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Assesses bioink's printability and rheological properties for soft tissue engineering, suggesting its viability for cell-laden applications.
Design of Experiment (DoE) methodology for target viscosity, and now subjected to comprehensive rheological validation. Flow curve analysis confirms the bioink's shear-thinning profile, supporting its suitability for extrusion. Oscillatory amplitude and frequency sweep tests reveal a stable viscoelastic response within the linear viscoelastic region. In combination with pronounced shear-thinning behaviour and rapid thixotropic recovery, this supports the bioink's ability to maintain structural integrity following deposition. A three-stage thixotropy test demonstrates rapid viscosity recovery following high shear, while temperature ramp testing shows expected increases in viscosity as temperature decreases, with no gelation observed in the printing-relevant range. Collectively, these findings validate the formulation's suitability for cell-laden printing applications and offer a reproducible rheological benchmark for future bioink development in soft tissue engineering.
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Upton et al. (2026) studied this question.
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