Experimental investigation of mechanical and physical properties of coconut shell and eggshell filler-based bio-fiber reinforced epoxy hybrid composites

Exploring Microstructural, Interfacial, Mechanical, and Wear Properties of AlSi7Mg0.3 Composites with TiMOVWCr High-Entropy Alloy Powder

“…The friction stir processing (FSP) technique has emerged as a transformative method for developing aluminum-based composites. FSP involves using a rotating tool to stir and consolidate materials in the solid state, facilitating the incorporation of reinforcement materials into an aluminum matrix. , This innovative process eliminates the melting and solidification associated with traditional methods, preserving the material’s integrity and producing a fine, homogeneous microstructure. ,, In the context of aluminum-based composites, FSP enables the uniform distribution of reinforcing elements, such as nanoparticles, fibers, or alloys, within the aluminum matrix. − This leads to enhanced mechanical properties, improved wear resistance, and increased strength without sacrificing the inherent lightweight nature of aluminum. , The FSP technique offers precise control over the composite’s microstructure and properties, making it a promising approach for tailoring materials to specific applications in industries ranging from aerospace to automotive and beyond …”

“…20,21 The FSP technique offers precise control over the composite's microstructure and properties, making it a promising approach for tailoring materials to specific applications in industries ranging from aerospace to automotive and beyond. 22 Li et al 23 fabricated a Ni−Cu composite interlayer on the A356 aluminum alloy solid insert using chemical nickel-plating and electro-coppering technology. This aimed to mitigate the formation of brittle phases and enhance the shear strength in the A356 aluminum/AZ91D magnesium bimetal produced through compound casting.…”

“… 20 , 21 The FSP technique offers precise control over the composite’s microstructure and properties, making it a promising approach for tailoring materials to specific applications in industries ranging from aerospace to automotive and beyond. 22 …”

Green Microwave-Assisted Cladding: Enhancing SS-304 with Ni-ZrB2 Composite Coatings

“…While microwave-assisted cladding techniques have been explored in various material enhancement applications, there remains a notable gap in the literature regarding their specific application in the synthesis of Ni-ZrB2 composite coatings onto SS-304 stainless steel substrates. Existing research predominantly focuses on conventional cladding methods or microwave-assisted processes with different materials [43]. Thus, there is a need to address this gap by investigating the feasibility, effectiveness, and environmental impact of microwave-assisted cladding for synthesizing Ni-ZrB2 coatings on SS-304, particularly in terms of its green technology approach [44].…”