Design and Scalable Fabrication of Bioactive Ti/Polymer/Ti Sandwich Composites with Controlled Mechanics for Cranioplasty

-BMA) copolymer, enabling improved formability at near-room temperature and better matching of cranial bone mechanics. The polymer exhibits a tunable glass transition temperature, allowing for shaping at near-room temperature and enhancing delamination resistance. The Ti-polymer interfaces show strong adhesion (>10 MPa), achieved through surface-initiated polymerization. The sandwich structure provides lower thermal diffusivity and enhanced damping properties compared to monolithic Ti. Furthermore, the external Ti skins were postfunctionalized with poly sodium 4-styrenesulfonate (PNaSS) to introduce bioactivity, addressing the biological inertness of both Ti and methacrylate polymers. This functionalization improves cytocompatibility and promotes biomineralization. In a rat cranioplasty model, follow-up showed less early weight loss and a greater peak weight increase (35% compared to 24% for Ti), supporting improved early postoperative tolerance, although additional in vivo validation remains necessary.

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Publication Details

Journal
ACS Biomaterials Science & Engineering
Published
2026-04-06
DOI
https://doi.org/10.1021/acsbiomaterials.5c01607
Primary Topic
Bone Tissue Engineering Materials
Type
article
Field-Weighted Citation Impact
0.00

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article

Design and Scalable Fabrication of Bioactive Ti/Polymer/Ti Sandwich Composites with Controlled Mechanics for Cranioplasty

Patrick Masson, Heinz Palkowski, Flavien Mouillard, Adele Carradò et al.
ACS Biomaterials Science & Engineering
Bone Tissue Engineering Materials
article

Design and Scalable Fabrication of Bioactive Ti/Polymer/Ti Sandwich Composites with Controlled Mechanics for Cranioplasty

Patrick Masson, Heinz Palkowski, Flavien Mouillard, Adele Carradò, Gargi Shankar Nayak, Caroline Pereira, Céline Falentin-Daudré, Agnès Dupret-Bories, Pierre Mattei
article en

Abstract

-BMA) copolymer, enabling improved formability at near-room temperature and better matching of cranial bone mechanics. The polymer exhibits a tunable glass transition temperature, allowing for shaping at near-room temperature and enhancing delamination resistance. The Ti-polymer interfaces show strong adhesion (>10 MPa), achieved through surface-initiated polymerization. The sandwich structure provides lower thermal diffusivity and enhanced damping properties compared to monolithic Ti. Furthermore, the external Ti skins were postfunctionalized with poly sodium 4-styrenesulfonate (PNaSS) to introduce bioactivity, addressing the biological inertness of both Ti and methacrylate polymers. This functionalization improves cytocompatibility and promotes biomineralization. In a rat cranioplasty model, follow-up showed less early weight loss and a greater peak weight increase (35% compared to 24% for Ti), supporting improved early postoperative tolerance, although additional in vivo validation remains necessary.

ACS Biomaterials Science & EngineeringVol. 12(5)
Istituto Nazionale di Fisica Nucleare, Galileo Galilei Institute for Theoretical Physics (IT), Université Sorbonne Paris Nord (FR), Institute of Metals and Technology (SI), Institut de Physique et Chimie des Matériaux de Strasbourg (FR), Institute of Metallurgy (RU), Clausthal University of Technology (DE), Université de Strasbourg (FR)
Deutsche Forschungsgemeinschaft, Agence Nationale de la Recherche, Fondation des Gueules Cassées
Openalex Percentile: Top 36%
Bone Tissue Engineering Materials
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