Instrumentalized 3D printed scaffolds enable bone regeneration and fracture healing monitoring in critical size bone defects

Critical size bone defects do not heal without surgical intervention, and the current methods of treatment lack long-term efficacy and patient satisfaction. Our lab has previously demonstrated the use of 3D printed scaffold mimicking biological tissue structure in the regeneration of large critical size bone defects. In this study, we highlight the effect of dynamization and hardware removal in the regeneration of critical size bone defects treated with our instrumentalized 3D printed polymer scaffold. We demonstrate the sensate capabilities of our scaffolds in long-term monitoring of bone healing and bone-implant biomechanics. All scaffold-implanted groups demonstrated rapid bone growth in the defect space. Dynamization resulted in an increased union rate and bone volume. The hardware removal group demonstrated increased bone stiffness compared to the non-dynamized and control groups.

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Publication Details

Journal
APL Bioengineering
Published
2026-08-21
DOI
https://doi.org/10.1063/5.0295886
Primary Topic
Bone Tissue Engineering Materials
Type
article
Field-Weighted Citation Impact
0.00

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article

Instrumentalized 3D printed scaffolds enable bone regeneration and fracture healing monitoring in critical size bone defects

Gerardo Figueroa, Efren Barron Villalobos, Robert Childers, David S. Margolis et al.
APL Bioengineering
Bone Tissue Engineering Materials
article

Instrumentalized 3D printed scaffolds enable bone regeneration and fracture healing monitoring in critical size bone defects

Gerardo Figueroa, Efren Barron Villalobos, Robert Childers, David S. Margolis, John A. Szivek, Paige E. Rudy, Stephany R. Maldonado, David A. Gonzales, Gayatri Kaimal, Sabina M. Romero, Annemarie E. Rau, Ginelle Maldonado, Joselyn M. Toothaker
article en

Abstract

Critical size bone defects do not heal without surgical intervention, and the current methods of treatment lack long-term efficacy and patient satisfaction. Our lab has previously demonstrated the use of 3D printed scaffold mimicking biological tissue structure in the regeneration of large critical size bone defects. In this study, we highlight the effect of dynamization and hardware removal in the regeneration of critical size bone defects treated with our instrumentalized 3D printed polymer scaffold. We demonstrate the sensate capabilities of our scaffolds in long-term monitoring of bone healing and bone-implant biomechanics. All scaffold-implanted groups demonstrated rapid bone growth in the defect space. Dynamization resulted in an increased union rate and bone volume. The hardware removal group demonstrated increased bone stiffness compared to the non-dynamized and control groups.

APL BioengineeringVol. 10(3)
University of Arizona (US), Medical College of Wisconsin (US)
National Science Foundation, National Aeronautics and Space Administration, Arizona Space Grant Consortium, Western Alliance Health Research, National Institutes of Health, U.S. Army Medical Research Acquisition Activity
Openalex Percentile: Top 19%
Bone Tissue Engineering Materials
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