Adaptive hydrogels with spatiotemporal stiffening using pH-modulating enzymes
Natascha Gray, Zoe Grämiger, André R. Studart, Rafael Libanori · arXiv · 2025
This study presents an adaptive hydrogel that uses enzymatic reactions for spatiotemporal stiffening, enhancing its mechanical response to stimuli.
Plain English summary
Why this matters
Key findings
- The hydrogel exhibits a 2.1-fold increase in stiffness in response to stimuli.
- Chemical waves propagate at 15-44 um/min, while mechanical wavefronts lag at 12 um/min.
- The system requires continuous chemical energy to maintain mechanical transitions.
- The study establishes design principles for adaptive materials.
- The research enhances understanding of chemomechanical transduction in hydrogels.
What's new
The study provides new insights into the mechanistic principles of chemomechanical transduction in adaptive hydrogels, particularly through the use of enzymatic reactions.
Limitations
The abstract does not provide details on the scalability or practical applications of the hydrogel beyond the laboratory setting.
Commercial context
The research is still in the laboratory phase and has not yet been demonstrated in practical applications.
Publication
- Publisher
- arXiv
- Publication date
- December 2, 2025
- Research type
- Preprint
- arXiv
- 2512.02698
- Access
- open
Tags
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