行星的增生與分異演化、火星核的成分與彈性性質

Planetary accretion and differentiation, composition and elasticity of Mars’ core

Selected publications：

1. Huang D., Siebert J., Sossi P., Kubik E., Avice G., Murakami M., (2024) Nitrogen sequestration in the core at megabar pressure and implications for terrestrial accretion. Geochimica et Cosmochimica Acta, 376, 100–112.

2. Huang D., Li Y., Murakami M. (2024), Low viscosity of peridotite liquid: implications for magma ocean dynamics. Geophysical Research Letters, 51, e2023GL107608.

3. Khan A.*, Huang D.*, Durán C., Sossi P., Giardini D., Murakami M., (2023) Evidence for a liquid silicate layer atop the Martian core, Nature, 622, 718–723. (*Corresponding author)

4. Huang D., Li Y., Khan A., Sossi P., Giardini D., Murakami M., (2023) Thermoelastic proper- ties of liquid Fe-rich alloys under Martian core conditions, Geophysical Research Letters, 50, e2022GL102271.

5. Huang D., Murakami M., Brodholt J., McCammon C., Petitgirard S., (2022) Structural evolution in a pyrolitic magma ocean under mantle conditions, Earth and Planetary Science Letters, 584, 117473.

6. Huang D., Siebert J., Badro J., (2021) High pressure partitioning behavior of Mo and W and late sulfur delivery during Earth’s core formation. Geochimica et Cosmochimica Acta, 310, 19–31.

7. Huang D., Badro J., Siebert J., (2020) The niobium and tantalum concentration in the mantle constrains the composition of Earth’s primordial magma ocean. PNAS, 117, 27893–27898.

8. Huang D., Badro J., Brodholt J., Li Y., (2019) Ab initio molecular dynamics investigation of molten Fe-Si-O in Earth’s core. Geophysical Research Letters, 46, 6397–6405.