Guided Bone Regeneration: A novel approach to 3D-printed biodegradable meshes

Guided Bone Regeneration (GBR) is a standard surgical procedure to augment jawbone volume, conventionally using titanium meshes or collagen membranes - each with inherent limitations such as stress shielding, imaging artifacts, or insufficient mechanical stability. Here, we introduce a novel 3D-printed, patient-specific biodegradable mesh fabricated via Arburg plastic freeforming (APF) using PLDLLA/?-TCP composite. Three design variants were fabricated: A solid configuration for maximal strength, a porous structure (50% infill) to minimize fibrous tissue ingrowth, and a gyroid design to promote angiogenesis. Our results demonstrate high dimensional accuracy (<1% deviation) and pore sizes of 243±17 µm (porous) and 620±64 µm (gyroid). Mechanical testing revealed that the solid design achieved a biaxial flexural strength of 129±13 MPa, significantly outperforming the porous (26±5 MPa) and gyroid designs (23±2 MPa). These results lay the foundation for further optimization, including hybrid designs that integrate robust mechanical support with favorable biological properties, ultimately eliminating the need for secondary surgery.

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Publication Details

Journal
Infinite Science GmbH
Published
2025-02-28
DOI
https://doi.org/10.18416/ammm.2025.25062062
Primary Topic
Actinomycetales infections and treatment
Type
article
Field-Weighted Citation Impact
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article

Guided Bone Regeneration: A novel approach to 3D-printed biodegradable meshes

Infinite Science GmbH
Actinomycetales infections and treatment
article

Guided Bone Regeneration: A novel approach to 3D-printed biodegradable meshes

article en

Abstract

Guided Bone Regeneration (GBR) is a standard surgical procedure to augment jawbone volume, conventionally using titanium meshes or collagen membranes - each with inherent limitations such as stress shielding, imaging artifacts, or insufficient mechanical stability. Here, we introduce a novel 3D-printed, patient-specific biodegradable mesh fabricated via Arburg plastic freeforming (APF) using PLDLLA/?-TCP composite. Three design variants were fabricated: A solid configuration for maximal strength, a porous structure (50% infill) to minimize fibrous tissue ingrowth, and a gyroid design to promote angiogenesis. Our results demonstrate high dimensional accuracy (<1% deviation) and pore sizes of 243±17 µm (porous) and 620±64 µm (gyroid). Mechanical testing revealed that the solid design achieved a biaxial flexural strength of 129±13 MPa, significantly outperforming the porous (26±5 MPa) and gyroid designs (23±2 MPa). These results lay the foundation for further optimization, including hybrid designs that integrate robust mechanical support with favorable biological properties, ultimately eliminating the need for secondary surgery.

Infinite Science GmbH
University of Basel (CH), University Hospital of Basel (CH)
Openalex Percentile: Top 54%
Actinomycetales infections and treatment
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