Silk from Indian paper wasp: Structure prediction and secondary conformational analysis.
Chawla, S; Seit, S; Murab, S; Ghosh, S.
Polymer.
2020;
208:122967-122967.
Elucidation of bio-inspired hydroxyapatie crystallization on oxygen-plasma modified 3D printed poly-caprolactone scaffolds.
Murab, S; Gruber, SM S; Lin, CJ; Whitlock, P.
Materials Science and Engineering: C.
2020;
109:110529-110529.
Modulation of Macrophage Phenotype, Maturation, and Graft Integration through Chondroitin Sulfate Cross-Linking to Decellularized Cornea.
Chakraborty, J; Roy, S; Murab, S; Ravani, R; Kaur, K; Devi, S; Singh, D; Sharma, S; Mohanty, S; Dinda, AK; et al.
ACS Biomaterials Science and Engineering.
2019;
5:165-179.
Effect of visco-elastic silk–chitosan microcomposite scaffolds on matrix deposition and biomechanical functionality for cartilage tissue engineering.
Chameettachal, S; Murab, S; Vaid, R; Midha, S; Ghosh, S.
Journal of Tissue Engineering and Regenerative Medicine.
2017;
11:1212-1229.
Establishment of an in vitro monolayer model of macular corneal dystrophy.
Murab, S; Chameettachal, S; Ghosh, S.
Laboratory Investigation.
2016;
96:1311-1326.
Impact of osmoregulatory agents on the recovery of collagen conformation in decellularized corneas.
Murab, S; Ghosh, S.
Biomedical Materials (Bristol).
2016;
11:065005-065005.
Osteogenic signaling on silk-based matrices.
Midha, S; Murab, S; Ghosh, S.
Biomaterials.
2016;
97:133-153.
Role of chondroitin sulphate tethered silk scaffold in cartilaginous disc tissue regeneration.
Bhattacharjee, M; Chawla, S; Chameettachal, S; Murab, S; Bhavesh, NS; Ghosh, S.
Biomedical Materials (Bristol).
2016;
11:025014-025014.