2015 Volume 24 Issue 10
Article Contents

Hong Wen-Ting, Han Wei-Hua, Lyu Qi-Feng, Wang Hao, Yang Fu-Hua. 2015: Fermi level pinning effects at gate-dielectric interfaces influenced by interface state densities, Chinese Physics B, null(10): 107306. doi: 10.1088/1674-1056/24/10/107306
Citation: Hong Wen-Ting, Han Wei-Hua, Lyu Qi-Feng, Wang Hao, Yang Fu-Hua. 2015: Fermi level pinning effects at gate-dielectric interfaces influenced by interface state densities, Chinese Physics B, null(10): 107306. doi: 10.1088/1674-1056/24/10/107306

Fermi level pinning effects at gate-dielectric interfaces influenced by interface state densities

  • Available Online: 30/12/2015
  • Fund Project: the National Natural Science Foundation of China (Grant .61376096,61327813, and 11234007)
  • The dependences of Fermi-level pinning on interface state densities for the metal–dielectric, ploycrystalline silicon–dielectric, and metal silicide–dielectric interfaces are investigated by calculating their effective work functions and their pinning factors. The Fermi-level pinning factors and effective work functions of the metal–dielectric interface are observed to be more susceptible to the increasing interface state densities, differing significantly from that of the ploycrystalline silicon–dielectric interface and the metal silicide–dielectric interface. The calculation results indicate that metal silicide gates with high-temperature resistance and low resistivity are a more promising choice for the design of gate materials in metal-oxide semiconductor (MOS) technology.
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    沈阳化工大学材料科学与工程学院 沈阳 110142

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Fermi level pinning effects at gate-dielectric interfaces influenced by interface state densities

Abstract: The dependences of Fermi-level pinning on interface state densities for the metal–dielectric, ploycrystalline silicon–dielectric, and metal silicide–dielectric interfaces are investigated by calculating their effective work functions and their pinning factors. The Fermi-level pinning factors and effective work functions of the metal–dielectric interface are observed to be more susceptible to the increasing interface state densities, differing significantly from that of the ploycrystalline silicon–dielectric interface and the metal silicide–dielectric interface. The calculation results indicate that metal silicide gates with high-temperature resistance and low resistivity are a more promising choice for the design of gate materials in metal-oxide semiconductor (MOS) technology.

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