Emerging biomaterials for tissue engineering applications witness a multitude of interaction
(both along their interface and internally) with human tissue. Insufficient consideration of the …

The demand for orthopedic implants is increasing, driven by a rising number of young
patients seeking an active lifestyle post-surgery. This has led to changes in manufacturing …

This research work proposes a synergistic approach to improve implants' performance
through the use of porous Ti substrates to reduce the mismatch between Young's modulus of …

This study investigates the in vitro biocompatibility, corrosion resistance, and adhesion
strength of a gas abrasive-treated Ti6Al4V alloy, alongside microplasma-sprayed titanium …

In this research work, the fabrication of biphasic composite implants has been investigated.
Porous, commercially available pure Ti (50 vol% porosity and pore distributions of 100–200 …

To mimic the biomechanical properties of natural bone, the porous Ti 45 Zr 10 Cu 31 Pd 10
Sn 4 bulk metallic glass (BMG) with bone-like mechanical characteristics was developed by …

Ti implants are highly biocompatible and allow orderly bone growth but, unfortunately, in the
first five years after implantation, 5–10% of them fail due to poor osseointegration and to the …

Mesenchymal stem cells (MSCs) have extensive pluripotent potential to differentiate into
various cell types, and thus they are an important tool for regenerative medicine and …

To alleviate the “stress shielding” of metallic biomaterials used as artificial bone, the state of
art Ti 45 Zr 10 Cu 31 Pd 10 Sn 4 porous bulk metallic glass (BMG) with adequate …

This study investigates the potential of Ti–Ta–Sn alloys for biomedical applications due to
their excellent mechanical properties and biocompatibility, with a particular focus on their …