TY - JOUR
T1 - Development of an Electroactive Hydrogel as a Scaffold for Excitable Tissues
AU - Gupta, Kriti
AU - Patel, Ruchi
AU - Dias, Madara
AU - Ishaque, Hina
AU - White, Kristopher
AU - Olabisi, Ronke
N1 - Publisher Copyright:
© 2021 Kriti Gupta et al.
PY - 2021
Y1 - 2021
N2 - For many cells used in tissue engineering applications, the scaffolds upon which they are seeded do not entirely mimic their native environment, particularly in the case of excitable tissues. For instance, muscle cells experience contraction and relaxation driven by the electrical input of an action potential. Electroactive materials can also deform in response to electrical input; however, few such materials are currently suitable as cell scaffolds. We previously described the development of poly(ethyelene glycol) diacrylate-poly(acrylic acid) as an electroactive scaffold. Although the scaffold itself supported cell growth and attachment, the voltage (20 V) required to actuate these scaffolds was cytotoxic. Here, we describe the further development of our hydrogels into scaffolds capable of actuation at voltages (5 V) that were not cytotoxic to seeded cells. This study describes the critical next steps towards the first functional electroactive tissue engineering scaffold.
AB - For many cells used in tissue engineering applications, the scaffolds upon which they are seeded do not entirely mimic their native environment, particularly in the case of excitable tissues. For instance, muscle cells experience contraction and relaxation driven by the electrical input of an action potential. Electroactive materials can also deform in response to electrical input; however, few such materials are currently suitable as cell scaffolds. We previously described the development of poly(ethyelene glycol) diacrylate-poly(acrylic acid) as an electroactive scaffold. Although the scaffold itself supported cell growth and attachment, the voltage (20 V) required to actuate these scaffolds was cytotoxic. Here, we describe the further development of our hydrogels into scaffolds capable of actuation at voltages (5 V) that were not cytotoxic to seeded cells. This study describes the critical next steps towards the first functional electroactive tissue engineering scaffold.
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U2 - 10.1155/2021/6669504
DO - 10.1155/2021/6669504
M3 - Article
AN - SCOPUS:85100660384
SN - 1687-8787
VL - 2021
JO - International Journal of Biomaterials
JF - International Journal of Biomaterials
M1 - 6669504
ER -