AbstractSelective laser melting (SLM) is a promising technique for the production of biometallic scaffolds for orthopedic applications due to its ability for fast turnover times and production of customised complex geometrical parts. The present work demonstrates the production of various unit cell design scaffolds of low E-modulus Ti-xNb-yZr . 3 Unit cells were produced at 3 different pore sizes (1000, 750 and 500μm). Micro-CT and compression testing was carried out for each design showing a stiffness range within the range of bone
The production of porous scaffold structures using additive manufacturing is becoming widespread, ho...
Titanium alloys are receiving a great deal of attention in both medical and dental applications. For...
Titanium (Ti) based materials are deemed one type of the best metallic materials for biomedical appl...
AbstractSelective laser melting (SLM) is a promising technique for the production of biometallic sca...
In this study, morphological and mechanical characterization was performed on Ti6Al4V scaffolds prod...
Bone loss in the near-vicinity of implants can be a consequence of stress shielding due to stiffness...
Titanium (Ti) based tissue engineering scaffolds can be used to repair damaged bone. However, succes...
Porous structures are used in orthopaedics to promote biological fixation between metal implant and ...
Orthopedic implants are under incessant advancement to improve their interactions with surrounding b...
Over the last decade, advances in additive manufacturing have allowed to obtain complex 3D porous la...
Selective laser melting (SLM) is a promising technique for the production of biometallic scaffolds f...
peer reviewedThe use of bone scaffolds for treatment of large bone defects could be a solution for m...
We used selective laser melting (SLM) and hot pressing of mechanically-alloyed β-type Ti–40Nb powder...
Porous structures are used in orthopaedics to promote biological fixation between metal implant and ...
Integrating porous networks in load-bearing implants is essential in order to improve mechanical com...
The production of porous scaffold structures using additive manufacturing is becoming widespread, ho...
Titanium alloys are receiving a great deal of attention in both medical and dental applications. For...
Titanium (Ti) based materials are deemed one type of the best metallic materials for biomedical appl...
AbstractSelective laser melting (SLM) is a promising technique for the production of biometallic sca...
In this study, morphological and mechanical characterization was performed on Ti6Al4V scaffolds prod...
Bone loss in the near-vicinity of implants can be a consequence of stress shielding due to stiffness...
Titanium (Ti) based tissue engineering scaffolds can be used to repair damaged bone. However, succes...
Porous structures are used in orthopaedics to promote biological fixation between metal implant and ...
Orthopedic implants are under incessant advancement to improve their interactions with surrounding b...
Over the last decade, advances in additive manufacturing have allowed to obtain complex 3D porous la...
Selective laser melting (SLM) is a promising technique for the production of biometallic scaffolds f...
peer reviewedThe use of bone scaffolds for treatment of large bone defects could be a solution for m...
We used selective laser melting (SLM) and hot pressing of mechanically-alloyed β-type Ti–40Nb powder...
Porous structures are used in orthopaedics to promote biological fixation between metal implant and ...
Integrating porous networks in load-bearing implants is essential in order to improve mechanical com...
The production of porous scaffold structures using additive manufacturing is becoming widespread, ho...
Titanium alloys are receiving a great deal of attention in both medical and dental applications. For...
Titanium (Ti) based materials are deemed one type of the best metallic materials for biomedical appl...