Adjustment of the mechanical properties (apparent elastic modulus and compressive strength) in porous scaffolds is important for artificial implants and bone tissue engineering. In this study, a top-down design method based on Voronoi-Tessellation was proposed. This method was successful in obtaining the porous structures with specified and functionally graded porosity. The porous specimens were prepared by selective laser melting technology. Quasi-static compressive tests were conducted as well. The experiment results revealed that the mechanical properties were affected by both porosity and irregularity. The irregularity coefficient proposed in this study can achieve good accommodation and balance of “irregularity” and “controllability”. ...
In this work, we designed a new bone-like scaffold with a continuous porosity gradient change based ...
Metallic orthopedic implants to replace or generate lost bones caused by traumatic road traffic inju...
Triply periodic minimal surfaces (TPMS) became an effective method to design porous scaffolds in rec...
The use of irregular porous structures in bone tissue engineering (BTE) has attracted increasing att...
In view of the low elastic modulus of the porous structure, it has attracted extensive attention in ...
In regenerative medicine, 3D scaffolds are used to sustain the regeneration of tissues in removed or...
The aim of Tissue Engineering is to develop biological substitutes that will restore lost morphologi...
The Voronoi design was utilized for a biodegradable patient-specific bone scaffold with macro pores ...
A Voronoi method is a feasible approach for developing biomimetic trabecular scaffolds. This study u...
Additive manufacturing plays a major role in medical science. One of the applications is the develop...
In tissue engineering, biocompatible porous scaffolds that try to mimic the features and function o...
Periodic cellular materials such as body-centered cubic, face-centered cubic, and triply periodic mi...
Bone loss in the near-vicinity of implants can be a consequence of stress shielding due to stiffness...
Porosity is a key feature in dictating the overall performance of biomedical scaffolds, with special...
Functionally graded scaffold (FGS) is designed to mimic the morphology, mechanical and biological pr...
In this work, we designed a new bone-like scaffold with a continuous porosity gradient change based ...
Metallic orthopedic implants to replace or generate lost bones caused by traumatic road traffic inju...
Triply periodic minimal surfaces (TPMS) became an effective method to design porous scaffolds in rec...
The use of irregular porous structures in bone tissue engineering (BTE) has attracted increasing att...
In view of the low elastic modulus of the porous structure, it has attracted extensive attention in ...
In regenerative medicine, 3D scaffolds are used to sustain the regeneration of tissues in removed or...
The aim of Tissue Engineering is to develop biological substitutes that will restore lost morphologi...
The Voronoi design was utilized for a biodegradable patient-specific bone scaffold with macro pores ...
A Voronoi method is a feasible approach for developing biomimetic trabecular scaffolds. This study u...
Additive manufacturing plays a major role in medical science. One of the applications is the develop...
In tissue engineering, biocompatible porous scaffolds that try to mimic the features and function o...
Periodic cellular materials such as body-centered cubic, face-centered cubic, and triply periodic mi...
Bone loss in the near-vicinity of implants can be a consequence of stress shielding due to stiffness...
Porosity is a key feature in dictating the overall performance of biomedical scaffolds, with special...
Functionally graded scaffold (FGS) is designed to mimic the morphology, mechanical and biological pr...
In this work, we designed a new bone-like scaffold with a continuous porosity gradient change based ...
Metallic orthopedic implants to replace or generate lost bones caused by traumatic road traffic inju...
Triply periodic minimal surfaces (TPMS) became an effective method to design porous scaffolds in rec...