Polymers,
Год журнала:
2022,
Номер
14(8), С. 1508 - 1508
Опубликована: Апрель 7, 2022
Electrospun
techniques
are
promising
and
flexible
technologies
to
fabricate
ultrafine
fiber/nanofiber
materials
from
diverse
with
unique
characteristics
under
optimum
conditions.
These
fabricated
fibers/nanofibers
via
electrospinning
can
be
easily
assembled
into
several
shapes
of
three-dimensional
(3D)
structures
combined
other
nanomaterials.
Therefore,
electrospun
nanofibers,
their
structural
functional
advantages,
have
gained
considerable
attention
scientific
communities
as
suitable
candidates
in
biomedical
fields,
such
the
regeneration
tissues
organs,
where
they
mimic
network
structure
collagen
fiber
its
natural
extracellular
matrix(es).
Due
these
special
features,
has
been
revolutionized
a
successful
technique
nanomaterials
polymer
media.
this
review
reports
on
recent
progress
nanofibers
applications
various
bone
cell
proliferation,
nerve
regeneration,
vascular
tissue,
skin
engineering.
The
functionalization
different
furnishes
them
properties
enhance
employment
fields
applications.
Finally,
we
highlight
challenges
outlooks
improve
application
Metal-Organic
Frameworks
(MOFs)
are
versatile
materials
with
tailorable
structures,
high
surface
areas,
and
controlled
pore
sizes,
making
them
ideal
for
gas
storage,
separation,
catalysis,
notably
wastewater
treatment
by
removing
pollutants
like
antibiotics
heavy
metals.
Functionalization
enhances
their
applications
in
energy
conversion
environmental
remediation.
Despite
challenges
stability
cost,
ongoing
innovation
MOFs
contributes
to
the
circular
economy
aligns
Sustainable
Development
Goals.
Journal of Functional Biomaterials,
Год журнала:
2025,
Номер
16(1), С. 28 - 28
Опубликована: Янв. 16, 2025
The
application
of
three-dimensional
(3D)
printing/bioprinting
technologies
and
cell
therapies
has
garnered
significant
attention
due
to
their
potential
in
the
field
regenerative
medicine.
This
paper
aims
provide
a
comprehensive
overview
3D
technology
therapies,
highlighting
results
diverse
medical
applications,
while
also
discussing
capabilities
limitations
combined
use.
synergistic
combination
printing
cellular
been
recognised
as
promising
innovative
approach,
it
is
expected
that
these
will
progressively
assume
crucial
role
treatment
various
diseases
conditions
foreseeable
future.
review
concludes
with
forward-looking
perspective
on
future
impact
technologies,
revolutionize
medicine
through
enhanced
tissue
repair
organ
replacement
strategies.
Macromolecular Rapid Communications,
Год журнала:
2025,
Номер
unknown
Опубликована: Фев. 2, 2025
Abstract
Electrospinning
is
increasingly
used
as
a
staple
technology
for
the
fabrication
of
nano‐
and
micro‐fibers
different
materials.
Most
processes
utilize
direct
current
(DC)
electrospinning,
multitude
DC‐electrospinning
tools
ranging
from
research
to
commercial
production
systems
currently
available.
Yet,
there
are
numerous
studies
performed
on
electrospinning
techniques
utilizing
non‐DC,
periodic
electric
fields,
or
alternating
(AC)
electrospinning.
Those
demonstrate
strong
potential
AC‐electrospinning
sustainable
various
nanofibrous
materials
structures.
Although
tremendous
progress
achieved
in
development
over
last
10
years,
this
technique
remains
uncommon.
This
paper
reviews
concepts,
instrumentation,
technology.
The
main
focus
review
most
studied,
“electric
wind”
driven
tentatively
named
field
(AFES).
latter
term
emphasizes
role
AC
field's
confinement
fiber‐generating
electrode
absence
counter
such
an
system.
synopses
AFES
process
parameters,
spinneret
designs,
benefits
obstacles,
advancements
electrospun
nano/micro‐fibrous
materials/structures
their
applications
given,
future
directions
discussed.
Coatings,
Год журнала:
2022,
Номер
12(5), С. 644 - 644
Опубликована: Май 8, 2022
Fresh
and
processed
meat
products
are
staple
foods
worldwide.
However,
these
considered
perishable
their
deterioration
depends
partly
on
the
inner
external
properties
of
meat.
Beyond
conventional
preservation
approaches,
electrospinning
has
emerged
as
a
novel
effective
alternative
to
develop
active
intelligent
packaging.
Thus,
this
review
aims
discuss
advantages
shortcomings
application
for
quality
safety
products.
Electrospun
fibres
very
versatile,
features
can
be
modulated
deliver
functional
such
antioxidant
antimicrobial
effects
resulting
in
shelf-life
extension
some
cases
product
improvement.
Compared
processes,
electrospun
provide
casting
coating
fabrication
systems,
indicators,
sensors.
The
approaches
improving,
stabilizing,
controlling
release
compounds
highly
sensitive,
rapid,
reliable
responsiveness,
under
changes
real-time
still
challenging
innovative
packaging
development.
Despite
advantages,
restricted
research
not
yet
widely
used
commercial
Industrial
validation
lab-scale
achievements
might
boost
commercialisation.
Safety
must
addressed
by
evaluating
impact
migration
from
package
human
health.
This
information
will
contribute
into
filling
knowledge
gaps
sustain
clear
regulations.
Abstract
The
properties
of
materials
play
a
significant
role
in
triboelectric
nanogenerators
(TENGs).
Advanced
for
TENGs
have
attracted
tremendous
attention
because
their
superior
advantages
(e.g.,
high
specific
surface
area,
porosity,
and
customizable
macrostructure).
These
advanced
can
be
extensively
applied
numerous
fields,
including
energy
harvester,
wearable
electronics,
filtration,
self‐powered
sensors.
Hence,
designing
as
functional
is
important
the
development
TENGs.
Herein,
structural
modification
methods
based
on
electrospinning
to
improve
latest
research
progress
this
kind
are
systematically
summarized.
Preparation
design
trends
nanofibers,
microspheres,
hierarchical
structures,
doping
nanomaterials
highlighted.
factors
influencing
formation
considered.
Furthermore,
applications
elaborated.
Finally,
challenges
discussed,
thereby
guiding
researchers
large‐scale
application
World Journal of Advanced Research and Reviews,
Год журнала:
2024,
Номер
22(1), С. 1908 - 1919
Опубликована: Апрель 30, 2024
The
application
of
nanofiber
technology
in
the
biomedical
field
has
garnered
significant
interest
due
to
its
potential
revolutionize
areas
such
as
tissue
engineering,
wound
healing,
and
antimicrobial
treatments.
This
paper
provides
a
comprehensive
review
recent
advancements
technology,
particularly
focusing
on
electrospinning
3D
printing
methods
that
enable
fabrication
scaffolds
mimicking
native
extracellular
matrix.
These
technologies
have
facilitated
development
nanofibers
with
high
surface-to-volume
ratios,
adjustable
porosity,
enhanced
mechanical
properties,
tailored
meet
specific
needs.
Despite
their
promising
features,
challenges
optimization
pore
size
for
effective
cell
infiltration
robustness
required
hard
regeneration
remain.
also
explores
evolution
sustainable
polymers
from
natural
resources,
highlighting
create
biodegradable
biocompatible
scaffolding
materials.
Future
directions
emphasize
need
cross-disciplinary
collaboration
overcome
current
limitations
scale
production
laboratory
industrial
levels.
ongoing
research
efforts
aim
refine
properties
achieve
optimal
performance
clinical
applications,
underlining
dynamic
evolving
nature
this
field.
