The effect of sintering regime on superhydrophobicity of silicon nitride modified ceramic surfaces

The most common method of obtaining a superhydrophobic surface is to create a specific surface morphology and then coat it with a hydrophobic polymer. Numerous such morphological surfaces have been developed but are often fragile. Ceramic-based coatings show longer life with high wear resistance. In...

Full description

Bibliographic Details
Main Authors: Gokhan Acikbas, Nurcan Calis Acikbas
Format: Article
Language:English
Published: Taylor & Francis Group 2021-04-01
Series:Journal of Asian Ceramic Societies
Subjects:
Online Access:http://dx.doi.org/10.1080/21870764.2021.1915563
id doaj-adb7fba317f04bc0a34e7e98a0ed1f9f
record_format Article
spelling doaj-adb7fba317f04bc0a34e7e98a0ed1f9f2021-05-06T16:05:16ZengTaylor & Francis GroupJournal of Asian Ceramic Societies2187-07642021-04-019273474410.1080/21870764.2021.19155631915563The effect of sintering regime on superhydrophobicity of silicon nitride modified ceramic surfacesGokhan Acikbas0Nurcan Calis Acikbas1Bilecik S.E. UniversityMersin University, Engineering FacultyThe most common method of obtaining a superhydrophobic surface is to create a specific surface morphology and then coat it with a hydrophobic polymer. Numerous such morphological surfaces have been developed but are often fragile. Ceramic-based coatings show longer life with high wear resistance. In this study, surface micro-nano surface morphology was developed with β-Si3N4 powder and the influence of sintering regime on contact angle of ceramic surfaces was investigated. The contact angle, surface energy and surface roughness were determined from the developed surfaces and surface morphology analyzed by scanning electron microscopy, phase evolution was determined by X-Ray diffraction. Changes in sintering regimes lead to different phase evolutions, roughness, surface topography, surface free energies and contact angles. The superhydrophobicity resulted mainly due to the surface structure/topography in the micro-nano hybrid structures of β-Si3N4 crystals. The highest water contact angle achieved was 166º of the samples sintered at 980°C for 5 min.http://dx.doi.org/10.1080/21870764.2021.1915563si3n4superhydrophobicitysinteringmicro-nano hybrid structuresceramic surfaces
collection DOAJ
language English
format Article
sources DOAJ
author Gokhan Acikbas
Nurcan Calis Acikbas
spellingShingle Gokhan Acikbas
Nurcan Calis Acikbas
The effect of sintering regime on superhydrophobicity of silicon nitride modified ceramic surfaces
Journal of Asian Ceramic Societies
si3n4
superhydrophobicity
sintering
micro-nano hybrid structures
ceramic surfaces
author_facet Gokhan Acikbas
Nurcan Calis Acikbas
author_sort Gokhan Acikbas
title The effect of sintering regime on superhydrophobicity of silicon nitride modified ceramic surfaces
title_short The effect of sintering regime on superhydrophobicity of silicon nitride modified ceramic surfaces
title_full The effect of sintering regime on superhydrophobicity of silicon nitride modified ceramic surfaces
title_fullStr The effect of sintering regime on superhydrophobicity of silicon nitride modified ceramic surfaces
title_full_unstemmed The effect of sintering regime on superhydrophobicity of silicon nitride modified ceramic surfaces
title_sort effect of sintering regime on superhydrophobicity of silicon nitride modified ceramic surfaces
publisher Taylor & Francis Group
series Journal of Asian Ceramic Societies
issn 2187-0764
publishDate 2021-04-01
description The most common method of obtaining a superhydrophobic surface is to create a specific surface morphology and then coat it with a hydrophobic polymer. Numerous such morphological surfaces have been developed but are often fragile. Ceramic-based coatings show longer life with high wear resistance. In this study, surface micro-nano surface morphology was developed with β-Si3N4 powder and the influence of sintering regime on contact angle of ceramic surfaces was investigated. The contact angle, surface energy and surface roughness were determined from the developed surfaces and surface morphology analyzed by scanning electron microscopy, phase evolution was determined by X-Ray diffraction. Changes in sintering regimes lead to different phase evolutions, roughness, surface topography, surface free energies and contact angles. The superhydrophobicity resulted mainly due to the surface structure/topography in the micro-nano hybrid structures of β-Si3N4 crystals. The highest water contact angle achieved was 166º of the samples sintered at 980°C for 5 min.
topic si3n4
superhydrophobicity
sintering
micro-nano hybrid structures
ceramic surfaces
url http://dx.doi.org/10.1080/21870764.2021.1915563
work_keys_str_mv AT gokhanacikbas theeffectofsinteringregimeonsuperhydrophobicityofsiliconnitridemodifiedceramicsurfaces
AT nurcancalisacikbas theeffectofsinteringregimeonsuperhydrophobicityofsiliconnitridemodifiedceramicsurfaces
AT gokhanacikbas effectofsinteringregimeonsuperhydrophobicityofsiliconnitridemodifiedceramicsurfaces
AT nurcancalisacikbas effectofsinteringregimeonsuperhydrophobicityofsiliconnitridemodifiedceramicsurfaces
_version_ 1721456418278604800