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First principles and experimental studies of empty Si46 as anode materials for Li-ion batteries

  • Kwai S. Chan (a1), Michael A. Miller (a1), Wuwei Liang (a1), Carol Ellis-Terrell (a1) and Candace K. Chan (a2)...
  • Please note a correction has been issued for this article.


The objective of this investigation was to utilize the first-principles molecular dynamics computational approach to investigate the lithiation characteristics of empty silicon clathrates (Si46) for applications as potential anode materials in lithium-ion batteries. The energy of formation, volume expansion, and theoretical capacity were computed for empty silicon clathrates as a function of Li. The theoretical results were compared against experimental data of long-term cyclic tests performed on half-cells using electrodes fabricated from Si46 prepared using a Hofmann-type elimination–oxidation reaction. The comparison revealed that the theoretically predicted capacity (of 791.6 mAh/g) agreed with experimental data (809 mAh/g) that occurred after insertion of 48 Li atoms. The calculations showed that overlithiation beyond 66 Li atoms can cause large volume expansion with a volume strain as high as 120%, which may correlate to experimental observations of decreasing capacities from the maximum at 1030 mAh/g to 553 mA h/g during long-term cycling tests. The finding suggests that overlithiation beyond 66 Li atoms may have caused damage to the cage structure and led to lower reversible capacities.


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First principles and experimental studies of empty Si46 as anode materials for Li-ion batteries

  • Kwai S. Chan (a1), Michael A. Miller (a1), Wuwei Liang (a1), Carol Ellis-Terrell (a1) and Candace K. Chan (a2)...
  • Please note a correction has been issued for this article.


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