Porous hydroxyapatite (HA) scaffolds with interconnected porosity have been successfully fabricated by using food grade gelatin as a gelling agent. Phase stability, chemical composition and topographical features of HA scaffolds were evaluated by X-ray diffraction (XRD), Fourier transform infrared spectroscopy and scanning electron microscopy respectively. XRD study revealed that additives used in the gel-casting process did not influence the phase composition of the investigated materials. The porosity of sintered scaffolds was assessed by the liquid displacement method and found to be 55-76 %. The pores were tailored to spherical shape and size in the range 300-400 nm, feature of utmost interest to clinicians for cell attachment, prolifer...
In bone tissue engineering, ceramics are widely used as implant material to enhance bone growth form...
Bone cell response to 3D bioinspired scaffolds was tested on osteoblast culture supernatants and by ...
Scaffolds for bone tissue engineering are essentially characterized by porous three-dimensional stru...
An innovative gel-casting process was developed in order to obtain micro and macro porous hydroxyapa...
Biocompatible artificial cellular ceramics can be used as scaffolds for tissue engineering in substi...
AbstractA combination of gel-casting and polymeric foam infiltration methods is used in this study t...
Abstract-- In biomedical research, fabrication of porous scaffolds from advanced biomaterial for hea...
Porous hydroxyapatite (HA) scaffolds with porosity-graded structures were fabricated by sequential f...
Porous hydroxyapatite (HA) artificial bone scaffolds were prepared via the freeze-gel casting proces...
Hydroxyapatite (HA) macrochanneled porous scaffolds were produced by polymer sponge templating metho...
A novel porous scaffold designed for application as a bone substitute, with a structure containing t...
Porous biomaterials, especially synthetic porous ceramics, are of significant importance in bone tis...
Composite scaffolds prepared from natural polymers and hydroxyapatite (HA) are expected to have enha...
An innovative gel-casting process was developed in order to obtain macro porous ceramics scaffolds o...
Based on extrusion deposition and foaming technique, a novel method for biological hydroxyapatite (H...
In bone tissue engineering, ceramics are widely used as implant material to enhance bone growth form...
Bone cell response to 3D bioinspired scaffolds was tested on osteoblast culture supernatants and by ...
Scaffolds for bone tissue engineering are essentially characterized by porous three-dimensional stru...
An innovative gel-casting process was developed in order to obtain micro and macro porous hydroxyapa...
Biocompatible artificial cellular ceramics can be used as scaffolds for tissue engineering in substi...
AbstractA combination of gel-casting and polymeric foam infiltration methods is used in this study t...
Abstract-- In biomedical research, fabrication of porous scaffolds from advanced biomaterial for hea...
Porous hydroxyapatite (HA) scaffolds with porosity-graded structures were fabricated by sequential f...
Porous hydroxyapatite (HA) artificial bone scaffolds were prepared via the freeze-gel casting proces...
Hydroxyapatite (HA) macrochanneled porous scaffolds were produced by polymer sponge templating metho...
A novel porous scaffold designed for application as a bone substitute, with a structure containing t...
Porous biomaterials, especially synthetic porous ceramics, are of significant importance in bone tis...
Composite scaffolds prepared from natural polymers and hydroxyapatite (HA) are expected to have enha...
An innovative gel-casting process was developed in order to obtain macro porous ceramics scaffolds o...
Based on extrusion deposition and foaming technique, a novel method for biological hydroxyapatite (H...
In bone tissue engineering, ceramics are widely used as implant material to enhance bone growth form...
Bone cell response to 3D bioinspired scaffolds was tested on osteoblast culture supernatants and by ...
Scaffolds for bone tissue engineering are essentially characterized by porous three-dimensional stru...