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This book investigates the microstructural and mechanical properties of titanium-tantalum (TiTa) alloy formed using selective laser melting (SLM). TiTa has potential orthopaedic biomedical applications thanks to its high strength to modulus ratio. However, because it is difficult to obtain, it is still not widely used. The book describes how SLM is utilized to form this alloy, and provides a better understanding of the SLM process in porous lattice structure fabrication and its control through statistical modelling.

Titanium alloys --- Mechanical properties. --- Biomaterials. --- Manufactures. --- Biomedical engineering. --- Manufacturing, Machines, Tools, Processes. --- Biomedical Engineering/Biotechnology. --- Clinical engineering --- Medical engineering --- Bioengineering --- Biophysics --- Engineering --- Medicine --- Manufactured goods --- Manufactured products --- Products --- Products, Manufactured --- Commercial products --- Manufacturing industries --- Biocompatible materials --- Biomaterials --- Medical materials --- Biomedical engineering --- Materials --- Biocompatibility --- Prosthesis --- Bioartificial materials --- Hemocompatible materials --- Biomaterials (Biomedical materials)

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General biophysics --- Human biochemistry --- Applied physical engineering --- Plant and equipment --- Production management --- Biotechnology --- biologische materialen --- medische biochemie --- fabrieken --- biomedische wetenschappen --- biotechnologie --- productie --- machines

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Additive manufacturing (AM) methods have grown and evolved rapidly in recent years. AM for polymers is an exciting field and has great potential in transformative and translational research in many fields, such as biomedical, aerospace, and even electronics. Current methods for polymer AM include material extrusion, material jetting, vat polymerisation, and powder bed fusion. With the promise of more applications, detailed understanding of AM—from the processability of the feedstock to the relationship between the process–structure–properties of AM parts—has become more critical. More research work is needed in material development to widen the choice of materials for polymer additive manufacturing. Modelling and simulations of the process will allow the prediction of microstructures and mechanical properties of the fabricated parts while complementing the understanding of the physical phenomena that occurs during the AM processes. In this book, state-of-the-art reviews and current research are collated, which focus on the process–structure–properties relationships in polymer additive manufacturing.

Technology: general issues --- Three Point Bending test --- mode I fracture toughness --- selective laser sintering --- polyamide and Alumide --- geometrical errors --- microstructure. --- 3D printing --- additive manufacturing --- material extrusion --- silicone --- meniscus implant --- material jetting --- polymer --- machine capability --- process capability --- statistical process control --- quality --- variability --- tolerance grade --- Fused Filament Fabrication --- thermoplastic polyurethane --- energy absorption --- dynamic compression --- crashworthiness --- Simplified Rubber Material --- Ls Dyna --- magnetic composites --- ferrite composites --- field structuring --- microstructure control --- rheological modifications --- fused filament fabrication --- polymers --- fibre reinforcement --- mechanical properties --- CFRP --- PLA mold --- fused deposition modeling --- vacuum bag technology --- 3D scanning --- bike saddle --- impact resistance --- bioinspired --- helicoidal structure --- electrospinning --- piezoelectric --- PVDF --- barium titanate --- nanocomposites --- printed electronics --- inkjet printing --- nanomaterial ink --- poly(ethylene terephthalate) --- bisphenol --- crystallization kinetics --- thermal property --- melt polycondensation --- polymer resin --- turbomachinery --- optimization --- n/a

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• Reference Manager
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Additive manufacturing (AM) methods have grown and evolved rapidly in recent years. AM for polymers is an exciting field and has great potential in transformative and translational research in many fields, such as biomedical, aerospace, and even electronics. Current methods for polymer AM include material extrusion, material jetting, vat polymerisation, and powder bed fusion. With the promise of more applications, detailed understanding of AM—from the processability of the feedstock to the relationship between the process–structure–properties of AM parts—has become more critical. More research work is needed in material development to widen the choice of materials for polymer additive manufacturing. Modelling and simulations of the process will allow the prediction of microstructures and mechanical properties of the fabricated parts while complementing the understanding of the physical phenomena that occurs during the AM processes. In this book, state-of-the-art reviews and current research are collated, which focus on the process–structure–properties relationships in polymer additive manufacturing.

Three Point Bending test --- mode I fracture toughness --- selective laser sintering --- polyamide and Alumide --- geometrical errors --- microstructure. --- 3D printing --- additive manufacturing --- material extrusion --- silicone --- meniscus implant --- material jetting --- polymer --- machine capability --- process capability --- statistical process control --- quality --- variability --- tolerance grade --- Fused Filament Fabrication --- thermoplastic polyurethane --- energy absorption --- dynamic compression --- crashworthiness --- Simplified Rubber Material --- Ls Dyna --- magnetic composites --- ferrite composites --- field structuring --- microstructure control --- rheological modifications --- fused filament fabrication --- polymers --- fibre reinforcement --- mechanical properties --- CFRP --- PLA mold --- fused deposition modeling --- vacuum bag technology --- 3D scanning --- bike saddle --- impact resistance --- bioinspired --- helicoidal structure --- electrospinning --- piezoelectric --- PVDF --- barium titanate --- nanocomposites --- printed electronics --- inkjet printing --- nanomaterial ink --- poly(ethylene terephthalate) --- bisphenol --- crystallization kinetics --- thermal property --- melt polycondensation --- polymer resin --- turbomachinery --- optimization --- n/a