Open Access
Review
Table 8
Details of investigated parameters of AA7075 MMCs and the targeted parameter for improvement/application as taken up by the researchers.
Type of reinforcement/reinforcement combination | Investigated parameters of AA7075 MMCs | Targeted improvement/application | References |
---|---|---|---|
SiC | Calorimetric study-heat capacity (Cp) | Thermal control system of spacecraft | [50] |
SiC | Thermo-physical properties | Critical aerospace application material | [51] |
SiC | Characterization of MMC | Improving performance of MMCs | [52] |
SiC | Machining parameters- cutting speed, depth of cut, and feed rate | Surface roughness and tool wear in turning | [53,54] |
SiC | Abrasive wear rate | Improve tribological conditions of MMCs | [55] |
SiC | Mechanical and dry sliding wear behavior | Improve tribological conditions of MMCs | [14] |
SiC | Characterization of MMC | Improving performance of MMCs | [17] |
SiC | Pin geometry in FSW | Macro-micro structure, improve mechanical properties of MMCs | [56] |
SiC | Fatigue life, impact energy, tensile strength | Improve mechanical properties by nano reinforcements | [57] |
SiC | Approach: Ultrasonic-assisted semisolid stirring | Overcome the challenges in dispersion of Nano sized reinforcements | [58] |
SiC | Processing maps approach for studying hot compression deformation mechanism and effect of processing parameters | Improve properties of AMCs by optimizing deformation process parameters | [59] |
SiC | Tribological properties | Understand tribological conditions of MMCs | [60] |
SiC | Mechanical and dry sliding wear behavior | Understand tribological conditions of MMCs | [61] |
SiC | Mechanical characterization | Study the influence of age hardening | [62] |
SiC | Rate of wear and friction coefficient | Understand wear characteristics and develop potential application for aircraft components | [63,64] |
SiC | Tool wear and mechanical properties | Reduce tool wear in FSP | [65] |
SiC | EDM and mechanical properties | Optimal wire EDM parameters for machining of metal matrix nano composites for aerospace and automobile applications | [66] |
SiC | Surface roughness in drilling | For best operational parameters, materials parameters and cutting tool selection | [34] |
SiC | Dry sliding wear behavior | Improve the resistance to wear of AA7075 | [67] |
SiC & Al2O3 | EDM | Optimal wire EDM parameters for machining of metal matrix composites for aerospace applications | [7] |
SiC & Al2O3 | Dry sliding wear behavior | Improve the resistance to wear of AA7075 | [68] |
(SiC+Ti) | Effect of Ti reinforcement on aging behavior and mechanical properties | Improve the strength of AMC | [69] |
SiC & Flyash | Microstructural analysis and examine grain structures | Improve mechanical behavior | [70] |
SiC & Cr | Thermo-physical and mechanical properties | Improve the strength of AMC | [21] |
SiC & B4C | Approach: Liquid pressing process | Improve dynamic and ballistic properties | [71] |
SiC & ZrO2 | Characterization of MMC | Improving performance of MMCs | [72] |
SiC & Gr SiC & h-BN SiC & MoS2 |
Effect of ceramics and solid lubricants −Mechanical and sliding wear characteristics | Develop material for piston | [73] |
SiC & Graphene | Effect of ceramics and solid lubricants −Mechanical and sliding wear characteristics | Aerospace vehicles and racing automobiles | [36] |
SiC & TiB2 | Characterization of MMC | Improving performance of MMCs | [74] |
Ag-C NP | Microstructural and mechanical characterization | Improving the properties of AA7075 by dispersing nano-Ag | [75] |
CNT | Machinability study | Overcome problems related to chip adhesion on rake face of cutting tool and subsequent formation of built-up-edge | [23] |
CNT | Precipitation hardening behavior | Effects of CNTs on precipitation hardening behavior of Al alloys | [76] |
MWCNTs | Mechanical, wear and machining characteristics | Understanding of the effects of MWCNTs | [32] |
Gr | Microstructural and mechanical characterization |
Structural applications | [5] |
Gr | Dry sliding wear behavior | Improve the resistance to wear of AA7075 | [77] |
h-BN, amorphous B & (B4C+n-W) |
Dry sliding friction and wear properties | Improve the resistance to wear of AA7075 | [78] |
Al2O3 | Impact strength | Eliminate primary discontinuities associated with MMCs | [79] |
Al2O3 | Mechanical and high-temperature tribological behavior | Material for cylinder piston ring system | [18] |
Al2O3 | Grain refinement by high pressure torsion | Improving mechanical properties | [80] |
Al2O3 | Effect of heat treatment on microstructure and hardness | Microstructure and overall properties of MMCs | [81] |
Al2O3 | Approach: Squeeze casting for producing MMCs | Eliminate casting defects and to improve compressive strength for automotive brake discs and connecting rods |
[82] |
Al2O3 | Mechanical characterization | Improve the properties of MMCs | [29] |
Al2O3 & graphite | Mechanical properties and dry sliding wear characteristics | Improve mechanical properties and resistance to wear | [83] |
Al2O3 & h-BN | To evaluate the effectiveness of ultrasonic assisted cavitation, molten salt processing methods and T6 treatment and deep cryogenic treatment | Decide the effective processing method and heat treatment method which improves the mechanical properties | [21] |
Al2O3 & h-BN | Dry sliding and abrasive wear behavior | Improve resistance to wear of MMCs | [84] |
Al2O3 & Flyash | Wear and tensile properties | Improve the wear resistance and tensile strength in comparison to alloy | [28] |
Al2O3 & SiC | Mechanical and wear behavior | Mechanical properties and wear behavior of the MMCs for structural applications | [30] |
Al2O3 & SiC | Microstructure and tribological characteristics | Cylinder liners of automotive and aircraft engines | [40] |
TiO2 | Mechanical properties and texture analysis | Improve mechanical properties of MMCs | [12] |
B4C | Microstructure and mechanical properties | Effect of B4C quantity on microstructure and mechanical properties | [9] |
B4C | Parametric investigation (tool rotational speed and alteration in tool travel direction) adapting FSP | Improve the uniformity in reinforcement distribution | [4] |
B4C | Mechanical characterization and effect of age hardening | Mechanical properties of MMCs | [62] |
B4C | Microstructure and mechanical properties | Define properties under different conditions | [85] |
B4C | Elucidate the relationship between the microstructure and mechanical behavior of submicron-grained, precipitation strengthened Al-based metal matrix composites |
Distribution of reinforcement particles, which had a high number density | [86] |
B4C | Plasma activated sintering parameters on microstructure and mechanical properties | Understand densification behavior and mechanical properties | [8] |
B4C & Coconut shell flyash | Mechanical properties | High strength MMCs for automotive and aerospace industries | [87] |
B4C & Rice husk ash | Mechanical characterization | Badminton shaft and defense sectors for making rifles and armors |
[46] |
B4C & MoS2 | Microstructure and dry sliding wear | Resistance to wear and friction coefficient for automotive applications | [25] |
B4C & Flyash | Microstructure and hardness | Automobile and aerospace application | [26] |
B4C & Flyash | Mechanical and tribological properties | Sand cast brake rotor, aeronautical and automobile applications | [88] |
B4C & BN | Mechanical properties and influence of drilling parameters | Improving mechanical properties and minimizing thrust force in drilling | [89] |
B4C & BN | Microstructure and mechanical properties characterization | Marine applications | [42] |
B4C & Cow dung ash | Micro structural characteristics, mechanical and tribological behaviors | Improving properties of MMCs | [33] |
ZrO2 | Approach: effect on distribution of reinforcement due to the use of different ball mills | Improve the homogeneity of dispersion of Nano particles | [90] |
ZrB2 & hBN | Dry sliding wear behavior | Minimizing porosity and improving wear performance | [39] |
TiC | Processing conditions in FSP | Distribution of reinforcements | [91] |
TiC | Polarization studies using an Electrochemical work Station | Corrosion characteristics | [92] |
TiC | Microstructure, mechanical, and tribological behavior | Aerospace applications | [27] |
TiC | Coefficient of thermal expansion |
Retard the thermal expansion of AMMCs useful for aerospace and automotive industries | [93] |
TiC & B4C | Kerf characteristics in AJM | Improve machinability of MMCs | [94] |
TiC & MoS2 | Machining characteristics | Improved machinability | [95] |
TiB2 | Mechanical characterization and effect of age hardening | Improve mechanical properties of MMCs | [62] |
TiB2 | High-temperature ductility and fracture mechanisms | Formability and fracture mechanisms for elevated temperature applications | [97] |
TiB2 | Tribological performance | Tribological performance | [98] |
TiB2 | Particle dispersion and grain refinement | Microstructure and mechanical properties | [99] |
TiB2 & Gr | Dry sliding wear behavior | Optimizing the wear process parameters | [24] |
Si3N4 | Microhardness | Study the improvement in microhardness with quantity of reinforcement | [100] |
Si3N4 | Wear & friction behavior | Brake disc and cam | [101] |
Si3N4 | Porosity studies and Spectro analysis | Reduce porosity and improve properties of MMC | [102] |
TaC, Si3N4, Ti | Microstructural, mechanical and wear characteristics | Understand the influence of reinforcements | [35] |
MoSi2 | Mechanical characterization and dry sliding wear behavior | Improving properties of MMCs | [38] |
VN | Microstructure, hardness, and wear behavior | Engine piston | [103] |
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