Grain Growth

Grain Growth is the thermally driven process in which the average grain size of a polycrystalline material increases through the reduction of lattice strain energy and the annihilation of grain boundaries, distinguished from other microstructural changes by its dependence on atomic diffusion and boundary mobility.

19K

Publications

1.1M

Citations

44.2K

Authors

4.6K

Institutions

Publications per year

2017–2026

4.6K

Authors

44.2K

  1. TG
    Terence G. Langdon

    University of Southern California, United States

    127 publications · 20.5K citations

    63

    h-index

  2. DJ
    David J. Srolovitz

    Princeton University, United States

    75 publications · 9.1K citations

    49

    h-index

  3. ZH
    Zenji Horita

    Kyushu University, Japan

    69 publications · 11.2K citations

    41

    h-index

  4. GS
    Gregory S. Rohrer

    Carnegie Mellon University, United States

    73 publications · 4.5K citations

    40

    h-index

  5. EJ
    Enrique J. Lavernia

    University of California, Irvine, United States

    66 publications · 4.1K citations

    38

    h-index

1–5 of 44.2K

Venues

  1. Acta Materialia

    1.2K publications · 122.3K citations

    171

    h-index

  2. Materials Science and Engineering A

    1.2K publications · 71.4K citations

    112

    h-index

  3. Journal of the American Ceramic Society

    610 publications · 43.7K citations

    109

    h-index

  4. Scripta Materialia

    744 publications · 47.2K citations

    107

    h-index

  5. Acta Metallurgica

    375 publications · 40.9K citations

    104

    h-index

1–5