Rolling contact fatigue study of chilled and quenched/tempered ductile iron compared with AISI 1080 steel

Both ductile iron and steel are widely used to build rolling elements. As ductile irons generally cost less than steels, this study was conducted to evaluate its rolling contact fatigue (RCF) performance by comparing with that of the AISI 1080 steel. The RCF resistance of two ductile iron variants,...

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Veröffentlicht in:Wear 2021-08, Vol.478-479, p.203890, Article 203890
Hauptverfasser: Wang, Ben L., Morris, Dallin S., Farshid, Sadeghi, Lortz, Stephen, Ma, Quancang, Wang, Chinpei, Chen, Yong-ching, Sanders, Paul
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container_issue
container_start_page 203890
container_title Wear
container_volume 478-479
creator Wang, Ben L.
Morris, Dallin S.
Farshid, Sadeghi
Lortz, Stephen
Ma, Quancang
Wang, Chinpei
Chen, Yong-ching
Sanders, Paul
description Both ductile iron and steel are widely used to build rolling elements. As ductile irons generally cost less than steels, this study was conducted to evaluate its rolling contact fatigue (RCF) performance by comparing with that of the AISI 1080 steel. The RCF resistance of two ductile iron variants, chilled ductile iron (CDI) and quenched and tempered ductile iron (Q&T DI), was evaluated. RCF testing was performed using a 3-ball and rod rig. The CDI and Q&T DI results were compared to those of Q&T 1080 steel. The three groups of specimens were processed to ensure a consistent surface hardness of 60 HRC prior to testing. Q&T DI exhibits a much lower RCF loading capacity (2.1 GPa) compared with CDI (3.6 GPa). Under the same loading condition, CDI demonstrated a significantly lower RCF resistance compared with Q&T 1080 steel. Failures in CDI was found to be independent of graphite, which explains CDI’s improved RCF life compared to Q&T DI. This improvement is attributed to higher micro-hardness and less variation throughout the material. The microstructure of tested CDI was analyzed with electron backscatter diffraction (EBSD) from the specimen surface to the core. These observations on carbide volume fraction and growth preference correlated to cooling rate differences between the material groups. This study paves the way for mechanistically based process design of ductile iron variants to achieve comparable RCF life of steels. •Similar surface hardness in the range 57.3–60.4HRC were achieved with three materials.•Quenched and tempered 1080 steel outperformed cast irons in rolling contact fatigue.•Chilled ductile outperformed quenched and tempered ductile iron even with lower surface hardness.•Improved microstructure consistency was found to benefit fatigue life of cast irons.•RCF performance of iron may be further improved by optimization of microconstituent volume and morphology.
doi_str_mv 10.1016/j.wear.2021.203890
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As ductile irons generally cost less than steels, this study was conducted to evaluate its rolling contact fatigue (RCF) performance by comparing with that of the AISI 1080 steel. The RCF resistance of two ductile iron variants, chilled ductile iron (CDI) and quenched and tempered ductile iron (Q&T DI), was evaluated. RCF testing was performed using a 3-ball and rod rig. The CDI and Q&T DI results were compared to those of Q&T 1080 steel. The three groups of specimens were processed to ensure a consistent surface hardness of 60 HRC prior to testing. Q&T DI exhibits a much lower RCF loading capacity (2.1 GPa) compared with CDI (3.6 GPa). Under the same loading condition, CDI demonstrated a significantly lower RCF resistance compared with Q&T 1080 steel. Failures in CDI was found to be independent of graphite, which explains CDI’s improved RCF life compared to Q&T DI. This improvement is attributed to higher micro-hardness and less variation throughout the material. The microstructure of tested CDI was analyzed with electron backscatter diffraction (EBSD) from the specimen surface to the core. These observations on carbide volume fraction and growth preference correlated to cooling rate differences between the material groups. This study paves the way for mechanistically based process design of ductile iron variants to achieve comparable RCF life of steels. •Similar surface hardness in the range 57.3–60.4HRC were achieved with three materials.•Quenched and tempered 1080 steel outperformed cast irons in rolling contact fatigue.•Chilled ductile outperformed quenched and tempered ductile iron even with lower surface hardness.•Improved microstructure consistency was found to benefit fatigue life of cast irons.•RCF performance of iron may be further improved by optimization of microconstituent volume and morphology.]]></description><identifier>ISSN: 0043-1648</identifier><identifier>EISSN: 1873-2577</identifier><identifier>DOI: 10.1016/j.wear.2021.203890</identifier><language>eng</language><publisher>Amsterdam: Elsevier B.V</publisher><subject>AISI 1080 steel ; Chill rolls ; Chilled ductile iron ; Cooling rate ; Electron backscatter diffraction ; High carbon steels ; Metal fatigue ; Microhardness ; Nodular iron ; Quenching and tempering ; Rolling contact ; Rolling contact fatigue ; Steel ; Subsurface failure mechanism ; Surface hardness</subject><ispartof>Wear, 2021-08, Vol.478-479, p.203890, Article 203890</ispartof><rights>2021 Elsevier B.V.</rights><rights>Copyright Elsevier Science Ltd. 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As ductile irons generally cost less than steels, this study was conducted to evaluate its rolling contact fatigue (RCF) performance by comparing with that of the AISI 1080 steel. The RCF resistance of two ductile iron variants, chilled ductile iron (CDI) and quenched and tempered ductile iron (Q&T DI), was evaluated. RCF testing was performed using a 3-ball and rod rig. The CDI and Q&T DI results were compared to those of Q&T 1080 steel. The three groups of specimens were processed to ensure a consistent surface hardness of 60 HRC prior to testing. Q&T DI exhibits a much lower RCF loading capacity (2.1 GPa) compared with CDI (3.6 GPa). Under the same loading condition, CDI demonstrated a significantly lower RCF resistance compared with Q&T 1080 steel. Failures in CDI was found to be independent of graphite, which explains CDI’s improved RCF life compared to Q&T DI. This improvement is attributed to higher micro-hardness and less variation throughout the material. The microstructure of tested CDI was analyzed with electron backscatter diffraction (EBSD) from the specimen surface to the core. These observations on carbide volume fraction and growth preference correlated to cooling rate differences between the material groups. This study paves the way for mechanistically based process design of ductile iron variants to achieve comparable RCF life of steels. •Similar surface hardness in the range 57.3–60.4HRC were achieved with three materials.•Quenched and tempered 1080 steel outperformed cast irons in rolling contact fatigue.•Chilled ductile outperformed quenched and tempered ductile iron even with lower surface hardness.•Improved microstructure consistency was found to benefit fatigue life of cast irons.•RCF performance of iron may be further improved by optimization of microconstituent volume and morphology.]]></description><subject>AISI 1080 steel</subject><subject>Chill rolls</subject><subject>Chilled ductile iron</subject><subject>Cooling rate</subject><subject>Electron backscatter diffraction</subject><subject>High carbon steels</subject><subject>Metal fatigue</subject><subject>Microhardness</subject><subject>Nodular iron</subject><subject>Quenching and tempering</subject><subject>Rolling contact</subject><subject>Rolling contact fatigue</subject><subject>Steel</subject><subject>Subsurface failure mechanism</subject><subject>Surface hardness</subject><issn>0043-1648</issn><issn>1873-2577</issn><fulltext>true</fulltext><rsrctype>article</rsrctype><creationdate>2021</creationdate><recordtype>article</recordtype><recordid>eNp9kEtrwzAQhEVpoWnaP9CToGcneli2DL2E0EcgUOjjLJTVOlFw7FSWG_Lvq5Cee9mFZWZ2-Ai552zCGS-m28kBbZgIJngaUlfsgoy4LmUmVFlekhFjucx4ketrctP3W8YYr1QxIv69axrfril0bbQQaW2jXw9I-zi4I-1qChvfNOiobR39HrCFDbppxN0eQ7q6AaJvkPrQtSljt7en68HHDZ0tPhaUM81SFmJzS65q2_R497fH5Ov56XP-mi3fXhbz2TIDKXTMONeMay245hJchUoJK-tcgV5ZLdmqhKoUNs8LcBIkiEquOKwEMsEUQMHlmDycc_ehS337aLbdENr00gililzmhZJJJc4qCF3fB6zNPvidDUfDmTkhNVtzQmpOSM0ZaTI9nk2Y-v94DKYHn4ig8wEhGtf5_-y_Nqh-ZQ</recordid><startdate>20210815</startdate><enddate>20210815</enddate><creator>Wang, Ben L.</creator><creator>Morris, Dallin S.</creator><creator>Farshid, Sadeghi</creator><creator>Lortz, Stephen</creator><creator>Ma, Quancang</creator><creator>Wang, Chinpei</creator><creator>Chen, Yong-ching</creator><creator>Sanders, Paul</creator><general>Elsevier B.V</general><general>Elsevier Science Ltd</general><scope>AAYXX</scope><scope>CITATION</scope><scope>7SR</scope><scope>7TB</scope><scope>7U5</scope><scope>8BQ</scope><scope>8FD</scope><scope>FR3</scope><scope>JG9</scope><scope>L7M</scope><orcidid>https://orcid.org/0000-0003-0334-1540</orcidid><orcidid>https://orcid.org/0000-0002-6691-6797</orcidid><orcidid>https://orcid.org/0000-0002-2880-4559</orcidid></search><sort><creationdate>20210815</creationdate><title>Rolling contact fatigue study of chilled and quenched/tempered ductile iron compared with AISI 1080 steel</title><author>Wang, Ben L. ; 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As ductile irons generally cost less than steels, this study was conducted to evaluate its rolling contact fatigue (RCF) performance by comparing with that of the AISI 1080 steel. The RCF resistance of two ductile iron variants, chilled ductile iron (CDI) and quenched and tempered ductile iron (Q&T DI), was evaluated. RCF testing was performed using a 3-ball and rod rig. The CDI and Q&T DI results were compared to those of Q&T 1080 steel. The three groups of specimens were processed to ensure a consistent surface hardness of 60 HRC prior to testing. Q&T DI exhibits a much lower RCF loading capacity (2.1 GPa) compared with CDI (3.6 GPa). Under the same loading condition, CDI demonstrated a significantly lower RCF resistance compared with Q&T 1080 steel. Failures in CDI was found to be independent of graphite, which explains CDI’s improved RCF life compared to Q&T DI. This improvement is attributed to higher micro-hardness and less variation throughout the material. The microstructure of tested CDI was analyzed with electron backscatter diffraction (EBSD) from the specimen surface to the core. These observations on carbide volume fraction and growth preference correlated to cooling rate differences between the material groups. This study paves the way for mechanistically based process design of ductile iron variants to achieve comparable RCF life of steels. •Similar surface hardness in the range 57.3–60.4HRC were achieved with three materials.•Quenched and tempered 1080 steel outperformed cast irons in rolling contact fatigue.•Chilled ductile outperformed quenched and tempered ductile iron even with lower surface hardness.•Improved microstructure consistency was found to benefit fatigue life of cast irons.•RCF performance of iron may be further improved by optimization of microconstituent volume and morphology.]]></abstract><cop>Amsterdam</cop><pub>Elsevier B.V</pub><doi>10.1016/j.wear.2021.203890</doi><orcidid>https://orcid.org/0000-0003-0334-1540</orcidid><orcidid>https://orcid.org/0000-0002-6691-6797</orcidid><orcidid>https://orcid.org/0000-0002-2880-4559</orcidid></addata></record>
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subjects AISI 1080 steel
Chill rolls
Chilled ductile iron
Cooling rate
Electron backscatter diffraction
High carbon steels
Metal fatigue
Microhardness
Nodular iron
Quenching and tempering
Rolling contact
Rolling contact fatigue
Steel
Subsurface failure mechanism
Surface hardness
title Rolling contact fatigue study of chilled and quenched/tempered ductile iron compared with AISI 1080 steel
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