Metal matrix composites (MMCs) are attracting automobile and aeronautical sector because of their superior mechanical physical characteristics which ultimately reduce the weight components hence energy requirements. These prepared by adding various reinforcements into base metal methods like stir casting, squeeze sand in-setu method, powder metallurgy etc. When more than one particle is added m...

Metal matrix composites (MMCs) attract considerable attention as a result from its ability in providing a high strength, high modulus, high toughness, high impact properties, improving wear resistance and providing good corrosion resistance compared to unreinforced alloy. Aluminium Silicon (Al/Si) alloy MMC has been widely used in various industrial sectors such as in transportation, domestic e...

Metal matrix composites (MMCs) belong to a group of modern materials owing their excellent technological, mechanical, and physical properties such as wear corrosion resistance, high electrical thermal conductivity, improved strength hardness. Final MMCs are affected equally by all steps its manufacturing process. It is shown that using adequate process parameters obtain starting (reaching the s...

Aluminum composites exhibit high resistance to wear and corrosion, possess strength, offer durability more such properties. In this study, Al7075, reinforced with nano size SiC - Gr was produced by a stir casting technique its microstructure mechanical behavior were evaluated. Reinforcements added in the range of 0 3 wt. %. The tensile compression strength developed hybrid Metal Matrix Composit...

Aluminium alloy components are used in lightweight engineering applications and lack mechanical properties, wear resistance, corrosion resistance. When hard reinforcement particulates dispersed the aluminium matrix alloy, composites (AMCs) formed. This new material exhibits enhanced properties such as better specific stiffness, strength, elastic modulus, lightweight. AMCs have many favorable co...

The effect of molybdenum (Mo) on the microstructure and creep behavior of nominally Ti–24Al– 17Nb (at.%) alloys and their continuously reinforced SiCfiber composites (fiber volume fraction = 0.35) was investigated. Constant-load, tensile-creep experiments were performed in the stress range of 10–275 MPa at 650 C in air. A Ti–24Al–17Nb–2.3Mo (at.%) alloy exhibited significantly greater creep res...