Engineering human tissue microenvironments that recapitulate the composition and biomechanics of extracellular matrix (ECM) in vitro is challenging. New mechanically tunable alginate-based hydrogels are presented, enabling to precise model multiple ECM features in the context of breast cancer. Combining alginate, oxidized alginate (OA), and gelatin with different crosslinking strategies a library of mechanically controlled hydrogels supporting human cell growth (MDA-MB-231) is obtained. The compressive moduli and stability of alginate-based hydrogels are characterized and modeled using a response surface methodology (RSM); this enables to selection of precision-hydrogels decoupling their biochemical composition with mechanical properties (1–30 kPa). Specific alginate-based hydrogels are selected as enhanced technologies to model breast-specific microenvironments in vitro to study the impact of biomechanical and biochemical properties on cell behavior. Doxorubicin is selected as a model...

Exploiting Response Surface Methodology to Engineer the Mechanical Properties of Alginate‐based Hydrogels / Bucciarelli, Alessio; Zhao, Chen; Bai, Xue; Kay, Rebekah; Latif, Ayşe; Williams, Kaye J.; Tirella, Annalisa. - In: MACROMOLECULAR MATERIALS AND ENGINEERING. - ISSN 1439-2054. - 310:2(2025). [10.1002/mame.202400296]

Exploiting Response Surface Methodology to Engineer the Mechanical Properties of Alginate‐based Hydrogels

Alessio Bucciarelli;Xue Bai;Annalisa Tirella
Ultimo
2025-01-01

Abstract

Engineering human tissue microenvironments that recapitulate the composition and biomechanics of extracellular matrix (ECM) in vitro is challenging. New mechanically tunable alginate-based hydrogels are presented, enabling to precise model multiple ECM features in the context of breast cancer. Combining alginate, oxidized alginate (OA), and gelatin with different crosslinking strategies a library of mechanically controlled hydrogels supporting human cell growth (MDA-MB-231) is obtained. The compressive moduli and stability of alginate-based hydrogels are characterized and modeled using a response surface methodology (RSM); this enables to selection of precision-hydrogels decoupling their biochemical composition with mechanical properties (1–30 kPa). Specific alginate-based hydrogels are selected as enhanced technologies to model breast-specific microenvironments in vitro to study the impact of biomechanical and biochemical properties on cell behavior. Doxorubicin is selected as a model...
2025
2
Bucciarelli, Alessio; Zhao, Chen; Bai, Xue; Kay, Rebekah; Latif, Ayşe; Williams, Kaye J.; Tirella, Annalisa
Exploiting Response Surface Methodology to Engineer the Mechanical Properties of Alginate‐based Hydrogels / Bucciarelli, Alessio; Zhao, Chen; Bai, Xue; Kay, Rebekah; Latif, Ayşe; Williams, Kaye J.; Tirella, Annalisa. - In: MACROMOLECULAR MATERIALS AND ENGINEERING. - ISSN 1439-2054. - 310:2(2025). [10.1002/mame.202400296]
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/11572/439550
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