We present a novel Ti64/20Ag highly porous composite fabricated by powder metallurgy for biomedical applications and provide an insight into its microstructure and mechanical proprieties. In this work, the Ti64/20Ag highly porous composites were successfully fabricated by the space holder technique and consolidated by liquid phase sintering, at lower temperatures than the ones used for Ti64 materials. The sintering densification was evaluated by dilatometry tests and the microstructural characterization and porosity features were determined by scanning electron microscopy and computed microtomography. Permeability was estimated by numerical simulations on the 3D real microstructure. Mechanical properties were evaluated by simple compression...
To alleviate the “stress shielding” of metallic biomaterials used as artificial bone, the state of a...
Ti-based alloys are finding ever-increasing applications in biomaterials due to their excellent mech...
The elastic modulus of metallic orthopaedic implants is typically 6–12 times greater than cortical b...
This paper deals with powder processing of Ti6Al4V titanium alloy based materials with tailored poro...
The performance and properties of Titanium (Ti) and its alloys can be fully exploited for biomedical...
Titanium and its alloys are reference materials in biomedical applications because of their desirabl...
One of the biggest challenges in the biocompatibility of implantable metals is the prevention of the...
The osseointegration of metallic implants depends on an effective balance among designed porosity to...
Porous Ti-10Mo alloys were fabricated by powder metallurgy using a space-holder method. The pore cha...
Highly porous titanium and titanium alloys with an open cell structure are promising implant materia...
The porous structure of metals has been attracting a growing interest, particularly the use of titan...
Abstract: In this study, antibacterial Ag element added to synthesis of porous Ti–20Nb–5Ag (wt%) all...
The paper presents the results of the preparation of bulk and porous Ti-Ta-Ag alloys. The first step...
Titanium alloys, due to their biocompatibility and low stiffness, are among the most studied of meta...
Abstract Titanium and its alloys are useful for implant materials. In this study, porous Ti-Nb-Zr bi...
To alleviate the “stress shielding” of metallic biomaterials used as artificial bone, the state of a...
Ti-based alloys are finding ever-increasing applications in biomaterials due to their excellent mech...
The elastic modulus of metallic orthopaedic implants is typically 6–12 times greater than cortical b...
This paper deals with powder processing of Ti6Al4V titanium alloy based materials with tailored poro...
The performance and properties of Titanium (Ti) and its alloys can be fully exploited for biomedical...
Titanium and its alloys are reference materials in biomedical applications because of their desirabl...
One of the biggest challenges in the biocompatibility of implantable metals is the prevention of the...
The osseointegration of metallic implants depends on an effective balance among designed porosity to...
Porous Ti-10Mo alloys were fabricated by powder metallurgy using a space-holder method. The pore cha...
Highly porous titanium and titanium alloys with an open cell structure are promising implant materia...
The porous structure of metals has been attracting a growing interest, particularly the use of titan...
Abstract: In this study, antibacterial Ag element added to synthesis of porous Ti–20Nb–5Ag (wt%) all...
The paper presents the results of the preparation of bulk and porous Ti-Ta-Ag alloys. The first step...
Titanium alloys, due to their biocompatibility and low stiffness, are among the most studied of meta...
Abstract Titanium and its alloys are useful for implant materials. In this study, porous Ti-Nb-Zr bi...
To alleviate the “stress shielding” of metallic biomaterials used as artificial bone, the state of a...
Ti-based alloys are finding ever-increasing applications in biomaterials due to their excellent mech...
The elastic modulus of metallic orthopaedic implants is typically 6–12 times greater than cortical b...