Amphiphilic random copolymer vesicle induces differentiation of mouse C2C12 myoblasts

Literature Information

Publication Date 2013-10-01
DOI 10.1039/C3BM60180C
Impact Factor 6.843
Authors

Sumit K. Dey, Krishna Dan, Mahua R. Das, Shekhar Saha, Provas Das, Suhrit Ghosh, Siddhartha S. Jana


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Abstract

Herein we report that vesicular assembly from a simple non-ionic amphiphilic random copolymer initiates extremely efficient myotube formation from C2C12 myoblast cells in standard growth media lacking horse serum. Control experiments with structurally related polymers and a small molecule suggest the absolute necessity of the vesicular assembly as well as the particular hydrophilic functionality in mediating such high yielding muscle cell generation. The LDH assay indicates that the membrane integrity is retained during cell–cell fusion. Expression of various myogenic factors such as MyoD, myogenin and P-21 has been examined in the presence of the polymersome and control molecules to rationalize this serendipitous discovery.

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Source Journal

Biomaterials Science

Biomaterials Science
CiteScore: 11.5
Self-citation Rate: 3.4%
Articles per Year: 492

Biomaterials Science is an international high impact journal exploring the science of biomaterials and their translation towards clinical use. Its scope encompasses new concepts in biomaterials design, studies into the interaction of biomaterials with the body, and the use of materials to answer fundamental biological questions. Papers do not necessarily need to report a new biomaterial but should provide novel insight into the biological applications of the biomaterial. Articles that primarily focus on demonstrating novel materials chemistry and bring a molecular picture to bear on a given material’s suitability as a biomaterial are more suited to our companion journal, Journal of Materials Chemistry B. Biomaterials Science publishes primary research and review-type articles in the following areas: molecular design of biomaterials, including translation of emerging chemistries to biomaterials science of cells and materials at the nanoscale and microscale materials as model systems for stem cell and human biology materials for tissue engineering and regenerative medicine (Nano)materials and (nano)systems for therapeutic delivery interactions at the biointerface biologically inspired and biomimetic materials, including bio-inspired self-assembly systems and cell-inspired synthetic tools next-generation biomaterials tools and methods

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