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Experimental investigation of nanomechanical response from synergistic metal alloy fusion of Cu-Al-Zn-Sn for anti-corrosion and structural application
One challenge in developing new materials is solid metal-induced embrittlement, where the fracture stress or ductility of the metal decreases upon contact with another metal surface. Materials such as aluminium demand precise temperature control for optimal results, often requiring specialized equip...
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| Published in: | International journal of advanced manufacturing technology 2024-06, Vol.132 (11-12), p.5621-5632 |
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| container_end_page | 5632 |
| container_issue | 11-12 |
| container_start_page | 5621 |
| container_title | International journal of advanced manufacturing technology |
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| creator | Ayuba, Samuel U. Fayomi, Ojo S. I. Omotosho, Olugbenga A. |
| description | One challenge in developing new materials is solid metal-induced embrittlement, where the fracture stress or ductility of the metal decreases upon contact with another metal surface. Materials such as aluminium demand precise temperature control for optimal results, often requiring specialized equipment. Strengthening aluminium alloys often involves cold working techniques like wire drawing or cold rolling. By combining methods such as cold working, heat treatment, and most especially alloying, the mechanical properties of aluminium alloys can be optimized. To address these concerns, an experimental study investigated the nanomechanical response of an alloy developed for anti-corrosion and structural applications. Corrosion behaviour was evaluated in a 3.65 wt% NaCl solution using a potentiostat/galvanostat, while tribological performance was assessed using a reciprocating sliding tribometer. Microhardness properties were studied using a Vickers microindenter, and thermal stability was examined using a thermo-gravimetric analyzer. Structural modifications were analysed using SEM/EDX and X-ray diffractometer (XRD). Results showed that the HEA (high entropy alloy) 17 sample exhibited outstanding corrosion resistance, with a corrosion rate (CR) of 0.0639 mm/year and corrosion current density (jcorr) of 5.500E−06 A/cm
2
. All HEA samples displayed high wear rates and worn track sections compared to CONTROL 2. The HEA 16 and HEA 18 samples demonstrated notably high Vickers hardness of 534.50 µN/mm
2
and 533.48 µN/mm
2
, respectively. Despite its high copper content, the CONTROL 1 sample did not exhibit comparable hardness. SEM images revealed refined microstructures and distinct outer morphologies in the examined samples. |
| doi_str_mv | 10.1007/s00170-024-13669-7 |
| format | article |
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2
. All HEA samples displayed high wear rates and worn track sections compared to CONTROL 2. The HEA 16 and HEA 18 samples demonstrated notably high Vickers hardness of 534.50 µN/mm
2
and 533.48 µN/mm
2
, respectively. Despite its high copper content, the CONTROL 1 sample did not exhibit comparable hardness. SEM images revealed refined microstructures and distinct outer morphologies in the examined samples.</description><identifier>ISSN: 0268-3768</identifier><identifier>EISSN: 1433-3015</identifier><identifier>DOI: 10.1007/s00170-024-13669-7</identifier><language>eng</language><publisher>London: Springer London</publisher><subject>Alloying ; Alloys ; Aluminum base alloys ; CAE) and Design ; Cold rolling ; Cold working ; Computer-Aided Engineering (CAD ; Contact stresses ; Control equipment ; Copper ; Corrosion ; Corrosion currents ; Corrosion prevention ; Corrosion rate ; Corrosion resistance ; Diamond pyramid hardness ; Engineering ; Heat treatment ; High entropy alloys ; Industrial and Production Engineering ; Mechanical Engineering ; Mechanical properties ; Media Management ; Metal surfaces ; Original Article ; Temperature control ; Thermal stability ; Tribology ; Wear rate ; Wire drawing</subject><ispartof>International journal of advanced manufacturing technology, 2024-06, Vol.132 (11-12), p.5621-5632</ispartof><rights>The Author(s), under exclusive licence to Springer-Verlag London Ltd., part of Springer Nature 2024. Springer Nature or its licensor (e.g. a society or other partner) holds exclusive rights to this article under a publishing agreement with the author(s) or other rightsholder(s); author self-archiving of the accepted manuscript version of this article is solely governed by the terms of such publishing agreement and applicable law.</rights><lds50>peer_reviewed</lds50><woscitedreferencessubscribed>false</woscitedreferencessubscribed><cites>FETCH-LOGICAL-c270t-1596384c9fff56c3047986dfc71e87b86aca88257c6aed537e8235099a8d5b9c3</cites></display><links><openurl>$$Topenurl_article</openurl><openurlfulltext>$$Topenurlfull_article</openurlfulltext><thumbnail>$$Tsyndetics_thumb_exl</thumbnail><link.rule.ids>315,786,790,27957,27958</link.rule.ids></links><search><creatorcontrib>Ayuba, Samuel U.</creatorcontrib><creatorcontrib>Fayomi, Ojo S. I.</creatorcontrib><creatorcontrib>Omotosho, Olugbenga A.</creatorcontrib><title>Experimental investigation of nanomechanical response from synergistic metal alloy fusion of Cu-Al-Zn-Sn for anti-corrosion and structural application</title><title>International journal of advanced manufacturing technology</title><addtitle>Int J Adv Manuf Technol</addtitle><description>One challenge in developing new materials is solid metal-induced embrittlement, where the fracture stress or ductility of the metal decreases upon contact with another metal surface. Materials such as aluminium demand precise temperature control for optimal results, often requiring specialized equipment. Strengthening aluminium alloys often involves cold working techniques like wire drawing or cold rolling. By combining methods such as cold working, heat treatment, and most especially alloying, the mechanical properties of aluminium alloys can be optimized. To address these concerns, an experimental study investigated the nanomechanical response of an alloy developed for anti-corrosion and structural applications. Corrosion behaviour was evaluated in a 3.65 wt% NaCl solution using a potentiostat/galvanostat, while tribological performance was assessed using a reciprocating sliding tribometer. Microhardness properties were studied using a Vickers microindenter, and thermal stability was examined using a thermo-gravimetric analyzer. Structural modifications were analysed using SEM/EDX and X-ray diffractometer (XRD). Results showed that the HEA (high entropy alloy) 17 sample exhibited outstanding corrosion resistance, with a corrosion rate (CR) of 0.0639 mm/year and corrosion current density (jcorr) of 5.500E−06 A/cm
2
. All HEA samples displayed high wear rates and worn track sections compared to CONTROL 2. The HEA 16 and HEA 18 samples demonstrated notably high Vickers hardness of 534.50 µN/mm
2
and 533.48 µN/mm
2
, respectively. Despite its high copper content, the CONTROL 1 sample did not exhibit comparable hardness. SEM images revealed refined microstructures and distinct outer morphologies in the examined samples.</description><subject>Alloying</subject><subject>Alloys</subject><subject>Aluminum base alloys</subject><subject>CAE) and Design</subject><subject>Cold rolling</subject><subject>Cold working</subject><subject>Computer-Aided Engineering (CAD</subject><subject>Contact stresses</subject><subject>Control equipment</subject><subject>Copper</subject><subject>Corrosion</subject><subject>Corrosion currents</subject><subject>Corrosion prevention</subject><subject>Corrosion rate</subject><subject>Corrosion resistance</subject><subject>Diamond pyramid hardness</subject><subject>Engineering</subject><subject>Heat treatment</subject><subject>High entropy alloys</subject><subject>Industrial and Production Engineering</subject><subject>Mechanical Engineering</subject><subject>Mechanical properties</subject><subject>Media Management</subject><subject>Metal surfaces</subject><subject>Original Article</subject><subject>Temperature control</subject><subject>Thermal stability</subject><subject>Tribology</subject><subject>Wear rate</subject><subject>Wire drawing</subject><issn>0268-3768</issn><issn>1433-3015</issn><fulltext>true</fulltext><rsrctype>article</rsrctype><creationdate>2024</creationdate><recordtype>article</recordtype><recordid>eNp9kE9PwyAYh4nRxDn9Ap5IPKNQWqDHZZl_kiUe1IsXwijMLi1UaI37In5e6brEm6f3wPO8v5cfANcE3xKM-V3EmHCMcJYjQhkrET8BM5JTiigmxSmY4YwJRDkT5-Aixl3CGWFiBn5W350JdWtcrxpYuy8T-3qr-to76C10yvnW6A_lap3eg4mdd9FAG3wL496ZsK2ToGFrRl81jd9DO8SjvhzQokHvDr04aH2AyvU10j4EfyCUq2Dsw6D7IYx21zUpZsy-BGdWNdFcHeccvN2vXpePaP388LRcrJHOOO4RKUpGRa5La23BNMU5LwWrrObECL4RTGklRFZwzZSpCsqNyGiBy1KJqtiUms7BzbS3C_5zSH-XOz8ElyIlxSzPcZFhkahsonQ6PAZjZZcqU2EvCZZj_3LqX6b-5aF_yZNEJykm2G1N-Fv9j_ULIWuMAA</recordid><startdate>20240601</startdate><enddate>20240601</enddate><creator>Ayuba, Samuel U.</creator><creator>Fayomi, Ojo S. I.</creator><creator>Omotosho, Olugbenga A.</creator><general>Springer London</general><general>Springer Nature B.V</general><scope>AAYXX</scope><scope>CITATION</scope></search><sort><creationdate>20240601</creationdate><title>Experimental investigation of nanomechanical response from synergistic metal alloy fusion of Cu-Al-Zn-Sn for anti-corrosion and structural application</title><author>Ayuba, Samuel U. ; Fayomi, Ojo S. I. ; Omotosho, Olugbenga A.</author></sort><facets><frbrtype>5</frbrtype><frbrgroupid>cdi_FETCH-LOGICAL-c270t-1596384c9fff56c3047986dfc71e87b86aca88257c6aed537e8235099a8d5b9c3</frbrgroupid><rsrctype>articles</rsrctype><prefilter>articles</prefilter><language>eng</language><creationdate>2024</creationdate><topic>Alloying</topic><topic>Alloys</topic><topic>Aluminum base alloys</topic><topic>CAE) and Design</topic><topic>Cold rolling</topic><topic>Cold working</topic><topic>Computer-Aided Engineering (CAD</topic><topic>Contact stresses</topic><topic>Control equipment</topic><topic>Copper</topic><topic>Corrosion</topic><topic>Corrosion currents</topic><topic>Corrosion prevention</topic><topic>Corrosion rate</topic><topic>Corrosion resistance</topic><topic>Diamond pyramid hardness</topic><topic>Engineering</topic><topic>Heat treatment</topic><topic>High entropy alloys</topic><topic>Industrial and Production Engineering</topic><topic>Mechanical Engineering</topic><topic>Mechanical properties</topic><topic>Media Management</topic><topic>Metal surfaces</topic><topic>Original Article</topic><topic>Temperature control</topic><topic>Thermal stability</topic><topic>Tribology</topic><topic>Wear rate</topic><topic>Wire drawing</topic><toplevel>peer_reviewed</toplevel><toplevel>online_resources</toplevel><creatorcontrib>Ayuba, Samuel U.</creatorcontrib><creatorcontrib>Fayomi, Ojo S. I.</creatorcontrib><creatorcontrib>Omotosho, Olugbenga A.</creatorcontrib><collection>CrossRef</collection><jtitle>International journal of advanced manufacturing technology</jtitle></facets><delivery><delcategory>Remote Search Resource</delcategory><fulltext>fulltext</fulltext></delivery><addata><au>Ayuba, Samuel U.</au><au>Fayomi, Ojo S. I.</au><au>Omotosho, Olugbenga A.</au><format>journal</format><genre>article</genre><ristype>JOUR</ristype><atitle>Experimental investigation of nanomechanical response from synergistic metal alloy fusion of Cu-Al-Zn-Sn for anti-corrosion and structural application</atitle><jtitle>International journal of advanced manufacturing technology</jtitle><stitle>Int J Adv Manuf Technol</stitle><date>2024-06-01</date><risdate>2024</risdate><volume>132</volume><issue>11-12</issue><spage>5621</spage><epage>5632</epage><pages>5621-5632</pages><issn>0268-3768</issn><eissn>1433-3015</eissn><abstract>One challenge in developing new materials is solid metal-induced embrittlement, where the fracture stress or ductility of the metal decreases upon contact with another metal surface. Materials such as aluminium demand precise temperature control for optimal results, often requiring specialized equipment. Strengthening aluminium alloys often involves cold working techniques like wire drawing or cold rolling. By combining methods such as cold working, heat treatment, and most especially alloying, the mechanical properties of aluminium alloys can be optimized. To address these concerns, an experimental study investigated the nanomechanical response of an alloy developed for anti-corrosion and structural applications. Corrosion behaviour was evaluated in a 3.65 wt% NaCl solution using a potentiostat/galvanostat, while tribological performance was assessed using a reciprocating sliding tribometer. Microhardness properties were studied using a Vickers microindenter, and thermal stability was examined using a thermo-gravimetric analyzer. Structural modifications were analysed using SEM/EDX and X-ray diffractometer (XRD). Results showed that the HEA (high entropy alloy) 17 sample exhibited outstanding corrosion resistance, with a corrosion rate (CR) of 0.0639 mm/year and corrosion current density (jcorr) of 5.500E−06 A/cm
2
. All HEA samples displayed high wear rates and worn track sections compared to CONTROL 2. The HEA 16 and HEA 18 samples demonstrated notably high Vickers hardness of 534.50 µN/mm
2
and 533.48 µN/mm
2
, respectively. Despite its high copper content, the CONTROL 1 sample did not exhibit comparable hardness. SEM images revealed refined microstructures and distinct outer morphologies in the examined samples.</abstract><cop>London</cop><pub>Springer London</pub><doi>10.1007/s00170-024-13669-7</doi><tpages>12</tpages></addata></record> |
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| subjects | Alloying Alloys Aluminum base alloys CAE) and Design Cold rolling Cold working Computer-Aided Engineering (CAD Contact stresses Control equipment Copper Corrosion Corrosion currents Corrosion prevention Corrosion rate Corrosion resistance Diamond pyramid hardness Engineering Heat treatment High entropy alloys Industrial and Production Engineering Mechanical Engineering Mechanical properties Media Management Metal surfaces Original Article Temperature control Thermal stability Tribology Wear rate Wire drawing |
| title | Experimental investigation of nanomechanical response from synergistic metal alloy fusion of Cu-Al-Zn-Sn for anti-corrosion and structural application |
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