Nanomaterials‐Induced Pyroptosis: Advancing Novel Therapeutic Pathways in Nanomedicine
Siqi Yu,
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Yumo Zhang,
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Zhuoran Zhou
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et al.
Small Methods,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 24, 2025
Abstract
Pyroptosis,
a
form
of
programmed
cell
death
characterized
by
lysis
and
inflammation,
has
significant
implications
for
disease
treatment.
Nanomaterials
(NMs),
with
their
unique
physicochemical
properties,
can
precisely
modulate
pyroptosis,
offering
novel
intelligent
therapeutic
strategies
cancer,
infectious
diseases,
chronic
inflammatory
conditions
targeted
activation
reduced
systemic
toxicity.
This
review
explores
the
mechanisms
which
NMs
regulate
comparing
molecular
NM
inducers,
examines
role
intrinsic
properties
such
as
size,
shape,
surface
charge,
chemical
composition
in
these
processes.
It
also
discusses
balance
between
beneficial
adverse
effects
NM‐induced
highlighting
delivery
systems,
modifications,
controlled
to
enhance
efficacy
intelligence
while
minimizing
Notably,
mRNA‐based
nanomedicine
be
intelligently
designed
activate
achieving
desired
outcomes
tailored
evolving
microenvironment
diseases.
By
understanding
interactions,
potential
harnessed
develop
innovative
treatments
manage
pyroptosis‐associated
diseases
safely,
effectively,
intelligently.
highlights
transformative
clinical
applications.
Language: Английский
A Pyroptosis Radiosensitizer Facilitates Hypoxic Tumor Necrosis
Chenglu Gu,
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Dongmei Wang,
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Shuang Zhu
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et al.
Small,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 24, 2025
Hypoxia-related
tumor
radioresistance
markedly
impairs
the
efficacy
of
radiotherapy.
Herein,
a
targeted
radiosensitization
strategy
is
introduced,
leveraging
upregulation
gasdermin
C
(GSDMC)
in
hypoxic
cells,
aiming
to
induce
pyroptosis
through
application
cobalt-containing
polyoxometalate-based
radiosensitizer.
This
novel
radiosensitizer
designed
for
precisely
controlled
release
cobalt
ions
upon
X-ray
irradiation,
thereby
activating
caspase-8
and
prompting
cleavage
GSDMC.
sequence
events
selectively
triggers
directly
addressing
radioresistance.
The
ensuing
results
highlight
enhanced
radiotherapy
necrosis
both
vitro
vivo
models.
Overall,
findings
confirm
effectiveness
this
targeting
high
GSDMC
expression
tumors
precise
Such
encourage
further
exploration
hypoxia-driven
improve
cancer
treatment
outcomes.
Language: Английский
Metabolism-Related Programmed Cell Death: Unveiling Prognostic Biomarkers, Immune Checkpoints, and Therapeutic Strategies in Ovarian Cancer
Mengdi Fu,
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Hao Wu,
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Peng Peng
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et al.
Cancer Investigation,
Journal Year:
2025,
Volume and Issue:
unknown, P. 1 - 22
Published: April 7, 2025
Ovarian
cancer
(OC),
the
gynecologic
malignancy
with
poorest
prognosis,
is
driven
by
metabolic
reprogramming
and
dysregulated
programmed
cell
death
(PCD).
However,
their
interplay
prognostic
significance
remain
inadequately
understood.
Transcriptomic
data
from
OC
patients
healthy
controls
(TCGA
GTEx)
were
analyzed
to
identify
differentially
expressed
genes
(DEGs)
intersecting
metabolism-related
(MRGs)
PCD-related
(PCDRGs).
Prognostic
determined
using
univariate
Cox
regression,
LASSO,
multivariate
stepwise
analyses.
Consensus
clustering
revealed
enrichment
differences,
while
a
risk
model
nomogram
developed
for
outcome
prediction.
Associations
between
genes,
immune
microenvironment,
drug
sensitivity
also
assessed.
A
total
of
166
candidate
identified,
PLA2G2D,
LPCAT3,
ARG1,
PLA2G4A,
EXOSC3
emerging
as
significant
markers.
The
demonstrated
marked
survival
showed
robust
calibration
Differential
infiltration
was
observed
groups.
Additionally,
Sinularin
Fulvestrant
exhibited
variable
sensitivity,
validated
through
molecular
docking
models.
Metabolism-related
PCD
identified
pivotal
markers
in
OC,
providing
critical
insights
evaluation
targeted
therapy
development.
Language: Английский