Investigation into the Impact of Hollow Cylinder Inner Diameter on the Mechanical Properties of Biomimetic Voronoi Scaffolds

The current study investigates the mechanical performance of the hollow cylindrical scaffolds with varying inner radii designed for bone tissue engineering. The biomimetic Voronoi-based structures with distinct inner diameters were manufactured using the stereolithography (SLA) technique and eco-friendly plant-based resin. The experimental results revealed that increasing the inner radius significantly reduces the mechanical properties of the biological scaffolds. Conversely, designs with a smaller inner diameter exhibited higher resistance to compressive stress and superior energy absorption. This work provides vital insights into constructing functional biodegradable supports which balance structural integrity with biological compatibility by optimising specific geometric parameters. These discoveries are intended to improve the efficiency of synthetic scaffolds utilised for medical regeneration and repair of fractures.

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Publication Details

Journal
Journal of Functional Biomaterials
Published
2026-07-30
DOI
https://doi.org/10.3390/jfb17080369
Primary Topic
Cellular and Composite Structures
Type
article
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article

Investigation into the Impact of Hollow Cylinder Inner Diameter on the Mechanical Properties of Biomimetic Voronoi Scaffolds

Zainab Alknery, Ali Arab
Journal of Functional Biomaterials
Cellular and Composite Structures
article

Investigation into the Impact of Hollow Cylinder Inner Diameter on the Mechanical Properties of Biomimetic Voronoi Scaffolds

Zainab Alknery, Ali Arab
article en

Abstract

The current study investigates the mechanical performance of the hollow cylindrical scaffolds with varying inner radii designed for bone tissue engineering. The biomimetic Voronoi-based structures with distinct inner diameters were manufactured using the stereolithography (SLA) technique and eco-friendly plant-based resin. The experimental results revealed that increasing the inner radius significantly reduces the mechanical properties of the biological scaffolds. Conversely, designs with a smaller inner diameter exhibited higher resistance to compressive stress and superior energy absorption. This work provides vital insights into constructing functional biodegradable supports which balance structural integrity with biological compatibility by optimising specific geometric parameters. These discoveries are intended to improve the efficiency of synthetic scaffolds utilised for medical regeneration and repair of fractures.

Journal of Functional BiomaterialsVol. 17(8)
Ipswich Hospital (GB), Salahaddin University-Erbil (IQ)
Affordable and clean energy
Openalex Percentile: Top 17%
Cellular and Composite Structures
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