Monomex conducts comprehensive R&D studies for the development of biocompatible composite filaments designed for additive manufacturing (3D printing) technologies. Within this scope, Hydroxyapatite (HA)-reinforced PLA filaments are engineered as advanced materials suitable for bone and dental tissue repair.

Hydroxyapatite (HA) and Its Properties

Hydroxyapatite (HA) is a bioceramic material found naturally in bone and dentin tissue and can be produced both naturally and synthetically. It is the mineral form of calcium apatite in nature. Hydroxyapatite consists of laboratory-produced calcium hydroxyapatite (CaHA) microparticles and a water-based gel.

Key properties of HA include:

-It does not react with oxygen and is non-flammable.

-It has a brittle structure with low elasticity.

-It is odorless and tasteless.

-It is insoluble in organic and inorganic solvents; it dissolves only in strong acids.

-It is completely biocompatible and can be safely used in medical applications without the need for prior testing.

PLA/HA Biocomposite Filament Development Process

In studies carried out by the Monomex R&D team, PLA polymer and HA microparticles are blended in specific ratios to produce biocomposite filaments suitable for additive manufacturing.

These biomaterials:

-Are compatible with additive manufacturing (FDM/FFF),

-Exhibit hardness and biological activity depending on the HA ratio,

-Enable high-resolution production with 3D printers,

-Offer alternative solutions to traditional platinum or metal implants.

Innovative Impact on Healthcare and Manufacturing

Through this R&D project, Monomex aims to:

-Increase the use of biomaterials in additive manufacturing,

-Develop innovative 3D printing materials for the healthcare industry,

Establish a biocompatible, functional, and high-quality production standard.

 PLA/HA biocomposite filaments developed by Monomex are biocompatible materials that can be used in various medical applications, such as custom implants, bone support structures, and dental 3D printing models. Thanks to its hydroxyapatite-reinforced structure, it offers high printing performance, tissue compatibility, and functional durability, providing a reliable foundation for innovative medical manufacturing solutions in the healthcare sector.

👉 These advanced technology filaments provide an ideal solution for medical manufacturing processes that require high precision in additive manufacturing.