bioRxivBioengineeringPreprint
A 4D Bio-Kirigami Strategy for Engineering Complex Tissue Curvatures
Kaelyn L. GasvodaiD, Aixiang DingiD, Alexandria Sterenberg, Oju JeoniD, Eben AlsbergiD
Abstract
AbstractFour-dimensional (4D) systems offer a promising approach for generating sophisticated dynamic structures that mimic native tissue architectures. Among those, Kirigami strategies enable precise, localized control over morphing behaviors, yet their application in 4D tissue engineering remains unexplored. Here, we present a bio-Kirigami system that facilitates the creation of dynamic, transformable structures through spatially patterned hydrogels with distinct deformation modes dictated by encoded swelling differentials. The system consists of two biomaterial components: (1) a photocrosslinked hydrogel framework with controlled degradation and swelling behavior that drives the shape transformation and (2) a rigid support hydrogel frame. By leveraging photolithographic patterning, complex structures with continuously evolving configurations were achieved through preprogrammed deformations. Bio- Kirigami hydrogels encapsulating stem cells developed into tissue-like constructs with sophisticated configurations when cultured in tissue-specific environment. Notably, the engineered tissue constructs kept their shape integrity after excision from the outer support, demonstrating a robust platform for achieving intricate tissue curvatures.
- Citations
- 1
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- 4D Biomimetic Morphing Hydrogel Scaffold via Biaxial Gradient Programming
Aixiang Ding, Kaelyn L. Gasvoda, Eben Alsberg·bioRxiv·Jul 29, 2026
- Cell Contractile Force-Mediated Morphodynamical Tissue Engineering via 4D Printed Degradable Hydrogel Scaffolds
Aixiang Ding, Kaelyn L. Gasvoda, … Eben Alsberg·bioRxiv·Feb 22, 2025
- Self-Actuating 4D Cell-Strand Bioprinting
Aixiang Ding, Ana Filipa Cunha, … Eben Alsberg·bioRxiv·Jul 28, 2026
- 4D bioprinting shape-morphing tissues in granular support hydrogels: Sculpting structure and guiding maturation
Ankita Pramanick, Thomas Hayes, … Andrew C. Daly·Advanced Functional MaterialsPeer-reviewed·Nov 24, 2024
- Cell Contractile Forces Drive Spatiotemporal Morphing in 4D Bioprinted Living Constructs
Aixiang Ding, David S. Cleveland, … Eben Alsberg·MatterPeer-reviewed·Sep 11, 2025
- Reprogrammable 4D Tissue Engineering Hydrogel Scaffold via Reversible Ion Printing
Aixiang Ding, Fang Tang, … Eben Alsberg·Bioactive MaterialsPeer-reviewed·Mar 12, 2026