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Fabrication and Physicochemical characterisation of marshmallow extra-loaded electrospun polymeric nanofibers
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: In this study electrospinning method was used to prepare nanofiber of
chitosan polymer and polyethylene oxide (PEO) solution. Also marshmallow
extract as a useful medicinal plant was loaded to it in different
concentrations .Optimal electrospinning conditions included a feed rate
of 0.5 ml / h, a voltage of 10 kV, a needle-to-collector distance of 200
mm and a collector rzzzotation speed of RPM200. SEM images of nanofibers
prepared with marshmallow extract loaded show a network structure of
non-woven fibers with no spheres and the difference between the mean
diameters of their fibers was not significantly different (P = 0.315).
Viscosity measurements show that the lowest viscosity is related to
2.5% chitosan solution and 10% marshmallow extract, which is
significantly less than chitosan solution alone (P <0.0001).
The highest electrical conductivity is related to Chitosan solution of
marshmallow extract is 20% and PEO is 2.5%. On the other hand,
increasing the concentration of the extract in the nanofibers increases
the surface tension and the tensile test shows that the difference in
the mean mechanical tension between the study groups was significantly
different (P = 0.011) .The FTIR study of the prepared nanofibers shows
no reaction Between marshmallow extract and chitosan and polyethylene
oxide, which leads to the production of new compounds, did not occur. It
was a mixture of biomaterials. Drug release was also performed by
calculating the area under the curve.
Title: Fabrication and Physicochemical characterisation of marshmallow extra-loaded electrospun polymeric nanofibers
Description:
: In this study electrospinning method was used to prepare nanofiber of
chitosan polymer and polyethylene oxide (PEO) solution.
Also marshmallow
extract as a useful medicinal plant was loaded to it in different
concentrations .
Optimal electrospinning conditions included a feed rate
of 0.
5 ml / h, a voltage of 10 kV, a needle-to-collector distance of 200
mm and a collector rzzzotation speed of RPM200.
SEM images of nanofibers
prepared with marshmallow extract loaded show a network structure of
non-woven fibers with no spheres and the difference between the mean
diameters of their fibers was not significantly different (P = 0.
315).
Viscosity measurements show that the lowest viscosity is related to
2.
5% chitosan solution and 10% marshmallow extract, which is
significantly less than chitosan solution alone (P <0.
0001).
The highest electrical conductivity is related to Chitosan solution of
marshmallow extract is 20% and PEO is 2.
5%.
On the other hand,
increasing the concentration of the extract in the nanofibers increases
the surface tension and the tensile test shows that the difference in
the mean mechanical tension between the study groups was significantly
different (P = 0.
011) .
The FTIR study of the prepared nanofibers shows
no reaction Between marshmallow extract and chitosan and polyethylene
oxide, which leads to the production of new compounds, did not occur.
It
was a mixture of biomaterials.
Drug release was also performed by
calculating the area under the curve.
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