There is a growing trend of use of 3D-printed implants made of titanium alloys. It is also known that the microstructure and topology of porous layers are different from similar conventional materials made by sintering or powder spraying technology. In this way local fluid permeability and respectively nutrients transport are also varied. Here we are analysing elastic properties and respective mechano-regulative index (MRIX) variations for different titanium specimens during representative loading scenarios
In biomedical implant applications, porous metallic structures are particularly appealing as they en...
Copyright © 2014 Sandipan Roy et al. This is an open access article distributed under the Creative C...
Pure titanium and some of its alloys are currently considered as the most attractive metallic materi...
The elastic modulus of metallic orthopaedic implants is typically 6–12 times greater than cortical b...
Additive manufacturing techniques are getting more and more established as reliable methods for prod...
Porous titanium and its alloys are attractive for orthopedic/dental implant applications because of ...
Ti-based alloys are finding ever-increasing applications in biomaterials due to their excellent mech...
Due to its good biocompatibility, porous titanium is an interesting material for biomedical applicat...
Titanium and its alloys are reference materials in biomedical applications because of their desirabl...
The elastic modulus is a key factor influencing the applications of implant materials because of the...
Titanium and its alloys have a high specific strength, excellent corrosion resistance, and good bioc...
Massive acetabular bone defects are difficult to treat with the currently available implants. Advanc...
The generation of titanium foams is a promising strategy for modifying the mechanical properties of ...
The generation of titanium foams is a promising strategy for modifying the mechanical properties of ...
Biocompatible materials are designed so as to mimic biological materials such as bone as closely as ...
In biomedical implant applications, porous metallic structures are particularly appealing as they en...
Copyright © 2014 Sandipan Roy et al. This is an open access article distributed under the Creative C...
Pure titanium and some of its alloys are currently considered as the most attractive metallic materi...
The elastic modulus of metallic orthopaedic implants is typically 6–12 times greater than cortical b...
Additive manufacturing techniques are getting more and more established as reliable methods for prod...
Porous titanium and its alloys are attractive for orthopedic/dental implant applications because of ...
Ti-based alloys are finding ever-increasing applications in biomaterials due to their excellent mech...
Due to its good biocompatibility, porous titanium is an interesting material for biomedical applicat...
Titanium and its alloys are reference materials in biomedical applications because of their desirabl...
The elastic modulus is a key factor influencing the applications of implant materials because of the...
Titanium and its alloys have a high specific strength, excellent corrosion resistance, and good bioc...
Massive acetabular bone defects are difficult to treat with the currently available implants. Advanc...
The generation of titanium foams is a promising strategy for modifying the mechanical properties of ...
The generation of titanium foams is a promising strategy for modifying the mechanical properties of ...
Biocompatible materials are designed so as to mimic biological materials such as bone as closely as ...
In biomedical implant applications, porous metallic structures are particularly appealing as they en...
Copyright © 2014 Sandipan Roy et al. This is an open access article distributed under the Creative C...
Pure titanium and some of its alloys are currently considered as the most attractive metallic materi...