AATCC Journal of Research,
Journal Year:
2025,
Volume and Issue:
12(1)
Published: Jan. 1, 2025
In
this
study,
the
characteristic
properties
and
biological
activities
of
electrospun
nanofibers
made
polymers
including
chitosan
(CS),
polyethylene
glycol
(PEG),
polylactic
acid
(PLA)
loaded
with
15%
a
natural
anti-inflammatory
analgesic
agent,
ethyl
p-methoxycinnamate
(EPMC),
were
reported.
The
morphological
chemical
characteristics
fibers
analyzed
using
scanning
electron
microscope
Fourier
transform
infrared
spectra,
respectively.
mechanical
hydrophilicity
also
investigated.
Research
on
release
bioactive
compound
EPMC
from
in
phosphate-buffered
saline
medium
showed
that
about
70%
was
released
after
24
h.
significant
effect
evaluated
via
inhibition
nitric
oxide
production
RAW264.7
cells
stimulated
by
lipopolysaccharide
an
IC
50
value
41.05
±
1.75
µg/mL.
Besides,
exhibited
anti-bacterial
activity
proved
to
be
safe
both
vitro
vivo.
results
suggested
CS/PEG/PLA
may
potential
candidate
for
developing
biomedical
products
related
inflammation.
Wiley Interdisciplinary Reviews Nanomedicine and Nanobiotechnology,
Journal Year:
2024,
Volume and Issue:
16(3)
Published: May 1, 2024
Abstract
The
shapes
of
micro‐
and
nano‐products
have
profound
influences
on
their
functional
performances,
which
has
not
received
sufficient
attention
during
the
past
several
decades.
Electrohydrodynamic
atomization
(EHDA)
techniques,
mainly
include
electrospinning
electrospraying,
are
facile
in
manipulate
products'
shapes.
In
this
review,
generated
using
EHDA
for
modifying
drug
release
profiles
reviewed.
These
linear
nanofibers,
round
micro‐/nano‐particles,
beads‐on‐a‐string
hybrids.
They
can
be
further
divided
into
different
kinds
sub‐shapes,
explored
providing
desired
pulsatile
release,
sustained
biphasic
delayed
pH‐sensitive
release.
Additionally,
resulted
from
organizations
electrospun
nanofibers
discussed
delivery,
inner
structures
considered
together
developing
novel
delivery
systems.
future,
related
shape–performance
relationships
at
nanoscale,
besides
size,
structure
structure–performance
relationships,
would
play
important
roles
promoting
developments
field.
This
article
is
categorized
under:
Therapeutic
Approaches
Drug
Discovery
>
Emerging
Technologies
Advanced Functional Materials,
Journal Year:
2024,
Volume and Issue:
34(26)
Published: Feb. 29, 2024
Abstract
Man‐made
superhydrophobic
membranes
are
of
interest
for
various
applications
in
energy,
environment,
and
medical
fields.
However,
simultaneously
achieving
durable
superhydrophobicity,
robust
waterproofness,
high
breathability
the
is
still
challenging.
Herein,
an
efficient
powerful
strategy
reported
to
create
with
perdurable
liquid
repellency
via
combining
humidity‐induced
electrospinning
coat‐crosslinking
technology.
The
micro/nano
rough
structure
situ
constructed
based
on
manipulating
phase
separation
electrospun
jets;
meanwhile,
waterborne
acrylic
resins
bridged
surface
nanofiber
endow
stable
low
energy
coating
crosslinking
treatment.
Eventually,
resultant
present
superhydrophobicity
a
water
contact
angle
≈154°,
good
self‐cleaning
anti‐icing
properties,
waterproofness
83.4
kPa,
3.71
kg
m
−2
d
−1
.
More
interestingly,
nanomaterials
can
maintain
even
after
exposure
severe
conditions.
successful
creation
high‐performance
opens
new
avenue
synthesizing
advanced
functional
materials
application
variety
Nature Communications,
Journal Year:
2024,
Volume and Issue:
15(1)
Published: July 30, 2024
Incorporating
passive
heating
structures
into
personal
thermal
management
technologies
could
effectively
mitigate
the
escalating
energy
crisis.
However,
current
materials
struggle
to
balance
thickness
and
insulating
capability,
resulting
in
compromised
comfort,
space
efficiency,
limited
thermoregulatory
performance.
Here,
a
dual
air-gelation
strategy,
is
developed
directly
synthesize
ultrathin
self-sustainable
metafabric
with
3D
dual-network
structure
during
electrospinning.
Controlling
interactions
among
polymer,
solvent,
water
enables
microphase
separation
of
charged
jets,
while
adjusting
distribution
carbon
black
nanoparticles
within
fluids
form
fibrous
networks
composed
interlaced
aerogel
micro/nanofibers
heat
storage
capabilities.
With
low
0.18
mm,
integrated
exhibits
exceptional
insulation
performance
(15.8
mW
m−1K−1),
superhydrophobicity,
enhanced
mechanical
properties,
high
breathability
maintaining
radiative
ability
(long-lasting
warming
8.8
°C).
This
strategy
provides
rich
possibilities
develop
advanced
for
smart
textiles
management.
Aerogels
have
application
due
their
fragility
poor
processability.
authors
an
aerogel-structured
micro/nanofiber
self-sustained
by
developing
strategy.
Advanced Functional Materials,
Journal Year:
2024,
Volume and Issue:
34(27)
Published: Feb. 21, 2024
Abstract
Maintaining
human
body
temperature
under
low
is
crucial
to
well‐being,
thereby
urgently
requiring
for
high‐performance
warmth
retention
materials.
However,
designing
such
materials
with
both
mechanical
robustness
and
warming
up
the
complex
changing
outdoor
environments
remains
challenging.
Here,
a
dual‐network
structured
aerogel
micro‐nanofiber/MXene
sponge
directly
synthesized
by
synchronous
occurrence
of
electrospinning
electrospraying.
Tailoring
phase
inversion
solution
jet
creates
micro‐nanofibers
highly
porous
structures,
which
exhibit
nanoscale
aperture
(30–60
nm)
high
single
fiber
surface
aera
(56.5
m
2
g
−1
).
Under
strong
hydrogen
bonding
interaction,
structures
are
constructed
chemical
entanglement
between
self‐assembled
MXene
networks,
achieving
robust
stretchable
compressible
property.
The
nanopores
cause
Knudsen
effect
suppress
slippage
air
molecules,
enhancing
unique
capacity
block
heat
energy.
Further
integrating
passive
radiative
heating
active
performance
as‐designed
offers
an
all‐day
personal
system
rise
skin
over
3.5
°C.
This
work
may
provide
new
candidates
applications
within
aerospace,
energy,
transportation,
building.
Journal of Inorganic and Organometallic Polymers and Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 13, 2025
Abstract
This
review
explores
the
pivotal
roles
of
two
advanced
nanotechnologies—electrospinning
(ES)
and
fluorescent
organic
nano-dots
(FONs)
in
development
application
organoluminophores
(OLs).
As
demand
intensifies
for
innovative
OL-based
systems
fields
such
as
biomedical
imaging,
drug
delivery,
materials
engineering,
sensing,
energy,
ES
FONs
present
complementary
yet
distinct
technological
pathways.
Each
method
offers
unique
advantages
optimizing
material
properties,
compatibility,
optical
performance,
positioning
them
at
forefront
research.
enables
precise
control
over
structure,
enhancing
performance
scalable
industrial
applications.
deliver
superior
particularly
bio-imaging,
through
environmentally
friendly
synthesis.
comparative
analysis
critically
examines
strengths
limitations
both
techniques,
including
aspects
synthesis
complexity,
adaptability,
functional
enhancement,
utilization.
Furthermore,
recent
advancements,
ongoing
challenges,
future
prospects
within
this
rapidly
evolving
field
are
discussed,
providing
a
comprehensive
perspective
on
potential
these
luminescent
technologies
to
drive
next-generation
OL
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