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Shailesh P. Nagarkar

Researcher at University of Pittsburgh

Publications -  8
Citations -  777

Shailesh P. Nagarkar is an academic researcher from University of Pittsburgh. The author has contributed to research in topics: Self-healing hydrogels & Fibroin. The author has an hindex of 6, co-authored 8 publications receiving 644 citations. Previous affiliations of Shailesh P. Nagarkar include Indian Institute of Technology Bombay.

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A hydrogel derived from decellularized dermal extracellular matrix

TL;DR: Results show that ECM hydrogel properties can be varied and partially controlled by the scaffold tissue source, and that these properties can markedly affect cell behavior.
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Hydrogels derived from central nervous system extracellular matrix.

TL;DR: Results suggest that CNS-ECM hydrogels may provide supportive scaffolding to promote in vivo axonal repair, and may aid in tissue reconstruction efforts following complex neurologic trauma.
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Morphology and rheology of ternary fluid–fluid–solid systems

TL;DR: In this article, the effects of interfacially active particles in blends of immiscible homopolymers with a droplet/matrix morphology were examined and the effect of particles on drop size was not monotonic: at low volume fractions (∼0.1), particles greatly increase the size of the dispersed phase by promoting flow-induced coalescence regardless of which phase wets the particles preferentially.
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Some Mechanistic Insights into the Gelation of Regenerated Silk Fibroin Sol

TL;DR: In this paper, the kinetics and mechanism of the sol-gel transition were investigated using rheology and light scattering, and it was shown that a weak gel is formed almost immediately upon lowering the pH, while in the second step further gelation proceeds rapidly after a long induction time to form a selfsimilar structure.
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Rheology and morphology of model immiscible polymer blends with monodisperse spherical particles at the interface

TL;DR: The authors showed that the addition of solid particles to droplet-matrix blends of immiscible polymers induces massive changes in the rheology and the flow-induced structure even at loadings as low as 0.1 vol.