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ImplantaOss® (Filament)

Price range: 200,00€ through 315,00€ VAT not included

Price: €/10m

Linear Density: 3.2 – 3.9 g/m

Short description: ImplantaOss® is a composite material made of bioactive hydroxyapatite particles supported by a biodegradable polymer matrix for bone regeneration.

Filament & Printing: Filament Diameter 1.75 (±0.15 mm) – Printing Temperature 155-165ÂşC

*Tested on validated printers with a direct drive extruder and a top mount.

Particle: Hydroxyapatite Mean Diameter 3 µm – Inorganic Content up to 20 vol.%.

 

Technical Data Sheet (TDS)

Safety Data Sheet (SDS)

Printing Guidelines

More info…

 

If you have a special request or need a personalized filament, please contact us!

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Description

Advantages: ImplantaOss® is bioabsorbable, can be sterilized by ultraviolet light and allows obtaining multidirectional and customized porosity. ImplantaOss® is also ISO-certified as biocompatible (ISO-10995 ) and as a ready for its use as feedstock for medical devices (ISO-13485).

 

Applications: ImplantaOss® has in vitro validated biodegradation and bioactivity, good adhesion and cell growth making it suitable for in vitro/in vivo studies.

 

Storage Conditions
-Keep in a dry place
-Protect from direct sunlight
-Storage between 5ÂşC and 30ÂşC

 

Filament Characteristics
Material: Hydroxyapatite
Composition: Up to 20 vol.% (40wt.%)
Diameter: 1.75 mm (±0.15 mm)
Density: 1.63 g/cmÂł
Linear Density: 3.2 – 3.9 g/m
Format: Vacuum-packed spool

 

Physical Propierties
Glass Transition Temp. (Tg): 62 ÂşC
Melting Temp: 156 ÂşC
Degradation Temp. 320 ÂşC

Printing Recommendations
Printing Temp: 155 – 165 ÂşC
Hot Pad: 40 ÂşC
Printing Speed: 10 – 60 mm/s
Layer Height ≥ 0.15 mm
Nozzle Diameter ≥ 0.4 mm

 

Particle Properties
Particle: Hydroxyapatite (Ca:P 1.74:1)
Size (Dv50): 2.76 µm
Density: 3.16 g/cmÂł
Spec Surf. Area: 1.40 m²/g

 

Bibliography

Ferrández-Montero A., Ortega-Columbrans P., Eguiluz A., Sanchez-Herencia A.J., Detsch R., Boccaccini A.R., Ferrari B. Biocompatible colloidal feedstock for material extrusion processing of bioceramic-based scaffolds. Polymer Composites 45, 8, 7237 – 7255. DOI https://doi.org/10.1002/pc.28263

 

Shan, E.; Chamorro, C.; Ferrández-Montero, A.; Martin-Rodriguez, R.M.; Ferrari, B.; Sanchez-Herencia, A.J.; Virto, L.; Marín, M.J.;Figuero, E.; Sanz, M. In Vitro Biological Properties Assessment of 3D-Printed Hydroxyapatite–Polylactic Acid Scaffolds Intended for Bone Regeneration. J. Funct. Biomater. 2025, 16, 218. https://doi.org/10.3390/jfb16060218

 

Sofokleous P., Paz E. and Herraiz-MartĂ­nez F. J. Design and Manufacturing of Dielectric Resonators via 3D Printing of Composite Polymer/Ceramic Filaments. Polymers 2024, 16(18), 2589; DOI https://doi.org/10.3390/polym16182589