What question did this study set out to answer?

To investigate the mechanisms of high-temperature superconductivity in Li-Al-H systems under high pressure.

Mechanism of Pressure-Driven High-Temperature Superconductivity in Li–Al–H Systems under High Pressure

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Explores how pressure influences superconducting properties in Li-Al-H systems, suggesting new design strategies for high-Tc materials.

To investigate the mechanisms of high-temperature superconductivity in Li-Al-H systems under high pressure.
Conducted structural searches of Li-Al-H materials at 200 GPa.
Predicted stable phases, Pm3−m Li3AlH4 and P4/mmm LiAlH5.
Analyzed electron-phonon coupling and electronic density of states under varying pressures.
Li3AlH4 exhibits a critical temperature of 78.32 K at 350 GPa.
LiAlH5 reaches a maximum critical temperature of 128.96 K at 100 GPa.
Distinct pressure responses of electronic density of states influence superconducting properties.

Zhang et al. (2026) studied this question.

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View Full Paper

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Authors

Explores how pressure influences superconducting properties in Li-Al-H systems, suggesting new design strategies for high-Tc materials.

To investigate the mechanisms of high-temperature superconductivity in Li-Al-H systems under high pressure.
Conducted structural searches of Li-Al-H materials at 200 GPa.
Predicted stable phases, Pm3−m Li3AlH4 and P4/mmm LiAlH5.
Analyzed electron-phonon coupling and electronic density of states under varying pressures.
Li3AlH4 exhibits a critical temperature of 78.32 K at 350 GPa.
LiAlH5 reaches a maximum critical temperature of 128.96 K at 100 GPa.
Distinct pressure responses of electronic density of states influence superconducting properties.

Zhang et al. (2026) studied this question.

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