Journal of Biomaterials Science Polymer Edition,
Journal Year:
2024,
Volume and Issue:
unknown, P. 1 - 22
Published: Nov. 7, 2024
This
study
aims
to
prepare,
characterize,
and
evaluate
zinc
oxide
nanoscaffolds
(ZnO
NSs)
as
a
potential
anticancer
drug
that
selectively
targets
malignant
cells
while
remaining
non-toxic
normal
cells.
Electrospun
NSs
were
fabricated
loaded
with
varying
concentrations
of
ZnO
nanoparticles
(NPs).
The
uniform
morphology
the
samples
was
confirmed
through
Field
Emission
Scanning
Electron
Microscope
(FESEM)
imaging.
Elemental
composition
investigated
using
Energy
Dispersive
X-ray
spectroscopy
(EDX),
Fourier
Transform
Infrared
(FTIR),
diffraction
(XRD)
analyses.
Biocompatibility
cytotoxicity
assessed
(3-(4.5-dimethylthiazol-2-yl)-2,5-diphenyltetrazolium
bromide
assay)
(MTT)
assay
flow
cytometry.
water
uptake
degradation
properties
electrospun
also
examined.
Furthermore,
cumulative
release
profile
generated
assess
behavior
NSs.
prepared
demonstrated
negligible
toxicity
toward
human
dermal
Conversely,
four
used
displayed
substantial
induced
apoptosis
in
various
cancer
cell
lines.
observed
effects
concentration-dependent.
Notably,
8%
exhibited
most
significant
reduction
viability
against
MCF7
line.
findings
from
this
indicate
an
effective
agent,
demonstrating
pronounced
impact.
research
introduces
novel
application
nanoscaffolds,
their
capacity
for
selective
activity,
particularly
breast
carcinoma,
preserving
viability.
presents
advancement
use
nanomaterial
targeted
therapy.
European journal of medical research,
Journal Year:
2025,
Volume and Issue:
30(1)
Published: Feb. 4, 2025
Abstract
Brain
tumor
treatment
remains
a
significant
challenge
due
to
their
high
mortality
and
resistance
current
therapies.
This
paper
discusses
the
promising
potential
of
hydrogel-based
nanoparticles
as
innovative
drug
delivery
systems
for
brain
therapy.
Extensive
characterization
techniques
reveal
ability
these
Nano-systems
demonstrate
prolonged
blood
circulation
targeted
delivery,
leading
improved
survival
rates.
Designed
with
optimized
physicochemical
characteristics,
effectively
cross
blood–brain
barrier,
circumventing
major
impediment
brain.
By
delivering
drugs
directly
bed,
enhance
therapeutic
outcomes
minimize
adverse
effects.
In
addition,
this
review
investigates
characterizing,
visualizing,
modifying
nanoparticles,
well
standing
challenges
research
avenues
clinical
application.
Further
investigations
are
encouraged
by
investigate
advancements
in
nanoparticle
approaches
tumors.
includes
investigating
tailored
hydrogels,
hybrid
systems,
computational
modeling,
integration
gene
therapy
immunotherapy
techniques.
The
study
also
addresses
need
enhanced
synthesis
techniques,
stability,
scalability,
cost-cutting
measures
overcome
obstacles
advance
use
treating
Graphical
abstract
Discover Nano,
Journal Year:
2024,
Volume and Issue:
19(1)
Published: Feb. 14, 2024
Abstract
Chemoresistance
and
severe
toxicities
represent
major
drawbacks
of
chemotherapy.
Natural
extracts,
including
the
essential
oils
Pistacia
lentiscus
(PLEO),
exhibit
substantial
anticancer
anti-inflammatory
activities
where
different
cancers
are
reported
to
dramatically
recess
following
targeting
with
PLEO.
PLEO
has
promising
antimicrobial,
anticancer,
properties.
However,
therapeutic
properties
restricted
by
limited
stability,
bioavailability,
ability.
nanoformulation
can
maximize
their
physicochemical
properties,
overcoming
shortcomings.
Hence,
was
extracted
its
chemical
composition
determined
GC–MS.
5-Fluorouracil
(5FU)
were
electrospun
into
poly-ε-caprolactone
nanofibers
(PCL-NFs),
290.71
nm
680.95
diameter,
investigate
potential
synergistic
against
triple-negative
breast
cancer
cells
(MDA-MB-231),
human
adenocarcinoma
(MCF-7),
skin
melanoma
cell
line
(A375).
The
prepared
(NFs)
showed
enhanced
thermal
stability
remarkable
physical
integrity
tensile
strength.
Biodegradability
studies
prolonged
over
42
days,
supporting
NFs
use
as
a
localized
therapy
tissues
(postmastectomy)
or
melanoma.
Release
revealed
sustainable
release
behaviors
168
h,
higher
released
amounts
5FU
at
pH
5.4,
indicating
abilities
towards
tissues.
loaded
strong
antioxidant
Finally,
either
depicted
greater
compared
free
compounds.
highest
observed
co-loaded
5FU.
developed
5FU-PLEO-PCL-NFs
hold
local
treatment
(post-mastectomy)
minimize
possible
recurrence.
Graphical
Pharmaceutics,
Journal Year:
2024,
Volume and Issue:
16(8), P. 1017 - 1017
Published: July 31, 2024
Over
the
last
decade,
scientists
have
shifted
their
focus
to
development
of
smart
carriers
for
delivery
chemotherapeutics
in
order
overcome
problems
associated
with
traditional
chemotherapy,
such
as
poor
aqueous
solubility
and
bioavailability,
low
selectivity
targeting
specificity,
off-target
drug
side
effects,
damage
surrounding
healthy
tissues.
Nanofiber-based
systems
recently
emerged
a
promising
system
cancer
therapy
owing
unique
structural
functional
properties,
including
tunable
interconnected
porosity,
high
surface-to-volume
ratio
entrapment
efficiency
loading
capacity,
mass
transport
which
allow
controlled
targeted
delivery.
In
addition,
they
are
biocompatible,
biodegradable,
capable
surface
functionalization,
allowing
target-specific
release.
One
most
common
fiber
production
methods
is
electrospinning,
even
though
relatively
two-dimensional
(2D)
tightly
packed
structures
rates
limited
its
performance.
Forcespinning
an
alternative
spinning
technology
that
generates
high-throughput,
continuous
polymeric
nanofibers
3D
structures.
Unlike
forcespinning
fibers
by
centrifugal
forces
rather
than
electrostatic
forces,
resulting
significantly
higher
production.
The
functionalization
nanocarriers
on
can
result
anticancer
capabilities
be
activated
external
stimuli,
light.
This
review
addresses
current
trends
potential
applications
light-responsive
dual-stimuli-responsive
electro-
forcespun
therapy,
particular
emphasis
functionalizing
nanofiber
surfaces
developing
nano-in-nanofiber
emerging
dual-controlled
release
high-precision
tumor
targeting.
progress
prospective
diagnostic
therapeutic
discussed
context
combination
therapy.
International Journal of Polymeric Materials,
Journal Year:
2024,
Volume and Issue:
unknown, P. 1 - 19
Published: May 5, 2024
In
the
modern
healthcare
system,
therapeutic
options
of
cancer
management
have
gained
much
attention.
Several
chemotherapeutic
agents
and
anticancer
drugs
are
in
use
to
combat
many
them
shown
promising
results.
The
direct
targeting
may
enhance
side
effects
limit
efficacy
agents.
various
drug
carriers
investigated
for
successful
moieties.
Amongst
several
carriers,
nanofibers
recently
being
by
researchers
due
their
favorable
physicochemical
properties,
increased
surface
area,
ability
control
release
molecules
at
target
site.
Chitosan,
a
biodegradable
marine
polysaccharide,
offers
excellent
biocompatibility
alongside
decreased
immunogenicity
easy
large
scale
production.
Chitosan
easily
prepared
employing
electrospinning
other
techniques.
This
review
focuses
on
fabrication
techniques,
suitability
chitosan
tumor
microenvironment
recent
advancements
effective
targeting.
Polymers for Advanced Technologies,
Journal Year:
2025,
Volume and Issue:
36(5)
Published: May 1, 2025
ABSTRACT
Nanofiber‐based
drug
delivery
systems
show
strong
potential
due
to
their
high
surface
area‐to‐volume
ratio
and
adjustable
structure.
Recent
studies
demonstrated
loading
efficiencies
exceeding
85%,
with
sustained
release
kinetics
up
96
h.
In
cancer
models,
nanofiber‐based
carriers
improved
accumulation
at
tumor
sites
by
3–4
fold
compared
conventional
formulations,
enhancing
therapeutic
efficacy
minimizing
systemic
toxicity.
This
review
outlines
methods
for
precise
nanofiber
shape
function
control
through
electrospinning
solution
blow
spinning
techniques.
advancements
in
technology
have
proven
promising
biomedical
applications
where
they
are
utilized
tissue
engineering,
neurodegenerative
disease
management,
wound
healing,
targeted
therapy.
Nanofibers
as
an
optimal
system
that
improves
cellular
restoration,
together
controlled
deep
penetration
capabilities.
The
recent
development
of
dual‐drug
systems,
stimuli‐responsive
nanofibers,
scaffolds
composed
nanofibers
smart
materials
has
expanded
usage
precision
medicine.
Research
now
demonstrates
facilitate
remodeling
functions
along
angiogenesis
promotion,
inflammatory
response
stability
improvement.
also
focuses
on
the
patents
a
system.
addition,
this
presents
new
approaches
overcome
these
challenges
based
interdisciplinary
cooperation,
AI‐driven
design
such
sophisticated
bioinformatics
tools.
review,
advances
prospects
realizing
revolution
field
improving
healthcare
outcomes
presented
detailed
overview.