Annealing effect on morphology, surface roughness and structure of thermally evaporated tin oxide thin films

SnO2 thin films were produced utilizing the Thermal Vacuum Evaporation method on quartz substrates. Three samples—FAA, FV-200, and FA-400—were made and labelled. While samples of the FV-200 and FA-400 were annealed at 200 ◦C and 400 ◦C, respectively, the as deposited thin film is FAA. The root mean...

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Main Authors: Abideen A. Ibiyemi, M. A. Ilyas, Jamiu Lawal
Format: Article
Language:English
Published: FLAYOO PUBLISHING HOUSE LIMITED 2023-11-01
Series:Recent Advances in Natural Sciences
Subjects:
Online Access:https://flayoophl.com/journals/index.php/rans/article/view/38
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author Abideen A. Ibiyemi
M. A. Ilyas
Jamiu Lawal
author_facet Abideen A. Ibiyemi
M. A. Ilyas
Jamiu Lawal
author_sort Abideen A. Ibiyemi
collection DOAJ
description SnO2 thin films were produced utilizing the Thermal Vacuum Evaporation method on quartz substrates. Three samples—FAA, FV-200, and FA-400—were made and labelled. While samples of the FV-200 and FA-400 were annealed at 200 ◦C and 400 ◦C, respectively, the as deposited thin film is FAA. The root mean square (RMS) roughness, uniformity, and average roughness of the films were all measured using the atomic force microscope. The film was spherical after being annealed at 400 ◦C, covering the substrate more uniformly with erratic growth. The as-deposited film exhibits an uneven distribution of grains of varying sizes. The sample showed consistent grain development after being annealed at 200 ◦C. The root mean square values of samples FAA, FV-200, and FA400 are 42.2 nm, 41.7 nm, and 112.7 nm. The XRD technique was used to the strongest of which could be seen at 2θ = 300, or the (200) plane of Sn metal. The thin film was annealed in vacuum at 200 ◦C and revealed three more peaks, with the strongest peak appearing at 2θ = 30◦, which is consistent with an enhanced structure of Sn metal thin film. The sample annealed at 400 ◦C revealed high surface roughness compare to other samples and its films are clearly defined, spherical, and cover the substrate more evenly. Whereas, a mixture of large and small grains with uneven distribution throughout the substrate and poor film homogeneity was reveal by film without heat treatment.
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spelling doaj.art-7570d23ccaa545a398d4d727ebc7bd362024-03-05T05:04:34ZengFLAYOO PUBLISHING HOUSE LIMITEDRecent Advances in Natural Sciences1596-05441596-07572023-11-011210.61298/rans.2023.1.2.3838Annealing effect on morphology, surface roughness and structure of thermally evaporated tin oxide thin filmsAbideen A. Ibiyemi0M. A. Ilyas1Jamiu Lawal 2Department of Physics, Federal University Oye Ekiti, NigeriaDepartment of Physics, Federal University Oye Ekiti, NigeriaDepartment of Physics, Federal University Oye Ekiti, Nigeria SnO2 thin films were produced utilizing the Thermal Vacuum Evaporation method on quartz substrates. Three samples—FAA, FV-200, and FA-400—were made and labelled. While samples of the FV-200 and FA-400 were annealed at 200 ◦C and 400 ◦C, respectively, the as deposited thin film is FAA. The root mean square (RMS) roughness, uniformity, and average roughness of the films were all measured using the atomic force microscope. The film was spherical after being annealed at 400 ◦C, covering the substrate more uniformly with erratic growth. The as-deposited film exhibits an uneven distribution of grains of varying sizes. The sample showed consistent grain development after being annealed at 200 ◦C. The root mean square values of samples FAA, FV-200, and FA400 are 42.2 nm, 41.7 nm, and 112.7 nm. The XRD technique was used to the strongest of which could be seen at 2θ = 300, or the (200) plane of Sn metal. The thin film was annealed in vacuum at 200 ◦C and revealed three more peaks, with the strongest peak appearing at 2θ = 30◦, which is consistent with an enhanced structure of Sn metal thin film. The sample annealed at 400 ◦C revealed high surface roughness compare to other samples and its films are clearly defined, spherical, and cover the substrate more evenly. Whereas, a mixture of large and small grains with uneven distribution throughout the substrate and poor film homogeneity was reveal by film without heat treatment. https://flayoophl.com/journals/index.php/rans/article/view/38Tin filmsThermal vacuum evaporationRoot mean square
spellingShingle Abideen A. Ibiyemi
M. A. Ilyas
Jamiu Lawal
Annealing effect on morphology, surface roughness and structure of thermally evaporated tin oxide thin films
Recent Advances in Natural Sciences
Tin films
Thermal vacuum evaporation
Root mean square
title Annealing effect on morphology, surface roughness and structure of thermally evaporated tin oxide thin films
title_full Annealing effect on morphology, surface roughness and structure of thermally evaporated tin oxide thin films
title_fullStr Annealing effect on morphology, surface roughness and structure of thermally evaporated tin oxide thin films
title_full_unstemmed Annealing effect on morphology, surface roughness and structure of thermally evaporated tin oxide thin films
title_short Annealing effect on morphology, surface roughness and structure of thermally evaporated tin oxide thin films
title_sort annealing effect on morphology surface roughness and structure of thermally evaporated tin oxide thin films
topic Tin films
Thermal vacuum evaporation
Root mean square
url https://flayoophl.com/journals/index.php/rans/article/view/38
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AT mailyas annealingeffectonmorphologysurfaceroughnessandstructureofthermallyevaporatedtinoxidethinfilms
AT jamiulawal annealingeffectonmorphologysurfaceroughnessandstructureofthermallyevaporatedtinoxidethinfilms