Nanofibres can be obtained by a number of techniques comprised
of air-blast atomization of mesophase pitch [19–22],
assembling from individual CNT molecules [20], pulling of nonpolymer
[21] and depositing materials on linear templates [22].
Electrospinning (ELS) technique as a popular technique to prepare
soft tissues is not only applicable due to its versatility in spinning
a wide variety of polymeric fibres but also due to its consistency
in producing fibres in the submicron range wound healing
[23]. Despite the poor mechanical properties of natural polymer
nanocomposites, its unique biological properties lead us to focus on
improving its properties rather than completely replacing it with
other biopolymers. Accordingly, in this work we have prepared
a new IGT-PVA nanocomposite as a highly bioactive material for
wound healing applications and have evaluated its in vitro, chemical
as well as mechanical properties.