Effects of various carbon-based materials on polymer matrix to the barrier and corrosion performance of coating

The modified version of the Horizontal Vapor Phase Growth (HVPG) technique has been adapted to synthesize multilayer graphene. The study investigates varying temperatures and times when layered carbon exfoliation occurs, which is determined to be 1100oC for 3 hrs. It has been confirmed through vario...

Full description

Saved in:
Bibliographic Details
Main Author: Sajor, Normie Jean B.
Format: text
Language:English
Published: Animo Repository 2022
Subjects:
Online Access:https://animorepository.dlsu.edu.ph/etdd_physics/3
Tags: Add Tag
No Tags, Be the first to tag this record!
Institution: De La Salle University
Language: English
id oai:animorepository.dlsu.edu.ph:etdd_physics-1002
record_format eprints
spelling oai:animorepository.dlsu.edu.ph:etdd_physics-10022023-01-24T00:26:57Z Effects of various carbon-based materials on polymer matrix to the barrier and corrosion performance of coating Sajor, Normie Jean B. The modified version of the Horizontal Vapor Phase Growth (HVPG) technique has been adapted to synthesize multilayer graphene. The study investigates varying temperatures and times when layered carbon exfoliation occurs, which is determined to be 1100oC for 3 hrs. It has been confirmed through various characterization, such as morphology, elemental composition, structural properties, and crystallinity, that an amorphous multilayer graphene (graphite oxide) is formed. The optimal ratio of the multilayer graphene and commercial graphene on the PANI matrix and the composite filler material on the coating binder matrix has been analyzed through the corrosion property, algae susceptibility, and hydrophobicity tests. Results show that lower concentrations of the Polyaniline/Commercial Graphene (PANI/CG) and Polyaniline/Multilayer Graphene (PANI/MG) performed better anticorrosion properties, especially at higher concentrations, the composite material tends to agglomerate because of the Van der Waals interaction of graphene. Furthermore, the algae susceptibility test indicates that commercial graphene affects the algae since, as the formulation is increased, minimal algae attachment is observed. Unlike in the composite material using multilayer graphene, the surface roughness has been the factor in the algae attachment. The hydrophobicity test also signified that all formulations, including the 5-layer commercial corrosion coating, the PANI/CG, and PANI/MG, are hydrophilic. The factor contributing to the hydrophilic property of the 5-layer commercial corrosion coating and PANI/CG is the coating binder matrix, while for the PANI/MG, the multilayer graphene is already hydrophilic. Polysiloxane has been integrated with the coating matrix to address the hydrophobic property. 2022-01-01T08:00:00Z text application/pdf https://animorepository.dlsu.edu.ph/etdd_physics/3 Physics Dissertations English Animo Repository Graphene Physics
institution De La Salle University
building De La Salle University Library
continent Asia
country Philippines
Philippines
content_provider De La Salle University Library
collection DLSU Institutional Repository
language English
topic Graphene
Physics
spellingShingle Graphene
Physics
Sajor, Normie Jean B.
Effects of various carbon-based materials on polymer matrix to the barrier and corrosion performance of coating
description The modified version of the Horizontal Vapor Phase Growth (HVPG) technique has been adapted to synthesize multilayer graphene. The study investigates varying temperatures and times when layered carbon exfoliation occurs, which is determined to be 1100oC for 3 hrs. It has been confirmed through various characterization, such as morphology, elemental composition, structural properties, and crystallinity, that an amorphous multilayer graphene (graphite oxide) is formed. The optimal ratio of the multilayer graphene and commercial graphene on the PANI matrix and the composite filler material on the coating binder matrix has been analyzed through the corrosion property, algae susceptibility, and hydrophobicity tests. Results show that lower concentrations of the Polyaniline/Commercial Graphene (PANI/CG) and Polyaniline/Multilayer Graphene (PANI/MG) performed better anticorrosion properties, especially at higher concentrations, the composite material tends to agglomerate because of the Van der Waals interaction of graphene. Furthermore, the algae susceptibility test indicates that commercial graphene affects the algae since, as the formulation is increased, minimal algae attachment is observed. Unlike in the composite material using multilayer graphene, the surface roughness has been the factor in the algae attachment. The hydrophobicity test also signified that all formulations, including the 5-layer commercial corrosion coating, the PANI/CG, and PANI/MG, are hydrophilic. The factor contributing to the hydrophilic property of the 5-layer commercial corrosion coating and PANI/CG is the coating binder matrix, while for the PANI/MG, the multilayer graphene is already hydrophilic. Polysiloxane has been integrated with the coating matrix to address the hydrophobic property.
format text
author Sajor, Normie Jean B.
author_facet Sajor, Normie Jean B.
author_sort Sajor, Normie Jean B.
title Effects of various carbon-based materials on polymer matrix to the barrier and corrosion performance of coating
title_short Effects of various carbon-based materials on polymer matrix to the barrier and corrosion performance of coating
title_full Effects of various carbon-based materials on polymer matrix to the barrier and corrosion performance of coating
title_fullStr Effects of various carbon-based materials on polymer matrix to the barrier and corrosion performance of coating
title_full_unstemmed Effects of various carbon-based materials on polymer matrix to the barrier and corrosion performance of coating
title_sort effects of various carbon-based materials on polymer matrix to the barrier and corrosion performance of coating
publisher Animo Repository
publishDate 2022
url https://animorepository.dlsu.edu.ph/etdd_physics/3
_version_ 1756432662609788928