First-principles calculation on the stable structure and adhesive strength of Ni/Fe(100) or Cu/Fe(100) interfaces

被引:5
|
作者
Nakanishi, Ryota [1 ]
Sueoka, Koji [2 ]
Shiba, Seiji [2 ]
Fukutani, Seishiro [2 ]
Hino, Makoto [3 ]
Murakami, Koji [3 ]
机构
[1] Okayama Prefectural Univ, Grad Sch, Dept Syst Engn, Soja 7191197, Japan
[2] Okayama Prefectural Univ, Dept Syst Engn, Soja 7191197, Japan
[3] Ind Technol Res Inst Okayama Prefecture, Dept Mech Engn, Met Mat Grp, Okayama 7011296, Japan
关键词
first Principles calculation; adhesion; interface; transmission electron microscopy (TEM); spin-polarization;
D O I
10.2320/jinstmet.71.1024
中图分类号
TF [冶金工业];
学科分类号
0806 ;
摘要
The maintenance of the adhesion of material interfaces is important in many technological fields. In this paper, we performed first principles calculation to understand the stable structure and adhesive strength of metallic material interfaces, Ni layer or Cu layer on Fe(100) surface formed by metal plating. In order to confirm the accuracy of our calculation, we have calculated the total energy and the [100] Young's modulus of Fe, Ni or Cu single crystal, by taking the spin-polarization into account. It was found that the calculated result of the crystal structure and lattice constant of these metals agreed satisfactorily with the values determined by experiments. The calculated [1001 Young's modulus of Fe, Ni and Cu was 136.7 GPa, 173.7 GPa and 122.2 GPa, respectively. Furthermore, we have calculated the stable configuration of Ni atoms at Fe (100) surface. Ni atoms take the corresponding position to the bcc structure of Fe (100) substrate. Similar result was obtained for Cu atoms at Fe(100) surface. The stable structure of the interfaces of 5 Ni layer/5 Fe (100) layer was determined, which was supported by TEM analysis of plated Ni layer on Fe (100) surface. The calculation also showed that the strength of adhesion of the Ni/Fe (100) interface stronger than that of the Cu/Fe (100) interface.
引用
收藏
页码:1024 / 1031
页数:8
相关论文
共 50 条
  • [41] First-principles exchange interactions in Fe, Ni, and Co
    van Schilfgaarde, M
    Antropov, VP
    JOURNAL OF APPLIED PHYSICS, 1999, 85 (08) : 4827 - 4829
  • [42] Magnetic properties of Fe/Ni bilayers on Cu(100)
    Liu, XD
    Wuttig, M
    PHYSICAL REVIEW B, 2001, 64 (10):
  • [43] First-Principles Calculation of the Evaporation Field and Roll-up Effect of M (M = Fe, Cu, Si , and Mn) on the Fe (001) and Fe Step Structure
    Ohnuma, Toshiharu
    MICROSCOPY AND MICROANALYSIS, 2022, 28 (04) : 1181 - 1187
  • [44] Study of the structure and magnetic properties of Fe/Cu superlattices from first-principles
    Lu, Shuo
    Shang, Jia-Xiang
    Zhang, Yue
    2006 BIMW: 2006 BEIJING INTERNATIONAL MATERIALS WEEK, PTS 1-4: MAGNESIUM, 2007, 546-549 : 2223 - +
  • [45] First-principles study of bcc-Fe/ε-cu interface with different Ni contents
    Wang H.
    Gao X.
    Ren H.
    Li D.
    Liu Z.
    1600, Editorial Office of Chinese Journal of Rare Metals (40): : 92 - 96
  • [46] Comment on "Magnetic phase transition in Co/Cu/Ni/Cu(100) and Co/Fe/Ni/Cu(100)" - Reply
    Won, C
    Wu, YZ
    Kurahashi, N
    Zhao, HW
    Qiu, ZQ
    Scholl, A
    Doran, A
    PHYSICAL REVIEW LETTERS, 2005, 94 (03)
  • [47] Oxygen adsorption on Cu(100): First-principles pseudopotential calculations
    Alatalo, M
    Jaatinen, S
    Salo, P
    Laasonen, K
    PHYSICAL REVIEW B, 2004, 70 (24) : 1 - 6
  • [48] Structural properties of Fe-Ni/Cu/Fe-Ni trilayers on Si(100)
    Sahoo, Ananya
    Mohanta, Maheswari
    Parida, S. K.
    Medicherla, V. R. R.
    PHASE TRANSITIONS, 2021, 94 (10) : 767 - 775
  • [49] First-principles calculation of exchange force on a magnetic Fe surface
    Nakamura, K
    Oguchi, T
    Hasegawa, H
    Sueoka, K
    Hayakawa, K
    Mukasa, K
    APPLIED SURFACE SCIENCE, 1999, 142 (1-4) : 433 - 437
  • [50] Calculation of impurity diffusivities in α-Fe using first-principles methods
    Huang, Shenyan
    Worthington, Daniel L.
    Asta, Mark
    Ozolins, Vidvuds
    Ghosh, Gautam
    Liaw, Peter K.
    ACTA MATERIALIA, 2010, 58 (06) : 1982 - 1993