f). Journal Anal. At. Spectrometr. 35, 498-509.
[19] Steenstra ES, van Haaster F*, van Mulligen RM*, S. Flemetakis, Berndt J, Klemme S ,van Westrenen (2020e). An
experimental assessment of the chalcophile behavior of F, Cl, Br and I: implications for the fate of halogens during
planetary accretion and the formation of magmatic ore deposits. Geochimica et Cosmochimica Acta 273, 275-290.
[18] Steenstra ES, van Westrenen W. Geochemical constraints on core-mantle differentiation in Mercury and the aubrite parent
body (2020d). Icarus 340, 113621.
[17] Steenstra ES, Berndt J, Klemme S, Rohrbach A, Bullock ES, van Westrenen W. An experimental assessment of the potential
of sulfide saturation of the source regions of eucrites and angrites: implications for asteroidal models of core formation, late
accretion and volatile element depletions (2020c). Geochimica et Cosmochimica Acta 269, 39-62.
[16] Steenstra ES, Trautner VT*, Berndt J, Klemme S, van Westrenen W (2020b). Trace element partitioning between sulfide-,
metal- and silicate melts at highly reduced conditions: insights into the distribution of volatile elements during core
formation in reduced bodies. Icarus 335, 113408. Link
[15] Steenstra ES, Seegers AX*, Putter R*, Berndt J, Klemme S, Matveev S, Bullock E, van Westrenen W (2020a). Metal-silicate
partitioning systematics of siderophile elements at reducing conditions: a new experimental database. Icarus 335, 113391.
Link
[14] Steenstra ES, Berndt J, Klemme S, van Westrenen W (2019b). LA-ICP-MS analyses of trace elements in Fe-rich alloys:
quantification of matrix effects. Journal of Analytical Atomic Spectrometry, 34, 222-231. Link
[13] Steenstra ES Dankers D*, Berndt J, Matveev S, Klemme S, van Westrenen W. Significant depletion of volatile elements in the
mantle of asteroid Vesta due to core formation (2019a). Icarus, 317, 669-681. Link
[12] Steenstra ES, van Westrenen W (2018c) A synthesis of geochemical constraints on the inventory of light elements in the
core of Mars. Icarus, 315, 69-78. Link
[11] Knibbe JS, Luginbuhl SM, Stoevelaar R, van der Plas W, van Harlingen NDM, van de Geer R, Rai N, Steenstra ES, van
Westrenen W (2018) Calibration of a multi-anvil high-pressure apparatus to simulate planetary interior conditions. EPJ
Techniques and Instrumentation.
[10] Steenstra ES, Agmon N*, Berndt J, Klemme S, Matveev S, van Westrenen W. (2018b) Depletion of potassium and sodium in
mantles of Mars, Moon and Vesta by core formation. Scientific Reports, 8, 7053. Link
[9] Steenstra ES, Seegers AX*, Eising J*, Tomassen B*, Webers FPF*, Berndt J, Klemme S, Matveev S, van Westrenen W (2018a)
Evidence for a sulfur-undersaturated lunar interior from the solubility of sulfur in lunar melts and sulfide-silicate
partitioning of siderophile elements. Geochimica et Cosmochimica Acta 231, 130-156. Link
[8] Steenstra ES, Lin YH, Dankers D*, Rai N, Berndt J, Matveev S, van Westrenen W (2017c) The lunar core can be a major
reservoir for volatile elements S, Se, Te and Sb. Scientific Reports, 7, 14552. Link
[7] Steenstra ES, Sitabi AB*, Lin YH, Rai N, Knibbe JS, Berndt J, Matveev S, van Westrenen W (2017b) The effects of silicate melt
composition on metal-silicate partitioning of siderophile elements and core formation in the angrite parent body. Geochimica
et Cosmochimica Acta, 212, 62-83. Link
[6] Lin YH, Tronche EJ, Steenstra ES, van Westrenen W (2017) Experimental constraints on the solidification of a nominally dry
lunar magma ocean. Earth and Planetary Science Letters, 471, 104-116.
[5] Steenstra ES, Lin YH, Rai N, Jansen M, van Westrenen W (2017a). Carbon as the dominant light element in the lunar core.
American Mineralogist, 102, 92-97. Link
[4] Lin YH, Tronche EJ, Steenstra ES, van Westrenen W (2016) Evidence for an early wet Moon from experimental crystallization of the lunar magma ocean. Nature Geoscience, 10, 14-18.
[3] Steenstra ES, Martin DJP, McDonald FM et al (2016c) Analyses of Robotic Traverses and Sample Sites in the Schrödinger basin for the HERACLES Human-Assisted Sample Return Mission Concept. Advances in Space Research, 58, 1050-1065. Link
[2] Steenstra ES, Rai N, Knibbe JS, Lin YH, van Westrenen W (2016b) New geochemical models of core formation in the Moon from metal-silicate partitioning of 15 siderophile elements. Earth and Planetary Science Letters, 441, 1-9. Link
[1] Steenstra ES, Knibbe JS, Rai N, van Westrenen W (2016a) Core formation in Vesta: constraints from metal-silicate partitioning of siderophile elements. Geochimica et Cosmochimica Acta, 177, 48-61. Link
Books and book chapters
[9] McCubbin FM, Barnes JJ, Ni P, Hui H, Klima RL, Burney D, Day JMD, Magna T, Boyce JW, Tartese R, Vander Kaaden KE,
Steenstra ES, Elardo SM, Zeigler RA, Anand M, Liu Y. (2021) Endogenous lunar volatiles. In New Views of the Moon 2 - Reviews in Mineralogy and Geochemistry.
[8] Gaffney A, Warren P, Borg L, Donaldson Hanna K, Draper D, Dygert N, Elkins-Tanton L, Joy K, Prissel T, Rapp J, Steenstra ES,
van Westrenen W. (2021) Initial differentiation of the Moon. In New Views of the Moon 2 - Reviews in Mineralogy and
Geochemistry.
[7] Steenstra ES (2019) Constraints on planetary formation, accretion and differentiation from experimental petrology. PhD
thesis, ISBN 978-94-028-1355-5.
[6] Steenstra ES, van Westrenen W (2017) Lunar Magma Ocean: Comparison with other magma oceans. Encyclopedia of Lunar
Science.
[5] Steenstra ES, van Westrenen W (2017) Sulfides in the Moon. Encyclopedia of Lunar Science, Springer.
[4] Steenstra ES, van Westrenen W (2017) Lunar Core Composition. Encyclopedia of Lunar Science, Springer.
[3] Steenstra ES, van Westrenen W (2017) Lunar Core Dynamo. Encyclopedia of Lunar Science, Springer.
[2] Steenstra ES, van Westrenen W (2017) Lunar Core Formation. Encyclopedia of Lunar Science, Springer.
[1] Steenstra ES, van Westrenen W (2017) Siderophile elements in the lunar mantle. Encyclopedia of Lunar Science, Springer.
Popular science
- Radio NPO Radio 1, 09-03-2019. Focus, Hoe is de Maan ontstaan?
- Radio NPO Radio 1, 12-10-2018. Nieuws & Co, Spectaculaire én realistische film over de eerste man op de maan
- Radio NPO Radio 1, 27-07-2018. Spraakmakers, Naast bloedmaan vanavond ook Mars, Jupiter, Saturnus en Venus zichtbaar.
- Radio NPO Radio 1, 18-06-2018. Nieuws & Co, Maanmeteoriet zaait opnieuw twijfel over ontstaangeschiedenis Maan.
- Radio NPO Radio 1, 04-05-2018. Nieuws & Co, NASA-zoektocht naar 'marsbevingen' begint.
- Geobrief, 17-06-2017. Waar zijn de vluchtige elementen in de Maan gebleven?
- Kennislink, 13-05-2016. Verdwenen maanelementen teruggevonden in de kern.
- Scienceguide, 21-12-2015. Wij zijn de uitzondering.
- Advalvas, 13-10-2015. Promovendus kreeg onverwacht mailtje van NASA.
Published conference abstracts
[40] Steenstra ES, van Westrenen W, Berndt J, Klemme S, Fei Y (2019) High-temperature partitioning of volatile elements in the
cores of Moon and Mars? 50th LPSC #1071.
[39] Steenstra ES, Berndt J, Klemme S, Rohrbach A, van Westrenen W (2019) The fate of sulfur and chalcophile elements during
crystallization of the lunar magma ocean. 50th LPSC #1137.
[38] Trautner V, Steenstra ES, Berndt J, Klemme S, van Westrenen W (2019) Sulfide-silicate and metal-silicate partitioning
systematics at highly reduced conditions: Implications for distribution of volatile elements in Mercury and the Aubrite Parent
Body. 50th LPSC #2132.
[37] Kelderman E, Steenstra ES, Berndt J, Klemme S, Rohrbach A, van Westrenen W (2019) Sulfide-silicate partitioning
systematics of Th, U, and Li, Rb, Cs: Implications for differentiation of Mercury and other planets. 50th LPSC #1057.
[36] van Haaster F, Steenstra ES, van Mulligen R, Berndt J, Klemme S, Rohrbach A, van Westrenen W (2019) Experimental
quantification of the sulfide-silicate partitioning behavor of halogens and implications for halogen depletions in planetary
mantles. 50th LPSC #2132.
[35] van Westrenen W, Steenstra ES, Berndt J, Klemme S, Rohrbach A (2019) Did eucrites and angrites experience sulfide
saturation? 50th LPSC #1148.
[34] van Westrenen W, Steenstra ES (2018) Geochemical constraints on the composition of the Martian core. 49th LPSC #1025.
[33] van Westrenen W, Steenstra ES, Dankers D, Berndt J, Matveev S, Klemme S (2018) The Vestan core as a major reservoir for
volatile elements. 49th LPSC #1197.
[32] Steenstra ES, Seegers AX, Eising J, Tomassen BGJ, Webers FPF, Berndt J, Klemme S, Matveev S, van Westrenen W. (2018)
Evidence for a sulfur-depleted lunar interior from the solubility of S in lunar melts. 49th LPSC #1199.
[31] Steenstra ES, Berndt J, Klemme S, Matveev S, Fei Y, van Westrenen W. (2018) Assessment of a high-energy origin of the
Moon from metal-silicate partitioning of siderophile elements at high temperatures. 49th LPSC #1198.
[30] Steenstra ES, Seegers AX, Lin YH et al (2017) Metal-silicate partitioning of volatile siderophile elements: constraining
volatiles in the early Earth-Moon system. European Lunar Symposium, Munster.
[29] Steenstra ES, Agmon N, Arntz GL et al (2017) Metal-silicate partitioning of K as a function of composition and temperature
and its abundance in the lunar core. European Lunar Symposium, Munster.
[28] Lin YH, Hui HJ, Li Y, Hsu YJ, Chen W, Steenstra ES, van Westrenen W (2017) A lunar hygrometer based on plagioclase-melt
partitioning of hydrogen. European Lunar Symposium, Munster.
[27] van der Waal ARW, Steenstra ES, Luginbuhl SM et al (2017) The effect of water on the metal-silicate partitioning behaviour
of moderately siderophile elements. European Lunar Symposium, Munster.
[26] Gaffney AM, Warren PH, Borg LE, Draper DS, Dygert N, Elkins-Tanton LT, Joy K, Prissel T, Rapp J, Steenstra ES, van
Westrenen W (2017) Magmatic Evolution 1: Initial Differentiation. New Views of the Moon 2 meeting, Munster.
[25] Steenstra ES, Lin YH, Dankers D et al (2017) Metal-silicate partitioning of S, Se, Te, and Sb suggests minor volatile loss during
lunar formation and no volatile-rich late veneer. 48th LPSC #1051.
[24] Steenstra ES, Putter R, Seegers AX et al (2017) Significant non-linear pressure effects on interaction coefficients of
siderophile elements in FeSi alloys: Implications for geochemical models of core formation in the Earth. 48th LPSC #1050.
[23] Lin YH, Hui HJ, Li Y, Hsu YJ, Chen W, Steenstra ES, van Westrenen W (2017) A lunar hygrometer based on plagioclase-melt
partitioning of hydrogen. 48th LPSC #1286.
[22] Seegers AX, Steenstra ES, Putter R et al (2017) The effect of Si and fO2 on the metal-silicate partitioning of volatile siderophile
elements: Implications for the Se/Te systematics of the bulk silicate Earth. 48th LPSC #1053.
[21] Crockett M, Steenstra ES, Lin YH et al (2017) The effects of carbon on metal-silicate partitioning of volatile siderophile
elements and core formation in the Moon. 48th LPSC #1054.
[20] Agmon N, Steenstra ES, Arntz GL et al (2017) Metal-silicate partitioning of K as a function of composition and temperature:
testing its feasibility as a heat producing element in planetary cores. 48th LPSC #1052.
[19] Putter R, Steenstra ES, Seegers AX et al (2017) Effects of fO2 on Si metal-silicate partitioning of refractory and moderately
volatile siderophile elements: Implications for the Si content of Mercury's core. 48th LPSC #1055.
[18] Crockett M, Putter R, Seegers A, Rai N, van Westrenen W, Steenstra ES (2016) Metal-silicate partitioning of
siderophile elements: the effects of oxygen fugacity and carbon. ELS 2016, Amsterdam.
[17] Kelderman E, Davids B, Lin YH, Rai N, van Westrenen W, Steenstra ES (2016) Compressibility and density of hydrous
high-Ti lunar red and black glass. ELS 2016, Amsterdam.
[16] Steenstra ES, Lin YH, Dankers D et al (2016) Metal-silicate partitioning of volatile siderophile elements suggest volatiles were not lost during lunar formation. ELS 2016, Amsterdam.
[15] Rai N, Steenstra ES, Downes H, van Westrenen W (2016) Signatures of highly siderophile elements in the lunar mantle: HPHT core-mantle equilibration or late accretion addition of a chondritic component? 4th International HSE Geochemistry Workshop, Durham, UK.
[14] Steenstra ES, van Westrenen W (2016) Review of geochemical constraints on the formation and composition of the lunar core. New views of the Moon #2. #6039.
[13] Steenstra ES, Lin YH, Rai N et al (2016) Carbon as the dominant light element in the lunar core. 47th LPSC #1842.
[12] Steenstra ES, Dankers D, Lin YH et al (2016) Metal-silicate partitioning of S, Mn, Cr, Ni, As, Se, Cd, In, Sb, Te, and Pb at high pressure and temperature and its relevance for core formation in the Moon, asteroid Vesta and the angrite parent body. 47th LPSC #1851.
[11] van Westrenen W, Steenstra ES, Knibbe JS et al (2016) Metal-silicate partitioning of P, V, Co, Mo, Ge, and W and core formation
in the angrite parent body. 47th LPSC #1630.
[10] Lin YH, Steenstra ES, van Westrenen (2016) Hydrous early Moon? Constraints from hydrous lunar magma ocean solidification experiments. 47th LPSC #1295.
[9] Lin YH, Tronche EJ, Steenstra ES et al (2016) Solidification evolution of a dry lunar magma ocean: Constraints from experimental petrology. 47th LPSC #1296.
[8] Martin DJP, McDonald FE, Steenstra ES et al (2016) A long duration human-assisted robotic sample return mission to the Schrödinger basin part 2: traversing towards the basin wall. 47th LPSC #1468.
[7] McDonald FE, Martin DJP, Steenstra ES et al (2016) A long duration human-assisted robotic sample return mission to the Schrödinger basin part 1: traversing the basin center. 47th LPSC #1464.
[6] Venturino CS, Martin DJP, McDonald FE, Paisarnsombat S, Steenstra ES et al (2016) Lunar pyroclastic soil mechanics and trafficability in the Schrödinger basin. 47th LPSC #1676.
[5] D. Kring, Steenstra ES, Bottoms S et al (2015) Analyses of robotic traverses & sample sites in the Schrödinger basin for the HERACLES human-assisted lunar sample return mission concept. Moon 2020-2030, ESTEC, Noordwijk.
[4] Steenstra ES, Rai N, Berndt J, van Westrenen W (2015) Experimental metal-silicate partitioning of siderophile elements at high pressures and temperatures and its relevance for lunar core formation. ELS 2015, Frascati, Italy.
[3] Steenstra ES, Rai N, Knibbe JS, van Westrenen W (2015) New geochemical models of core formation in the Moon: constraints from metal-silicate partitioning of 14 siderophile and chalcophile elements. 46th LPSC #1490 and in: ELS 2015,
Frascati, Italy.
[2] Steenstra ES, Rai N, van Westrenen W (2015) Core formation in Vesta: constraints from metal-silicate partitioning of siderophile elements. 46th LPSC #1421.
[1] Steenstra ES, Rai N, van Westrenen W (2014) Core-mantle differentiation in the Moon: constraints from metal-silicate partitioning of moderately siderophile elements in a hydrous magma ocean. In: NAC12, The Netherlands and in: ELS 2014, London, UK
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