Corrosion Rate and Wear Mechanisms Comparison for Aisi 410 Stainles Steel Exposed to Pure Corrosion and Abrasion-corrosion in a Simulated Marine Environment

Due to its diversity of applications in mechanical components such as; pumps, valves and turbine parts, AISI 410 stainless steel is exposed to combined conditions of wear and corrosion. Although several works have been carried out to evaluate some properties of this steel, there is not enough inform...

Full description

Bibliographic Details
Main Authors: G.A. Rodríguez-Bravo, M. Vite-Torres, J.G. Godínez-Salcedo
Format: Article
Language:English
Published: University of Kragujevac 2019-09-01
Series:Tribology in Industry
Subjects:
Online Access:http://www.tribology.rs/journals/2019/2019-3/2019-3-09.html
_version_ 1828530176612368384
author G.A. Rodríguez-Bravo
M. Vite-Torres
J.G. Godínez-Salcedo
author_facet G.A. Rodríguez-Bravo
M. Vite-Torres
J.G. Godínez-Salcedo
author_sort G.A. Rodríguez-Bravo
collection DOAJ
description Due to its diversity of applications in mechanical components such as; pumps, valves and turbine parts, AISI 410 stainless steel is exposed to combined conditions of wear and corrosion. Although several works have been carried out to evaluate some properties of this steel, there is not enough information about the changes in its corrosion rate when the work conditions change from pure corrosion to abrasion-corrosion in a marine environment, so it is necessary to delve into an analysis from the tribocorrosion perspective, since it is still been a phenomenon not completely understood. This work presents results of AISI 410 corrosion rate analysis, carried out in a novel test rig based on ASTM G-105 wet sand apparatus but adapted with an electrochemical corrosion cell to contain the corrosive medium. Two electrochemical techniques were used: polarization resistance (Rp), and anodic potentiodynamic polarization. Substitute ocean water (aqueous medium), and silica sand (abrasive particles) were used to recreate the medium. SEM analysis was performed after each test to determine wear mechanisms. Material does not present a good corrosion resistance under pure corrosion condition contrary to abrasion-corrosion. Polarization curves do not show a passivation zone of the material when it is submerged in medium.
first_indexed 2024-12-11T22:19:27Z
format Article
id doaj.art-fd5ebeba6f9b469f8532b1a2b58e4752
institution Directory Open Access Journal
issn 0354-8996
2217-7965
language English
last_indexed 2024-12-11T22:19:27Z
publishDate 2019-09-01
publisher University of Kragujevac
record_format Article
series Tribology in Industry
spelling doaj.art-fd5ebeba6f9b469f8532b1a2b58e47522022-12-22T00:48:30ZengUniversity of KragujevacTribology in Industry0354-89962217-79652019-09-0141339440010.24874/ti.2019.41.03.09Corrosion Rate and Wear Mechanisms Comparison for Aisi 410 Stainles Steel Exposed to Pure Corrosion and Abrasion-corrosion in a Simulated Marine EnvironmentG.A. Rodríguez-Bravo 0M. Vite-Torres1J.G. Godínez-Salcedo2Instituto Politécnico Nacional, SEPI ESIME Zacatenco, Ciudad de México, MéxicoInstituto Politécnico Nacional, SEPI ESIME Zacatenco, Ciudad de México, MéxicoInstituto Politécnico Nacional, SEPI ESIQIE Zacatenco, Ciudad de México, MéxicoDue to its diversity of applications in mechanical components such as; pumps, valves and turbine parts, AISI 410 stainless steel is exposed to combined conditions of wear and corrosion. Although several works have been carried out to evaluate some properties of this steel, there is not enough information about the changes in its corrosion rate when the work conditions change from pure corrosion to abrasion-corrosion in a marine environment, so it is necessary to delve into an analysis from the tribocorrosion perspective, since it is still been a phenomenon not completely understood. This work presents results of AISI 410 corrosion rate analysis, carried out in a novel test rig based on ASTM G-105 wet sand apparatus but adapted with an electrochemical corrosion cell to contain the corrosive medium. Two electrochemical techniques were used: polarization resistance (Rp), and anodic potentiodynamic polarization. Substitute ocean water (aqueous medium), and silica sand (abrasive particles) were used to recreate the medium. SEM analysis was performed after each test to determine wear mechanisms. Material does not present a good corrosion resistance under pure corrosion condition contrary to abrasion-corrosion. Polarization curves do not show a passivation zone of the material when it is submerged in medium.http://www.tribology.rs/journals/2019/2019-3/2019-3-09.htmlTribocorrosionCorrosion rateSeawaterAbrasion-corrosionAISI 410
spellingShingle G.A. Rodríguez-Bravo
M. Vite-Torres
J.G. Godínez-Salcedo
Corrosion Rate and Wear Mechanisms Comparison for Aisi 410 Stainles Steel Exposed to Pure Corrosion and Abrasion-corrosion in a Simulated Marine Environment
Tribology in Industry
Tribocorrosion
Corrosion rate
Seawater
Abrasion-corrosion
AISI 410
title Corrosion Rate and Wear Mechanisms Comparison for Aisi 410 Stainles Steel Exposed to Pure Corrosion and Abrasion-corrosion in a Simulated Marine Environment
title_full Corrosion Rate and Wear Mechanisms Comparison for Aisi 410 Stainles Steel Exposed to Pure Corrosion and Abrasion-corrosion in a Simulated Marine Environment
title_fullStr Corrosion Rate and Wear Mechanisms Comparison for Aisi 410 Stainles Steel Exposed to Pure Corrosion and Abrasion-corrosion in a Simulated Marine Environment
title_full_unstemmed Corrosion Rate and Wear Mechanisms Comparison for Aisi 410 Stainles Steel Exposed to Pure Corrosion and Abrasion-corrosion in a Simulated Marine Environment
title_short Corrosion Rate and Wear Mechanisms Comparison for Aisi 410 Stainles Steel Exposed to Pure Corrosion and Abrasion-corrosion in a Simulated Marine Environment
title_sort corrosion rate and wear mechanisms comparison for aisi 410 stainles steel exposed to pure corrosion and abrasion corrosion in a simulated marine environment
topic Tribocorrosion
Corrosion rate
Seawater
Abrasion-corrosion
AISI 410
url http://www.tribology.rs/journals/2019/2019-3/2019-3-09.html
work_keys_str_mv AT garodriguezbravo corrosionrateandwearmechanismscomparisonforaisi410stainlessteelexposedtopurecorrosionandabrasioncorrosioninasimulatedmarineenvironment
AT mvitetorres corrosionrateandwearmechanismscomparisonforaisi410stainlessteelexposedtopurecorrosionandabrasioncorrosioninasimulatedmarineenvironment
AT jggodinezsalcedo corrosionrateandwearmechanismscomparisonforaisi410stainlessteelexposedtopurecorrosionandabrasioncorrosioninasimulatedmarineenvironment