The Evolution of Growth, Crystal Orientation, and Grain Boundaries Disorientation Distribution in Gold Thin Films

Herein, the growth and annealing effect of gold thin films are systematically studied by using an automated crystal orientation mapping (ACOM–TEM) technique. The crystallographic redistribution and structural changes in grain and boundaries due to recrystallization and grain kinetic processes are fo...

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Bibliographic Details
Published inCrystal research and technology (1979) Vol. 53; no. 8
Main Authors Parajuli, Prakash, Mendoza‐Cruz, Rubén, Santiago, Ulises, Ponce, Arturo, Yacamán, Miguel José
Format Journal Article
LanguageEnglish
Published 01.08.2018
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Summary:Herein, the growth and annealing effect of gold thin films are systematically studied by using an automated crystal orientation mapping (ACOM–TEM) technique. The crystallographic redistribution and structural changes in grain and boundaries due to recrystallization and grain kinetic processes are followed and described. The as‐grown films show a dominant texture followed by , , , , and orientations; having a noticeable reorientation of the grains after annealing along the direction parallel to the electron beam, as well as the expected grain size enlargement. Moreover, the random high angle grain boundaries observed in as‐grown film transform towards low coincidence site lattice (CSL) boundaries after annealing. The consequences of recrystallization and grain kinetic processes, primarily grain rotation and coupled grain boundary migration on the evolution of the film structural properties are discussed based on the experimental results. In this paper, the growth, and annealing effect on texture and grain boundaries disorientation distribution of gold thin films are systematically studied by using an automated crystal orientation mapping (ACOM–TEM) technique. Results indicate the significant increment of the content ratio of predominant orientation as well as grain enlargement, and transformation of random high angle grain boundaries to coincidence site lattice boundaries.
ISSN:0232-1300
1521-4079
DOI:10.1002/crat.201800038