Angewandte Chemie International Edition,
Год журнала:
2024,
Номер
unknown
Опубликована: Сен. 26, 2024
Mild
photothermal
therapy
(MPTT)
has
emerged
as
a
promising
therapeutic
modality
for
attenuating
thermal
damage
to
the
normal
tissues
surrounding
tumors,
while
heat-induced
upregulation
of
heat
shock
proteins
(HSPs)
greatly
compromises
curative
efficacy
MPTT
by
increasing
cellular
thermo-tolerance.
Ferroptosis
been
identified
suppress
overexpression
HSPs
accumulation
lipid
peroxides
and
reactive
oxygen
species
(ROS),
but
is
restricted
overexpressed
glutathione
(GSH)
in
tumor
microenvironment
undesirable
ROS
generation
efficiency.
Herein,
synergistic
strategy
based
on
mutual
enhancement
ferroptosis
proposed
cleaving
recover
cell
sensitivity.
A
facile
method
fabricating
series
Fe-based
metal-quinone
networks
(MQNs)
coordinated
assembly
representative
FTP
MQNs
possess
high
conversion
efficiency
(69.3
%).
Upon
808
nm
laser
irradiation,
not
only
trigger
effective
induce
apoptosis
more
significantly,
potentiate
Fenton
reaction
marked
GSH
consumption
boost
ferroptosis,
reinforced
effect
turn
can
alleviate
resistance
declining
HSP70
defense
reducing
ATP
levels.
This
study
provides
valuable
rationale
constructing
large
library
achieving
ferroptosis.
ACS Nano,
Год журнала:
2023,
Номер
17(10), С. 8918 - 8934
Опубликована: Май 2, 2023
Hollow
covalent
organic
frameworks
(COFs)
have
gained
significant
attention
because
of
their
specific
properties,
including
enhanced
surface-to-volume
ratio,
large
surface
area,
hierarchical
structure,
highly
ordered
nanostructures,
and
excellent
chemical
stability.
These
intrinsic
characteristics
endow
hollow
COFs
with
fascinating
physicochemical
properties
make
them
attractive
for
widespread
applications,
such
as
catalysis,
energy
storage,
drug
delivery,
therapy,
sensing,
environmental
remediation.
This
review
focuses
on
the
recent
developments
in
synthesis
derivatives.
In
addition,
practical
applications
various
fields
are
summarized.
Finally,
challenges
future
opportunities
terms
synthetic
methodologies
discussed.
expected
to
play
an
important
role
materials
science.
Abstract
Covalent
organic
frameworks
(COFs)
have
attracted
increasing
attention
for
biomedical
applications.
COFs‐based
nanosensitizers
with
uniform
nanoscale
morphology
and
tumor‐specific
curative
effects
are
in
high
demand;
however,
their
synthesis
is
yet
challenging.
In
this
study,
distinct
COF
nanobowls
synthesized
a
controlled
manner
engineered
as
activatable
sonodynamic
activity.
High
crystallinity
ensures
an
ordered
porous
structure
of
the
efficient
loading
small‐molecule
sonosensitizer
rose
bengal
(RB).
To
circumvent
non‐specific
damage
to
normal
tissues,
sonosensitization
effect
specifically
inhibited
by
situ
growth
manganese
oxide
(MnO
x
)
on
RB‐loaded
COFs.
Upon
reaction
tumor‐overexpressed
glutathione
(GSH),
“gatekeeper”
MnO
rapidly
decomposed
recover
reactive
oxygen
species
(ROS)
generation
capability
under
ultrasound
irradiation.
Increased
intracellular
ROS
stress
GSH
consumption
concomitantly
induce
ferroptosis
improve
efficacy.
Additionally,
unconventional
bowl‐shaped
renders
enhanced
tumor
accumulation
retention.
The
combination
therapy
achieves
efficacy
killing
cancer
cells
inhibiting
growth.
This
study
paves
way
development
morphologies
biomedicine,
offering
paradigm
realize
ferroptosis‐augmented
therapy.
Angewandte Chemie International Edition,
Год журнала:
2023,
Номер
62(20)
Опубликована: Март 10, 2023
The
development
of
covalent
organic
framework
(COF)
sonosensitizers
with
intrinsic
sonodynamic
effects
is
highly
desirable.
However,
such
COFs
are
generally
constructed
using
small-molecule
photosensitizers.
Herein,
we
report
that
the
reticular
chemistry-based
synthesis
from
two
inert
monomers
yields
a
COF-based
sonosensitizer
(TPE-NN)
inherent
activity.
Subsequently,
nanoscale
COF
TPE-NN
fabricated
and
embedded
copper
(Cu)-coordinated
sites
to
obtain
TPE-NN-Cu.
Results
show
Cu
coordination
can
enhance
effect
TPE-NN,
whereas
ultrasound
(US)
irradiation
for
therapy
augment
chemodynamic
efficacy
Consequently,
TPE-NN-Cu
upon
US
shows
high-performance
anticancer
based
on
mutually
reinforced
sono-/chemo-nanodynamic
therapy.
This
study
reveals
backbone-originated
activity
proposes
paradigm
nanodynamic
Chemical Reviews,
Год журнала:
2024,
Номер
124(13), С. 8307 - 8472
Опубликована: Июнь 26, 2024
Due
to
the
intrinsic
non-invasive
nature,
cost-effectiveness,
high
safety,
and
real-time
capabilities,
besides
diagnostic
imaging,
ultrasound
as
a
typical
mechanical
wave
has
been
extensively
developed
physical
tool
for
versatile
biomedical
applications.
Especially,
prosperity
of
nanotechnology
nanomedicine
invigorates
landscape
ultrasound-based
medicine.
The
unprecedented
surge
in
research
enthusiasm
dedicated
efforts
have
led
mass
multifunctional
micro-/nanosystems
being
applied
biomedicine,
facilitating
precise
diagnosis,
effective
treatment,
personalized
theranostics.
deployment
applications
is
rooted
profound
understanding
relationship
among
composition,
structure,
property,
bioactivity,
application,
performance.
In
this
comprehensive
review,
we
elaborate
on
general
principles
regarding
design,
synthesis,
functionalization,
optimization
abundant
particular,
recent
advancements
imaging
are
meticulously
summarized.
Furthermore,
systematically
elucidate
state-of-the-art
studies
concerning
progress
therapeutic
targeting
various
pathological
abnormalities
including
cancer,
bacterial
infection,
brain
diseases,
cardiovascular
metabolic
diseases.
Finally,
conclude
provide
an
outlook
field
with
in-depth
discussion
challenges
faced
future
developments
further
extensive
clinical
translation
application.
Abstract
Cuproptosis
is
a
newly
discovered
form
of
programmed
cell
death
significantly
depending
on
the
transport
efficacy
copper
(Cu)
ionophores.
However,
existing
Cu
ionophores,
primarily
small
molecules
with
short
blood
half‐life,
face
challenges
in
transporting
enough
amounts
ions
into
tumor
cells.
This
work
describes
construction
carrier‐free
nanoparticles
(Ce6@Cu
NPs),
which
self‐assembled
by
coordination
2+
sonosensitizer
chlorin
e6
(Ce6),
facilitating
sonodynamic‐triggered
combination
cuproptosis
and
ferroptosis.
Ce6@Cu
NPs
internalized
U87MG
cells
induce
sonodynamic
effect
glutathione
(GSH)
depletion
capability,
promoting
lipid
peroxidation
eventually
inducing
Furthermore,
+
concentration
increases
as
reacts
reductive
GSH,
resulting
downregulation
ferredoxin‐1
lipoyl
synthase.
induces
oligomerization
lipoylated
dihydrolipoamide
S‐acetyltransferase,
causing
proteotoxic
stress
irreversible
cuproptosis.
possess
satisfactory
ability
to
penetrate
blood‐brain
barrier,
significant
accumulation
orthotopic
U87MG‐Luc
glioblastoma.
The
ferroptosis
evidenced
both
vitro
vivo
minimal
side
effects.
represents
promising
therapeutic
strategy
combining
cuproptosis,
potentially
inspiring
further
research
developing
logical
effective
cancer
therapies
based
ACS Nano,
Год журнала:
2023,
Номер
17(13), С. 12544 - 12562
Опубликована: Июнь 24, 2023
To
achieve
the
maximum
therapeutic
effects
and
minimize
adverse
of
trimodal
synergistic
tumor
therapies,
a
cost-effective
programmed
photothermal
(PTT)-chemodynamic
(CDT)-coordinated
dual
drug
chemotherapy
(CT)
therapy
strategy
in
chronological
order
is
proposed.
According
to
status
or
volumes
tumors,
intensity
time
each
modality
are
optimized,
three
modalities
combined
programmatically
work
order.
The
optimal
begins
with
high-intensity
PTT
for
10
min
ablate
larger
followed
by
medium-intensity
CDT
several
hours
eliminate
medium-sized
then
low-intensity
coordinated
drugs
CT
lasts
over
48
h
clear
smaller
residual
tumors.
Composite
nanoparticles,
made
Fe-coordinated
polydopamine
mixed
copper
peroxide
as
cores
their
surface
dotted
lots
doxorubicin-Fe(III)-gossypol
infinite
coordination
polymers
(ICPs),
have
been
developed
implement
strategy.
These
composite
nanoparticles
show
excellent
minimum
dose
agents
result
nearly
100%
inhibition
mice
bearing
PC-3
tumors
no
observed
recurrence
within
60
days
treatment.
ratios
different
can
be
adjusted
accommodate
types
this
Abstract
Ferroptosis
is
a
new
form
of
regulated
cell
death
featuring
iron‐dependent
lipid
peroxides
accumulation
to
kill
tumor
cells.
A
growing
body
evidence
has
shown
the
potential
ferroptosis‐based
cancer
therapy
in
eradicating
refractory
malignancies
that
are
resistant
apoptosis‐based
conventional
therapies.
In
recent
years,
studies
have
reported
number
ferroptosis
inducers
can
increase
vulnerability
cells
by
regulating
ferroptosis‐related
signaling
pathways.
Encouraged
rapid
development
ferroptosis‐driven
therapies,
interdisciplinary
fields
combine
ferroptosis,
pharmaceutical
chemistry,
and
nanotechnology
focused.
First,
prerequisites
metabolic
pathways
for
briefly
introduced.
Then,
detail
emerging
designed
boost
ferroptosis‐induced
therapy,
including
metal
complexes,
metal‐based
nanoparticles,
metal‐free
nanoparticles
summarized.
Subsequently,
application
synergistic
strategies
with
apoptosis
other
emphasis
on
use
both
cuproptosis
induce
redox
dysregulation
intracellular
bimetallic
copper/iron
metabolism
disorders
during
treatment
discussed.
Finally,
challenges
associated
clinical
translation
future
directions
potentiating
therapies
highlighted.
Nano Letters,
Год журнала:
2024,
Номер
24(4), С. 1284 - 1293
Опубликована: Янв. 17, 2024
Despite
its
effectiveness
in
eliminating
cancer
cells,
ferroptosis
is
hindered
by
the
high
natural
antioxidant
glutathione
(GSH)
levels
tumor
microenvironment.
Herein,
we
developed
a
spatially
asymmetric
nanoparticle,
Fe3O4@DMS&PDA@MnO2-SRF,
for
enhanced
ferroptosis.
It
consists
of
two
subunits:
Fe3O4
nanoparticles
coated
with
dendritic
mesoporous
silica
(DMS)
and
PDA@MnO2
(PDA:
polydopamine)
loaded
sorafenib
(SRF).
The
spatial
isolation
Fe3O4@DMS
PDA@MnO2-SRF
subunits
enhances
synergistic
effect
between
GSH-scavengers
ferroptosis-related
components.
First,
increased
exposure
subunit
Fenton
reaction,
leading
to
production
reactive
oxygen
species.
Furthermore,
effectively
depletes
GSH,
thereby
inducing
inactivation
glutathione-dependent
peroxidases
4.
Moreover,
SRF
blocks
Xc–
transport
augmenting
GSH
depletion
capabilities.
dual
Fe3O4@DMS&PDA@MnO2-SRF
significantly
weakens
antioxidative
system,
boosting
chemodynamic
performance
cells.