Eco-friendly organic nanomaterials for multifunctional textiles: sources, applications, recent advances and future prospects towards sustainability
International Journal of Environmental Science and Technology,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 8, 2025
Language: Английский
Emerging Progress in Nanotechnological Influence on Polymeric Textile Finishing
Recent Progress in Materials,
Journal Year:
2025,
Volume and Issue:
07(02), P. 1 - 68
Published: May 27, 2025
Nanotechnology
has
revolutionized
the
textile
industry
by
introducing
innovative
finishing
techniques
that
enhance
durability
and
performance
of
materials
application
nanoscale/nanoparticles/nanomaterials
processes
to
improve
properties
textiles.
The
synergism
technology
nanotechnological
advancements
propelled
a
paradigm
shift,
changed
narrative,
formed
novel
platforms
for
surface
engineering
at
both
atomically
affiliated
molecular-metric
levels,
resulting
in
exceptional
enhancements
functionalities,
performance,
aesthetic
appearance.
Escalating
advances
nanotechnology
have
critically
influenced
evolutions
segment,
directly
impacting
finishing.
Prospective
applications
finishes
demonstrate
an
endless
melimitation
scope
varieties,
from
intelligent
sensors
drug
delivery,
enhanced
fire
safety
water
repellency,
self-repairing
cleaning
attributes,
manufacturing
durable
multifunctional
textiles
host
applications.
Hence,
this
paper
presents
emerging
trends
finishes.
Language: Английский
Eco-Friendly Octylsilane-Modified Amino-Functional Silicone Coatings for a Durable Hybrid Organic–Inorganic Water-Repellent Textile Finish
Mariam Hadhri,
No information about this author
Claudio Colleoni,
No information about this author
Agnese D’Agostino
No information about this author
et al.
Polymers,
Journal Year:
2025,
Volume and Issue:
17(11), P. 1578 - 1578
Published: June 5, 2025
The
widespread
phase-out
of
long-chain
per-
and
poly-fluoroalkyl
substances
(PFASs)
has
created
an
urgent
need
for
durable,
fluorine-free
water-repellent
finishes
that
match
the
performance
legacy
chemistries
while
minimising
environmental
impact.
Here,
eco-friendly
hybrid
organic–inorganic
treatment
obtained
by
in
situ
hydrolysis–condensation
triethoxy(octyl)silane
(OS)
amino-terminated
polydimethylsiloxane
(APT-PDMS)
aqueous
dispersion
was
investigated.
sol
applied
to
plain-weave
cotton
polyester
a
pad-dry-cure
process
benchmarked
against
commercial
fluorinated
finish.
Morphology
chemistry
were
characterised
SEM–EDS,
ATR-FTIR,
Raman
spectroscopy;
wettability
assessed
static
contact
angle,
ISO
4920
spray
ratings,
AATCC
193
water/alcohol
repellence;
durability,
handle,
breathability
evaluated
through
repeated
laundering,
bending
stiffness,
water-vapour
transmission
rate
measurements.
silica/PDMS
coating
formed
uniform,
strongly
adherent
nanostructured
layer
conferring
angles
130°
on
145°
polyester.
After
five
105-C10
wash
cycles,
treated
fabrics
still
displayed
rating
5/5
grade
7,
outperforming
or
equalling
control,
causing
≤5%
loss
permeability
only
marginal
increase
stiffness.
These
results
demonstrate
proposed
one-step,
water-borne
sol–gel
affords
sustainable,
industrially
scalable
route
high-performance,
both
natural
synthetic
textiles,
offering
viable
alternative
PFAS-based
outdoor
apparel
technical
applications.
Language: Английский