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In recent decades, metals have been considered promising materials in the fields of regenerative medicine and tissue engineering. Metallic bio-materials with excellent mechanical strength can effectively support and replace damaged tissue. Hence, metals have been widely used in load-bearing applications for dentistry and orthopedics. Cobalt-, iron-, and titanium (Ti)-based alloys are representative bio-metals, which are used in various forms, such as vascular stents, hip joints, dental, and orthopedic implants. However, the alloying elements of Co- and Fe-based alloys, Co, Ni, and Cr, induce severe toxicity when ionized in the body, which limits their clinical use. However, Ti and its alloys have been widely used as medical devices and implants, with dental and orthopedic applications due to their excellent bone-regeneration ability, mechanical properties, and corrosion resistance. Even though Ti and its alloys have generally been used for biomedical applications, there are still challenges that must be met to satisfy their clinical application. For example, osseointegration with the surrounding bone tissue at the initial stage of implantation has been pointed to as a major issue. This Special Issue, “Titanium and Its Alloys for Biomedical Applications”, has been proposed to present recent developments in biomedical applications. The nine research articles included in this Special Issue cover broad aspects of Ti-based alloys and composites with respect to their composition, mechanical, and biological properties, as highlighted in this editorial.
Technology: general issues --- History of engineering & technology --- Mining technology & engineering --- metal-matrix composites --- titanium alloy design --- microstructures --- mechanical properties --- biocomposites --- powder metallurgy --- high power impulse magnetron sputtering --- zinc oxide --- tantalum oxide --- thin film --- plasma electrolytic oxidation --- antibacterial --- biocompatibility --- ultraprecision magnetic abrasive finishing (UPMAF) --- environmentally friendly oil --- Ni-Ti stent wire --- surface roughness (Ra) --- removed diameter (RD) --- Ti alloys --- martensitic transformation --- recoverable strain --- synchrotron X-ray diffraction --- Ti6Al4V --- centrifugal casting --- ion implantation --- human osteoblast --- grade V titanium --- mini transitional implants --- narrow diameter implant --- backscattered electrons --- Ti-based biomaterials --- toxicity --- β-phase --- ω-phase --- CALPHAD --- artificial intelligence --- deep learning artificial neural network (DLANN) --- self-organizing maps (SOM) --- titanium --- surface treatment --- HA blasting --- sandblasted and acid-etched (SLA) --- anodic oxidation (AO) --- micro-arc oxidation (MAO) --- graphene oxide --- electrophoretic deposition --- implant --- biomolecule --- complex --- metal-matrix composites --- titanium alloy design --- microstructures --- mechanical properties --- biocomposites --- powder metallurgy --- high power impulse magnetron sputtering --- zinc oxide --- tantalum oxide --- thin film --- plasma electrolytic oxidation --- antibacterial --- biocompatibility --- ultraprecision magnetic abrasive finishing (UPMAF) --- environmentally friendly oil --- Ni-Ti stent wire --- surface roughness (Ra) --- removed diameter (RD) --- Ti alloys --- martensitic transformation --- recoverable strain --- synchrotron X-ray diffraction --- Ti6Al4V --- centrifugal casting --- ion implantation --- human osteoblast --- grade V titanium --- mini transitional implants --- narrow diameter implant --- backscattered electrons --- Ti-based biomaterials --- toxicity --- β-phase --- ω-phase --- CALPHAD --- artificial intelligence --- deep learning artificial neural network (DLANN) --- self-organizing maps (SOM) --- titanium --- surface treatment --- HA blasting --- sandblasted and acid-etched (SLA) --- anodic oxidation (AO) --- micro-arc oxidation (MAO) --- graphene oxide --- electrophoretic deposition --- implant --- biomolecule --- complex
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This book mainly focuses on the processing and applications of polymer and its composites. With the fast development of the petroleum industry, polymer materials have been widely utilized in our daily lives. The various processing methods of polymers determine the final properties and performance of products. In addition, the introduction of different fillers, including inorganic fillers, metal oxide, natural fibers, and so on, can increase the physical and chemical properties of polymer composites, which will further broaden their practical applications. Special attention will be paid to the type of processing methods and the functional fillers on the performance of polymer composites.
Technology: general issues --- History of engineering & technology --- Materials science --- waterborne polyurethane --- self-healing --- dynamic disulfide bond --- perovskite solar cell --- hole transport layer --- carbon materials --- polymeric composites --- solar energy materials --- PBAT --- MXene --- nanocomposite --- gas barrier properties --- biaxial stretching --- longan --- fruit --- polymeric films --- antioxidant activity --- enzymatic browning --- neem --- propyl disulfide --- microbial decay --- essential oil --- thickener --- dispersant --- graphene --- lignocellulose nanofibers --- adsorption --- deep eutectic solvents --- cationization --- dissolved and colloidal substances removal --- polyetheretherketone --- short fiber-reinforced --- material property --- lapping machinability --- cellulose nanofiber --- silica --- polypropylene --- composite --- hybrid filler --- thermoplastic silicone rubber --- backscattered electrons --- compatibility layer --- scanning electron microscope --- dynamic vulcanization --- cyclic loading --- deflection --- BFRP-RC beams --- steel fiber --- analytical model --- rosin-based composite membranes --- dencichine --- electrostatic spinning technology --- notoginseng extracts --- chrysin --- molecular imprinting --- adsorption performance --- binary functional monomers
Choose an application
In recent decades, metals have been considered promising materials in the fields of regenerative medicine and tissue engineering. Metallic bio-materials with excellent mechanical strength can effectively support and replace damaged tissue. Hence, metals have been widely used in load-bearing applications for dentistry and orthopedics. Cobalt-, iron-, and titanium (Ti)-based alloys are representative bio-metals, which are used in various forms, such as vascular stents, hip joints, dental, and orthopedic implants. However, the alloying elements of Co- and Fe-based alloys, Co, Ni, and Cr, induce severe toxicity when ionized in the body, which limits their clinical use. However, Ti and its alloys have been widely used as medical devices and implants, with dental and orthopedic applications due to their excellent bone-regeneration ability, mechanical properties, and corrosion resistance. Even though Ti and its alloys have generally been used for biomedical applications, there are still challenges that must be met to satisfy their clinical application. For example, osseointegration with the surrounding bone tissue at the initial stage of implantation has been pointed to as a major issue. This Special Issue, “Titanium and Its Alloys for Biomedical Applications”, has been proposed to present recent developments in biomedical applications. The nine research articles included in this Special Issue cover broad aspects of Ti-based alloys and composites with respect to their composition, mechanical, and biological properties, as highlighted in this editorial.
Technology: general issues --- History of engineering & technology --- Mining technology & engineering --- metal–matrix composites --- titanium alloy design --- microstructures --- mechanical properties --- biocomposites --- powder metallurgy --- high power impulse magnetron sputtering --- zinc oxide --- tantalum oxide --- thin film --- plasma electrolytic oxidation --- antibacterial --- biocompatibility --- ultraprecision magnetic abrasive finishing (UPMAF) --- environmentally friendly oil --- Ni-Ti stent wire --- surface roughness (Ra) --- removed diameter (RD) --- Ti alloys --- martensitic transformation --- recoverable strain --- synchrotron X-ray diffraction --- Ti6Al4V --- centrifugal casting --- ion implantation --- human osteoblast --- grade V titanium --- mini transitional implants --- narrow diameter implant --- backscattered electrons --- Ti-based biomaterials --- toxicity --- β-phase --- ω-phase --- CALPHAD --- artificial intelligence --- deep learning artificial neural network (DLANN) --- self-organizing maps (SOM) --- titanium --- surface treatment --- HA blasting --- sandblasted and acid-etched (SLA) --- anodic oxidation (AO) --- micro-arc oxidation (MAO) --- graphene oxide --- electrophoretic deposition --- implant --- biomolecule --- complex --- n/a --- metal-matrix composites
Choose an application
In recent decades, metals have been considered promising materials in the fields of regenerative medicine and tissue engineering. Metallic bio-materials with excellent mechanical strength can effectively support and replace damaged tissue. Hence, metals have been widely used in load-bearing applications for dentistry and orthopedics. Cobalt-, iron-, and titanium (Ti)-based alloys are representative bio-metals, which are used in various forms, such as vascular stents, hip joints, dental, and orthopedic implants. However, the alloying elements of Co- and Fe-based alloys, Co, Ni, and Cr, induce severe toxicity when ionized in the body, which limits their clinical use. However, Ti and its alloys have been widely used as medical devices and implants, with dental and orthopedic applications due to their excellent bone-regeneration ability, mechanical properties, and corrosion resistance. Even though Ti and its alloys have generally been used for biomedical applications, there are still challenges that must be met to satisfy their clinical application. For example, osseointegration with the surrounding bone tissue at the initial stage of implantation has been pointed to as a major issue. This Special Issue, “Titanium and Its Alloys for Biomedical Applications”, has been proposed to present recent developments in biomedical applications. The nine research articles included in this Special Issue cover broad aspects of Ti-based alloys and composites with respect to their composition, mechanical, and biological properties, as highlighted in this editorial.
metal–matrix composites --- titanium alloy design --- microstructures --- mechanical properties --- biocomposites --- powder metallurgy --- high power impulse magnetron sputtering --- zinc oxide --- tantalum oxide --- thin film --- plasma electrolytic oxidation --- antibacterial --- biocompatibility --- ultraprecision magnetic abrasive finishing (UPMAF) --- environmentally friendly oil --- Ni-Ti stent wire --- surface roughness (Ra) --- removed diameter (RD) --- Ti alloys --- martensitic transformation --- recoverable strain --- synchrotron X-ray diffraction --- Ti6Al4V --- centrifugal casting --- ion implantation --- human osteoblast --- grade V titanium --- mini transitional implants --- narrow diameter implant --- backscattered electrons --- Ti-based biomaterials --- toxicity --- β-phase --- ω-phase --- CALPHAD --- artificial intelligence --- deep learning artificial neural network (DLANN) --- self-organizing maps (SOM) --- titanium --- surface treatment --- HA blasting --- sandblasted and acid-etched (SLA) --- anodic oxidation (AO) --- micro-arc oxidation (MAO) --- graphene oxide --- electrophoretic deposition --- implant --- biomolecule --- complex --- n/a --- metal-matrix composites
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