Agitation-Driven Fusion Fabrication of Macroscopic Cell-Laden Cryogels

Fabricating macroscopic tissue scaffolds that replicate native architecture, mechanics, and cellular density remains challenging. Here, we present a scalable, modular approach that combines agitation-driven assembly with fibrin-mediated fusion to produce centimeter-scale, cell-laden scaffolds with uniformly distributed, high-density cells and improved mechanical performance. The constructs are freestanding and mechanically more robust than monolithic hydrogels, while confocal imaging confirms deep, homogeneous cell penetration and high viability throughout centimeter-scale volumes. By overcoming tradeoffs among scaffold size, cell density, and mechanical integrity, this strategy provides a facile, versatile biofabrication platform for tissue engineering, regenerative medicine, and disease modeling.

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Publication Details

Journal
ACS Applied Bio Materials
Published
2026-02-18
DOI
https://doi.org/10.1021/acsabm.5c02235
Primary Topic
3D Printing in Biomedical Research
Type
article
Field-Weighted Citation Impact
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article

Agitation-Driven Fusion Fabrication of Macroscopic Cell-Laden Cryogels

Guangyu Bao, Xuan Li, Weiyi Wan, Aram Bahmani et al.
ACS Applied Bio Materials
3D Printing in Biomedical Research
article

Agitation-Driven Fusion Fabrication of Macroscopic Cell-Laden Cryogels

Guangyu Bao, Xuan Li, Weiyi Wan, Aram Bahmani, Jianyu Li, Evan Johnston
article en

Abstract

Fabricating macroscopic tissue scaffolds that replicate native architecture, mechanics, and cellular density remains challenging. Here, we present a scalable, modular approach that combines agitation-driven assembly with fibrin-mediated fusion to produce centimeter-scale, cell-laden scaffolds with uniformly distributed, high-density cells and improved mechanical performance. The constructs are freestanding and mechanically more robust than monolithic hydrogels, while confocal imaging confirms deep, homogeneous cell penetration and high viability throughout centimeter-scale volumes. By overcoming tradeoffs among scaffold size, cell density, and mechanical integrity, this strategy provides a facile, versatile biofabrication platform for tissue engineering, regenerative medicine, and disease modeling.

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