Advanced Functional Materials,
Год журнала:
2024,
Номер
unknown
Опубликована: Май 15, 2024
Abstract
In
addressing
the
challenge
of
hypoxia
within
tumor
microenvironment
(TME),
a
significant
obstacle
to
effective
cancer
therapy,
this
research
introduces
pioneering
nanozyme
engineered
utilize
water
and
oxygen
as
reactants.
Utilizing
ultrasonic
piezoelectricity,
converts
these
substrates
into
(O
2
)
reactive
species,
thereby
amplifying
oxidative
stress
without
relying
on
endogenous
H
O
.
This
approach
involves
strategic
engineering
porous
ZnSnO
v
:Mn
nanosheets
(named
MZSO
NSs),
which
are
distinguished
by
oxygen‐rich
vacancies
enhanced
piezoelectric
properties.
breakthrough
represents
initial
attempt
merge
catalytic
activities
akin
catalase
(CAT)
with
electrocatalytic
evolution
reaction
(OER),
confirmed
through
both
enzymatic
reactions
electrochemical
voltammetric
analysis.
The
predominant
mechanism
ultrasound‐augmented
generation
in
is
identified
hole‐induced
OER.
Supporting
theoretical
analyses
clarify
synergistic
impact
Mn
doping
dynamics
carriers
OER
process,
leading
notable
increase
efficiency.
These
findings
highlight
potential
piezoelectric‐enhanced
electrocatalysts
alleviate
TME,
providing
novel
insights
development
acoustic
sensitizers
for
treatment
cancer.
Journal of Nanobiotechnology,
Год журнала:
2024,
Номер
22(1)
Опубликована: Фев. 18, 2024
Abstract
Two-dimensional
nanomaterials
(2D
NMs),
characterized
by
a
large
number
of
atoms
or
molecules
arranged
in
one
dimension
(typically
thickness)
while
having
tiny
dimensions
the
other
two
dimensions,
have
emerged
as
pivotal
class
materials
with
unique
properties.
Their
flat
and
sheet-like
structure
imparts
distinctive
physical,
chemical,
electronic
attributes,
which
offers
several
advantages
biomedical
applications,
including
enhanced
surface
area
for
efficient
drug
loading,
surface-exposed
allowing
precise
chemical
modifications,
ability
to
form
hierarchical
multilayer
structures
synergistic
functionality.
Exploring
their
nano-bio
interfacial
interactions
biological
components
holds
significant
importance
comprehensively
systematically
guiding
safe
applications.
However,
current
lack
in-depth
analysis
comprehensive
understanding
effects
on
cancer
treatment
motivates
our
ongoing
efforts
this
field.
This
study
provides
survey
recent
advances
utilizing
2D
NMs
treatment.
It
insights
into
structural
characteristics,
synthesis
methods,
modifications
diverse
NMs.
The
investigation
further
delves
formation
interfaces
during
vivo
utilization.
Notably,
discusses
wide
array
applications
With
potential
revolutionize
therapeutic
strategies
outcomes,
are
poised
at
forefront
treatment,
holding
promise
transformative
advancements.
Graphical
Nanoscale Horizons,
Год журнала:
2024,
Номер
9(3), С. 365 - 383
Опубликована: Янв. 1, 2024
New
evidence
for
piezoelectric
nanomaterials
across
energy
harvesting,
piezocatalysis,
and
biomedicine
fields,
guiding
supporting
future
drug
delivery
system
development.
Advanced Functional Materials,
Год журнала:
2024,
Номер
34(33)
Опубликована: Май 16, 2024
Abstract
Piezocatalysts,
because
of
their
mechano‐electrical
conversion
properties,
are
exploited
for
various
medical
applications,
such
as
sterilization,
tissue
engineering,
biosensing,
and
disease
theranostics.
In
particular,
based
on
the
unique
advantage
piezoelectric
effect,
piezocatalytic
therapy
(PCT)
has
been
developed
a
novel
promising
candidate
tumor
therapy.
To
optimize
utilization
piezocatalysts
in
therapy,
comprehensive
understanding
antitumor
mechanism
associated
with
these
materials
is
imperative.
Here,
action
principle
elucidated
by
investigating
piezocatalysts,
reactants,
energy
inputs,
products.
Subsequently,
mechanisms
PCT
have
extensively
discussed
recapitulative
follows:
restraining
cell
proliferation,
inducing
programmed
death,
hindering
metastasis,
inhibiting
angiogenesis,
enhancing
immunity.
Additionally,
optimized
therapeutic
outcomes
PCT‐centric
synergistic
cancer
systematically
described.
Finally,
main
challenges
future
research
directions
piezocatalysis
applied
envisioned.
It
believed
that
will
serve
new‐generation
ingenious
tool
treatment.
Advanced Materials Technologies,
Год журнала:
2024,
Номер
unknown
Опубликована: Сен. 13, 2024
Abstract
Piezoelectric
composites
have
received
widespread
attentions
in
the
fields
of
biomedicine
and
vitro
wearable
devices
due
to
their
ability
convert
mechanical
forces
into
charge
signals.
The
preparation
piezoelectric
with
complex
structures
through
3D
printing
technology
can
not
only
effectively
improve
output,
but
also
enable
customized
therapeutic
applications.
This
paper
first
introduces
types
reviews
commonly
used
preparation,
analyzing
advantages
disadvantages
each
technology.
Then,
state‐of‐the‐art
biomedical
applications
composites,
including
drug
sustained‐release,
wound
healing
promotion,
bone
tissue
cells
growth
promoting,
neurorehabilitation
stimulating,
ultrasonic
diagnosis,
vivo
biosensing
sensing,
are
emphasized.
Finally,
main
factors
affecting
printed
outlooked,
an
in‐depth
discussion
on
challenges
toward
analyzed.
review
is
believed
provide
some
fundamental
knowledge
composites.
Chemical Society Reviews,
Год журнала:
2025,
Номер
unknown
Опубликована: Янв. 1, 2025
Regulating
the
ferroelectric
polarization
in
catalysts
is
an
emerging
strategy
to
advance
water
splitting
reactions,
with
merits
of
high
charge
transfer
rate,
creation
real
active
sites,
and
optimizing
chemisorption
energy.
Journal of Nanobiotechnology,
Год журнала:
2024,
Номер
22(1)
Опубликована: Июнь 8, 2024
Abstract
Mitochondria
occupy
a
central
role
in
the
biology
of
most
eukaryotic
cells,
functioning
as
hub
oxidative
metabolism
where
sugars,
fats,
and
amino
acids
are
ultimately
oxidized
to
release
energy.
This
crucial
function
fuels
variety
cellular
activities.
Disruption
mitochondrial
is
common
feature
many
diseases,
including
cancer,
neurodegenerative
conditions
cardiovascular
diseases.
Targeting
tumor
cell
with
multifunctional
nanosystems
emerges
promising
strategy
for
enhancing
therapeutic
efficacy
against
cancer.
review
comprehensively
outlines
pathways
metabolism,
emphasizing
their
critical
roles
energy
production
metabolic
regulation.
The
associations
between
aberrant
initiation
progression
cancer
highlighted,
illustrating
how
these
disruptions
contribute
oncogenesis
sustainability.
More
importantly,
innovative
strategies
employing
nanomedicines
precisely
target
therapy
fully
explored.
Furthermore,
key
challenges
future
directions
this
field
identified
discussed.
Collectively,
provides
comprehensive
understanding
current
state
potential
nanomedicine
targeting
offering
insights
developing
more
effective
therapies.
Advanced Materials,
Год журнала:
2024,
Номер
36(50)
Опубликована: Ноя. 6, 2024
Abstract
Oxidative
stress,
predominantly
from
neuronal
mitochondrial
damage
and
the
resultant
cytokine
storm,
is
central
to
cerebral
ischemia‐reperfusion
injury
(CIRI).
However,
delivering
drugs
mitochondria
remains
challenging
due
blood‐brain
barrier
(BBB),
which
impedes
drug
entry
into
affected
brain
tissues.
This
study
introduces
an
innovative
tannic
acid
(TA)
melanin‐modified
heteropolyacid
nanomedicine
(MHT),
highly
specifically
eliminates
reactive
oxygen
radicals
burst
efficiently
reduce
through
a
strategically
designed
sequential
targeting
strategy
tissue
mitochondria.
TA
endows
MHT
with
ability
by
binding
matrix
proteins
exposed
damaged
BBB
outer
membrane
of
neurons,
while
melanin
significantly
enhances
antioxidant
capacity
MHT.
Consequently,
effectively
inhibits
apoptosis
protecting
reversing
inflammatory
immune
environment
deactivation
cyclic
GMP‐AMP
synthase–stimulator
interferon
genes
(cGAS‐STING)
pathway.
demonstrated
strong
therapeutic
effect
on
CIRI,
ultralow
dose
(2
mg
kg
−1
)
proving
effective
in
condition.
work
not
only
new
avenue
CIRI
therapy
but
also
offers
paradigm
for
treating
other
diseases.
Advanced Materials,
Год журнала:
2024,
Номер
unknown
Опубликована: Июль 24, 2024
Abstract
The
manipulation
of
cell
surface
receptors’
activity
will
open
a
new
frontier
for
drug
development
and
disease
treatment.
However,
limited
by
the
desensitization
drugs,
effective
physical
intervention
strategy
remains
challenging.
Here,
controllable
internalization
transient
receptor
potential
vanilloid
1
(TRPV1)
on
neural
cells
local
piezoelectric
field
is
reported.
Single‐cell‐level
electric
construct
synthesizing
BiOIO
3
nanosheets
(BIONSs).
Upon
mild
ultrasound
0.08
W
cm
−2
,
an
15.29
µV
generated
BIONSs,
further
inducing
TRPV1
in
5
min.
as‐downregulated
expression
results
reduction
Ca
2+
signal
spinal
neuron
inhibition
wide
range
dynamic
neurons,
therefore
effectively
preventing
transmission
cancer‐induced
bone
pain
(CIBP).
This
not
only
charts
course
CIBP
alleviation,
but
also
introduces
promising
nanotechnology
regulating
receptors,
showing
significant
neuropathological
receptor‐related
diseases.
Journal of Functional Biomaterials,
Год журнала:
2025,
Номер
16(4), С. 114 - 114
Опубликована: Март 24, 2025
Cancer
significantly
impacts
human
quality
of
life
and
expectancy,
with
an
estimated
20
million
new
cases
10
cancer-related
deaths
worldwide
every
year.
Standard
treatments
including
chemotherapy,
radiotherapy,
surgical
removal,
for
aggressive
cancers,
such
as
glioblastoma,
are
often
ineffective
in
late
stages.
Glioblastoma,
example,
is
known
its
poor
prognosis
post-diagnosis,
a
median
survival
time
approximately
15
months.
Novel
therapies
using
local
electric
fields
have
shown
anti-tumour
effects
glioblastoma
by
disrupting
mitotic
spindle
assembly
inhibiting
cell
growth.
However,
constant
application
poses
risks
like
patient
burns.
Wireless
stimulation
via
piezoelectric
nanomaterials
offers
safer
alternative,
requiring
ultrasound
activation
to
induce
therapeutic
effects,
altering
voltage-gated
ion
channel
conductance
depolarising
membrane
potentials.
This
review
highlights
the
mechanism,
drug
delivery,
activation,
current
technologies
cancer
therapy,
emphasising
need
further
research
address
limitations
biocompatibility
whole
systems.
The
goal
underscore
these
areas
inspire
avenues
overcome
barriers
developing
nanoparticle-based
therapies.
Abstract
The
efficacy
of
sonodynamic
therapy
(SDT)
mainly
relies
on
the
sonosensitizers,
which
generate
reactive
oxygen
species
(ROS)
upon
ultrasound
(US)
stimulation.
However,
limited
availability
high‐efficiency
sonosensitizers
hampers
therapeutic
effectiveness
SDT
as
a
standalone
modality.
In
this
work,
robust
and
gas
cancer
platform
is
constructed
based
strontium
(Sr)
doped
barium
titanate
(BST)
piezoelectric
nanoparticles
functionalized
with
L‐arginine
(BST@LA).
doping
Sr
into
A
site
ABO
3
nanocrystals
not
only
introduces
vacancies
enhance
intrinsic
piezoelectricity,
but
also
narrows
semiconductor
band
gap
enhances
charge
carrier
migration,
all
facilitate
production
superoxide
anion
(•O
2
−
)
hydroxyl
radical
(•OH).
addition,
generated
ROS
promotes
decomposition
surface‐tethered
LA,
enabling
controlled
release
nitric
oxide
(NO)
at
tumor
site,
thereby
achieving
combination
effect.
vivo
experiments
exhibit
remarkable
suppression
rate
(89.5%)
in
4T1
mice
model,
demonstrating
strategy.
ion
vacancy
engineering
to
improve
along
synergistic
therapy,
provides
promising
avenues
for
improving
therapy.