AbstractThis study presents a fabrication process of bone scaffold model with titanium biomedical materials by rapid prototyping (RP) technique. A RP machine with Nd:YAG laser (120W) was developed to produce bone scaffolds using a selective laser sintering (SLS) technology. The slurry state of biomedical material consists of titanium powder and silica sol mixed at 2g: 1g weight ratio was used in the proposed process. This biomedical titanium slurry was solidified after scanning by a laser beam. The process parameters of laser were tuned at a laser power of 15W, a frequency of 16KHz and a scanning speed of 100mm/s to build the titanium biomedical bone model within 3hrs. Experimental results show that the compressive strength was 142MPa after...
Porous structures are used in orthopaedics to promote biological fixation between metal implant and ...
peer reviewedThe use of bone scaffolds for treatment of large bone defects could be a solution for m...
Symposium: P - Bioinspired and biointegrated materials as new frontiers nanomaterials II: abstract P...
AbstractThis study presents a fabrication process of bone scaffold model with titanium biomedical ma...
This paper presents an overview of the research work carried out for the rapid manufacture of hydrox...
Selective laser sintering (SLS), a mature and versatile rapid prototyping (RP) technology, uses a la...
Session - Symposium Y: Biomaterials and Tissue Engineering: ICMAT11-A-3662In scaffold-based bone tis...
Fabrication of mechanically competent bioactive scaffolds is a great challenge in bone tissue engine...
Aim and Background: Scientific approach is the utilization of the new generative manufacturing proce...
Additive manufacturing (also known as 3D printing) process is an emerging technique for the fabricat...
The aim of the investigations described in this article is to present a selective laser sintering an...
Purpose This paper seeks to investigate the possibility of producing medical or dental parts by sele...
Porous structures are used in orthopaedics to promote biological fixation between metal implant and ...
Rapid prototyping (RP) technologies, which are based on computer-aided design and computer-aided man...
Selective Laser Sintering (SLS) is used to fabricate tissue engineering scaffold due to its versatil...
Porous structures are used in orthopaedics to promote biological fixation between metal implant and ...
peer reviewedThe use of bone scaffolds for treatment of large bone defects could be a solution for m...
Symposium: P - Bioinspired and biointegrated materials as new frontiers nanomaterials II: abstract P...
AbstractThis study presents a fabrication process of bone scaffold model with titanium biomedical ma...
This paper presents an overview of the research work carried out for the rapid manufacture of hydrox...
Selective laser sintering (SLS), a mature and versatile rapid prototyping (RP) technology, uses a la...
Session - Symposium Y: Biomaterials and Tissue Engineering: ICMAT11-A-3662In scaffold-based bone tis...
Fabrication of mechanically competent bioactive scaffolds is a great challenge in bone tissue engine...
Aim and Background: Scientific approach is the utilization of the new generative manufacturing proce...
Additive manufacturing (also known as 3D printing) process is an emerging technique for the fabricat...
The aim of the investigations described in this article is to present a selective laser sintering an...
Purpose This paper seeks to investigate the possibility of producing medical or dental parts by sele...
Porous structures are used in orthopaedics to promote biological fixation between metal implant and ...
Rapid prototyping (RP) technologies, which are based on computer-aided design and computer-aided man...
Selective Laser Sintering (SLS) is used to fabricate tissue engineering scaffold due to its versatil...
Porous structures are used in orthopaedics to promote biological fixation between metal implant and ...
peer reviewedThe use of bone scaffolds for treatment of large bone defects could be a solution for m...
Symposium: P - Bioinspired and biointegrated materials as new frontiers nanomaterials II: abstract P...