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A comprehensive protocol for hydrogel-based bioink design: balancing printability, stability, and biocompatibility

Rency Geevarghese, Joanna Żur, Daniele Parisi, Małgorzata K. Włodarczyk‐Biegun

2025Journal of Materials Chemistry B7 citationsDOIOpen Access PDF

Abstract

cross-linking) resulted in scaffolds with variable stiffness, showcasing their potential for gradient tissue regeneration. Notably, the protocol is adaptable to other materials and concentrations, streamlining bioink development for diverse applications in gradient tissue engineering.

Topics & Concepts

BiocompatibilityMaterials scienceScaffoldRheologyGelatinCuring (chemistry)Biomedical engineeringBiofabricationCarboxymethyl celluloseComputer scienceNanotechnologyTissue engineeringBiocompatible materialCelluloseProtocol (science)MethacrylateComposite material3D printingProcess engineeringMechanical strength3D Printing in Biomedical ResearchInnovative Microfluidic and Catalytic Techniques Innovation
A comprehensive protocol for hydrogel-based bioink design: balancing printability, stability, and biocompatibility | Litcius