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Journal of Materials Science and Nanotechnology | Volume 3

October 07-08, 2019 | Frankfurt, Germany

Materials Science and Engineering

3

rd

International Conference on

Mater Sci Nanotechnol, Volume 3

Approaches about numerical simulation of surface engineering for some natural polymer

fibrous system

Vrinceanu Narcisa

Lucian Blaga University of Sibiu, Romania

S

urfaces of bamboo derived cellulosic fibrous systems have

been modified by air-plasma treatment.

Their deformational response was studied to establish the

relationship between their three-dimensional profile and

permanent deformation as a measure of their comfort

properties since the fibrous system made of natural polymer

comes into contact with the skin. The composite should

have a permanent deformation close to zero, in order to be,

in terms of dimensions, as stable as possible. By analyzing

the area of 1 cm

2

using a Universal Surface Tester (UST),

different 3D surface diagrams and surface roughness values

were obtained. This type of surface investigation provides

relevant information about the permanent deformation

response of the studied surface, for comfort purposes. The

deformation responses and roughness levels were studied

(the roughness being the parameter quantifying the 3D

geometry of the systems surface). The effect of air-plasma

surfacemodification on the deformation response of bamboo

derived cellulosic fibrous systems and optimization of their

3D surface structure to enhance comfort-related properties

proved to be substantial. The surface modifications induced

by air-plasma treatment are in a good correlation with the

mechanical behavior. As expected, the roughness levels of

samples studied, using ball sensors are higher than those of

specimens scanned using a papillary sensor. Knitted polymer

fibrous matrix T1 shows a roughness level of 773 μm resulting

from analyses using the ball sensor, while using the papillary

sensor it was 102 μm, 86.8% less than before. The analysis of

the dimensional stability of knitted polymer fibrous systems

was performed by scanning with the papillary sensor, since

it provides information comparable with human perception

concerning the architecture of the sample surfaces.

Speaker Biography

Vrinceanu Narcisa has completed her PhD at the age of 30 years from

“Gh. Asachi” Technical University of Iasi, Romania. She completed a

post-doc programme of three years at “Al.I.Cuza” University of Iasi,

Romania, in the field of Nanotechnology and Materials Chemistry in

Environment Protection. She is working as Lecturer at “L.Blaga” University

of Sibiu, Romania, with the main subjects: Textile Fibers Investigation,

Garments Comfort, Textile Engineering, Conventional and non-standard

Textile Finishing, Environment Chemistry, Transfer Phenomena, Basics

of Chemistry. She has expertise in research-development-innovation

projects at “L.Blaga” University of Sibiu, Romania. She has more than 200

publications that have been cited over 200 times, with an H-index of 6 and

has been serving as an editorial board member of reputed Journals.

e:

vrinceanu.narcisai@ulbsibiu.ro