- V13B: Volatile Evolution and Behavior: From Planetary Habitability to Mantle Redox I Oral
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NOLA CC
Primary Convener:Generic 'disconnected' Message
Hyunjoo Lee, Columbia University
Convener:
Patrick Beaudry, Johns Hopkins University
Ekanshu Mallick, Tulane University of Louisiana
Hongluo Zhang, China University of Geosciences
Leila Honarbakhsh, University of Louisiana at Lafayette
Michael Hudak, Williams College
Proteek Chowdhury, Rice University
Chair:
Patrick Beaudry, Johns Hopkins University
Hyunjoo Lee, Columbia University
Michael Hudak, Williams College
The behavior of volatile elements (e.g., H, C, N, S, O, halogens, noble gases) plays a central role in shaping the chemical and physical evolution of planetary interiors and surface environments. Magmatic and redox processes—spanning core formation, magma oceans, mantle melting, subduction recycling, and volcanic outgassing—govern volatile storage, transport, and release, linking planetary interiors to atmospheres and habitability. Their coupled evolution regulates volatile fluxes to the surface, shaping atmospheres, volcanic activity, and the availability of life-enabling elements in Earth’s near-surface. This session invites interdisciplinary contributions that integrate geochemical, isotopic, experimental, analytical, and modeling approaches (including thermodynamics, fluid/molecular dynamics, and AI/ML tools) to explore volatile cycling from the deep mantle to planetary surfaces. We particularly encourage cross-disciplinary perspectives, studies bridging mantle redox with magmatic and volcanic processes, and participation from early-career researchers. Together, we aim to advance understanding of how volatiles and redox evolution shape Earth and other terrestrial planets.
Index Terms
3613 Subduction zone processes
3630 Experimental mineralogy and petrology
8410 Geochemical modeling
8411 Thermodynamics
Cross-Listed:
P - Planetary Sciences
DI - Study of the Earth´s Deep Interior
Neighborhoods:
2. Earth Interior
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