“…This is because SiC being strong material added to aluminum which require high strength to compress the AMCs. This analysis is in a good agreement as comparison with (K Karvani , D Fasnakis , [2016]).…”
Section: Wear Resistancesupporting
confidence: 88%
“…It is observed the increasing of tensile strength with increasing wt.% SiC content in aluminum matrix because of applied tensile load will be transfer to the strongly bonded SiC reinforcement in AMCs which improves the tensile strength. This analysis is in agood agreement as comparision with (K Karvani , D Fasnakis , [2016]). Compression strength Figure(8) shows relation between compression strength and wt.% of SiC reinforcement content in AMCs, it is observed that the compression strength of the AMCs increases with increasing wt.% of SiC reinforcement .…”
The aim of this research is to study the mechanical properties and wear behavior of aluminum composite material (AMCs) reinforced with silicon carbide particles with varying percentages (0, 3, 6 and 9) wt. %. These composites samples were prepared by stir casting process. Tensile strength, compression strength, hardness and wear resistance of the prepared composites were analyzed. The result showed that adding SiC reinforced in Al matrix increased tensile strength, compression strength, wear resistance and hardness with increased wt. percentage of silicon carbide reinforced AMCs. Maximum tensile and compression strength and hardness showed at 9 wt. percentage SiC reinforced AMCs.
“…This is because SiC being strong material added to aluminum which require high strength to compress the AMCs. This analysis is in a good agreement as comparison with (K Karvani , D Fasnakis , [2016]).…”
Section: Wear Resistancesupporting
confidence: 88%
“…It is observed the increasing of tensile strength with increasing wt.% SiC content in aluminum matrix because of applied tensile load will be transfer to the strongly bonded SiC reinforcement in AMCs which improves the tensile strength. This analysis is in agood agreement as comparision with (K Karvani , D Fasnakis , [2016]). Compression strength Figure(8) shows relation between compression strength and wt.% of SiC reinforcement content in AMCs, it is observed that the compression strength of the AMCs increases with increasing wt.% of SiC reinforcement .…”
The aim of this research is to study the mechanical properties and wear behavior of aluminum composite material (AMCs) reinforced with silicon carbide particles with varying percentages (0, 3, 6 and 9) wt. %. These composites samples were prepared by stir casting process. Tensile strength, compression strength, hardness and wear resistance of the prepared composites were analyzed. The result showed that adding SiC reinforced in Al matrix increased tensile strength, compression strength, wear resistance and hardness with increased wt. percentage of silicon carbide reinforced AMCs. Maximum tensile and compression strength and hardness showed at 9 wt. percentage SiC reinforced AMCs.
“…Consequently, SiC-related issues (e.g., fraction and size) are the key factors that are affecting the properties of SiC p /Al matrix composites. It is believed that the mechanical properties of Al/SiC composites can be improved by increasing the volume fraction of SiC particles in the composites [27]. The yield strength and tensile strength increase with an increase in the SiC volume fraction; however, the plasticity [28] and impact toughness of the composites [29] deteriorate.…”
Among the various types of metal matrix composites, SiC particle-reinforced aluminum matrix composites (SiC p /Al) are finding increasing applications in many industrial fields such as aerospace, automotive, and electronics. However, SiC p /Al composites are considered as difficult-to-cut materials due to the hard ceramic reinforcement, which causes severe machinability degradation by increasing cutting tool wear, cutting force, etc. To improve the machinability of SiC p /Al composites, many techniques including conventional and nonconventional machining processes have been employed. The purpose of this study is to evaluate the machining performance of SiC p /Al composites using conventional machining, i.e., turning, milling, drilling, and grinding, and using nonconventional machining, namely electrical discharge machining (EDM), powder mixed EDM, wire EDM, electrochemical machining, and newly developed high-efficiency machining technologies, e.g., blasting erosion arc machining. This research not only presents an overview of the machining aspects of SiC p /Al composites using various processing technologies but also establishes optimization parameters as reference of industry applications.
“…They compete to find materials and also higher technology, one of which is to make technology or materials that are lighter and more practical but have better mechanical properties. Composite is an alternative material that complies with these requirements [1]. In addition, some composites are corrosion resistance, design flexibility, durable [2], and fire resistance [3].…”
Al-SiC is a composite composed of AA6061 as a matrix and SiC as a reinforcement particle. The variation of mass added will affect the mechanical properties of the composite because Al-SiC is hardenable, which means that its mechanical properties can be improved by adding the reinforcement component. However, an excessive portion of SiC leads to a decrease in mechanical properties. The purpose of this study was to find the optimal composition of the addition of SiC into the aluminium matrix to gain maximum tensile strength and hardness. The mass fraction variation that would be used in this composite was the addition of 6%, 8%, and 10% SiC with the addition of 1% Mg as a wetting agent. The mixing process used the stir casting method. The process of adding SiC and Mg was carried out by melting the aluminium while stirring it for a certain time before it went to the furnace. The ASTM E8/E8M standard was used for observing the tensile strength of the specimens. Machining was carried out before testing. The specimens were also tested for hardness using the Rockwell hardness method. The result shows that the addition of SiC at the amount of 6%, 8%, and 10% SiC increased the ultimate tensile strength by154.10 MPa, 175.01 MPa, and 198.14 MPa, respectively. Similarly, the hardness also increased up to 30.1 HRF, 48.1 HRF, and 66 HRF, respectively. Microstructure observation also confirmed that a 10% SiC fraction results in less defect and good wettability. The addition of 10% SiC and 1% Mg resulted in maximum tensile strength and hardness and the best microstructure.
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