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- Volume 40, Issue 10 (Engineered Nanomaterials in Aerospace)
- October 2015 , pp. 856-869
Density-functional theory guided advances in phase-change materials and memories
- Wei Zhang (a1), Volker L. Deringer (a2), Richard Dronskowski (a3), Riccardo Mazzarello (a4), Evan Ma (a5) and Matthias Wuttig (a6)...
- (a1) a
Xi’an Jiaotong University ,Xi’an ,China ;wzhang0@mail.xjtu.edu.cn - (a2) b
RWTH Aachen University ,Aachen ,Germany ;volker.deringer@ac.rwth-aachen.de - (a3) c
RWTH Aachen University ,Aachen ,Germany ;drons@HAL9000.ac.rwth-aachen.de - (a4) d
RWTH Aachen University ,Aachen ,Germany ;mazzarello@physik.rwth-aachen.de - (a5) e
Johns Hopkins University ,USA ;ema@jhu.edu - (a6) f
RWTH Aachen University ,Aachen ,Germany ;wuttig@physik.rwth-aachen.de -
- https://doi.org/10.1557/mrs.2015.227
- Published online: 08 October 2015
Phase-change materials (PCMs) are promising candidates for novel data-storage and memory applications. They encode digital information by exploiting the optical and electronic contrast between amorphous and crystalline states. Rapid and reversible switching between the two states can be induced by voltage or laser pulses. Here, we review how density-functional theory (DFT) is advancing our understanding of PCMs. We describe key DFT insights into structural, electronic, and bonding properties of PCMs and into technologically relevant processes such as fast crystallization and relaxation of the amorphous state. We also comment on the leading role played by predictive DFT simulations in new potential applications of PCMs, including topological properties, switching between different topological states, and magnetic properties of doped PCMs. Such DFT-based approaches are also projected to be powerful in guiding advances in other materials-science fields.
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