Constructing a Glioblastoma Prognostic Model Related to Fatty Acid Metabolism Using Machine Learning and Identifying F13A1 as a Potential Target
Yu‐Shu Liu,
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Hui Deng,
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Ping Song
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et al.
Biomedicines,
Journal Year:
2025,
Volume and Issue:
13(2), P. 256 - 256
Published: Jan. 21, 2025
Background:
Increased
fatty
acid
metabolism
(FAM)
is
an
important
marker
of
tumor
metabolism.
However,
the
characterization
and
function
FAM-related
genes
in
glioblastoma
(GBM)
have
not
been
fully
explored.
Method:
In
TCGA-GBM
cohort,
were
divided
into
three
clusters
(C1,
C2,
C3),
DEGs
between
those
normal
group
GBM
cohort
considered
key
genes.
On
basis
10
kinds
machine
learning
methods,
we
used
101
combinations
algorithms
to
construct
prognostic
models
obtain
best
model.
addition,
also
validated
model
GSE43378,
GSE83300,
CGGA,
REMBRANDT
datasets.
We
conducted
a
multifaceted
analysis
F13A1,
which
plays
role
Results:
with
worst
prognosis,
may
be
associated
immunosuppressive
phenotype,
related
positive
regulation
cell
adhesion
lymphocyte-mediated
immunity.
Using
multiple
identified
RSF
as
model,
F13A1
accounts
for
most
contribution.
can
support
malignant
cells
by
promoting
macrophages,
leading
poor
prognosis
patients.
This
metabolic
reprogramming
only
enhances
survival
proliferation
but
promote
growth,
invasion,
metastasis
secreting
growth
factors
cytokines.
significantly
correlated
immune-related
molecules,
including
IL2RA,
activate
immunity,
IL10,
suggests
immune
suppression.
interferes
recognition
killing
affecting
MHC
molecules.
Conclusions:
The
developed
here
helps
us
further
enhance
our
understanding
FAM
provides
compelling
avenue
clinical
prediction
patient
treatment.
possibly
novel
macrophages.
Language: Английский
Molecular Mechanisms of Neutrophil Extracellular Traps in Promoting Gastric Cancer Epithelial–Mesenchymal Transition Through SERPINE‐1 Expression
Zhen Ma,
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Xiaolin Li,
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Shifeng Yang
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et al.
Journal of Biochemical and Molecular Toxicology,
Journal Year:
2025,
Volume and Issue:
39(3)
Published: March 1, 2025
Gastric
cancer
remains
a
significant
global
health
concern,
with
its
progression
and
metastasis
often
associated
epithelial-mesenchymal
transition
(EMT).
This
study
investigated
the
role
of
neutrophil
extracellular
traps
(NETs)
in
promoting
gastric
EMT
by
regulating
SERPINE-1
expression,
which
encodes
plasminogen
activator
inhibitor-1
(PAI-1).
Western
blot
immunohistochemistry
were
used
to
detect
protein
expression.
Cell
Counting
Kit-8
was
tested
for
cell
proliferation
ability
using
clones.
The
gene
knocked
down
lentivirus.
Immunofluorescence
co-expression
proteins,
Transwell
assay
wound-healing
investigate
migration
cells.
Experimental
conclusions
verified
vivo
nude
mouse
model.
We
first
demonstrated
overexpression
PAI-1
tissues
lines.
Subsequently,
we
found
that
NETs
significantly
enhanced
expression
EMT-related
markers.
These
changes
accompanied
increases
invasion,
migration,
tumour
sphere
formation.
To
further
elucidate
mechanism,
employed
lentivirus-mediated
knockdown
reverse
NET-induced
phenotype
effectively.
Mechanistically,
activated
transforming
growth
factor
(TGF)-β
signalling
pathway
via
as
evidenced
increased
TGF-β1,
TGF-βR1,
TGF-βR2,
phosphorylated
Smad2/3
Smad4.
Finally,
experiments
model
liver
confirmed
NET-treated
HGC-27
cells
exhibited
metastatic
potential
abrogated
potential.
Our
findings
reveal
novel
mechanism
promote
PAI-1-TGF-β
axis.
can
be
target
treatment
cancer,
is
closely
related
prognosis
patients
cancer.
Therapeutic
strategies
targeting
or
may
help
prevent
improve
clinical
outcomes
patients.
Language: Английский
Caveolae: Metabolic Platforms at the Crossroads of Health and Disease
David Stea,
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Alessio D’Alessio
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International Journal of Molecular Sciences,
Journal Year:
2025,
Volume and Issue:
26(7), P. 2918 - 2918
Published: March 24, 2025
Caveolae
are
small
flask-shaped
invaginations
of
the
plasma
membrane
enriched
in
cholesterol
and
sphingolipids.
They
play
a
critical
role
various
cellular
processes,
including
signal
transduction,
endocytosis,
mechanotransduction.
Caveolin
proteins,
specifically
Cav-1,
Cav-2,
Cav-3,
addition
to
their
as
structural
components
caveolae,
have
been
found
regulate
activity
signaling
molecules.
A
growing
body
research
has
highlighted
pivotal
caveolae
caveolins
maintaining
metabolic
homeostasis.
Indeed,
studies
demonstrated
that
interact
with
key
insulin
signaling,
glucose
uptake,
lipid
metabolism,
thereby
influencing
energy
production
storage.
The
dysfunction
or
altered
expression
associated
disorders,
obesity,
type
2
diabetes,
ocular
diseases.
Remarkably,
mutations
caveolin
genes
can
disrupt
balance,
promote
oxidative
stress,
exacerbate
dysregulation.
This
review
examines
current
on
molecular
mechanisms
through
which
explores
involvement
pathogenesis
discusses
potential
therapeutic
strategies
targeting
function
stabilization
restore
Language: Английский
Deep learning assisted identification of SCUBE2 and SLC16 A5 combination in RNA-sequencing data as a novel specific potential diagnostic biomarker in prostate cancer
Saeideh Khorshid Sokhangouy,
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Mohsen Zeinali,
No information about this author
Sina Fathi
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et al.
Medical & Biological Engineering & Computing,
Journal Year:
2025,
Volume and Issue:
unknown
Published: May 8, 2025
Language: Английский
Basic mechanism of mobilizing cell movement during invasion of glioblastoma and target selection of targeted therapy
Journal of Advanced Research,
Journal Year:
2025,
Volume and Issue:
unknown
Published: May 1, 2025
Glioblastoma
(GBM),
also
known
as
glioblastoma
multiforme,
is
a
rapidly
growing
and
highly
invasive
malignant
tumor.
Due
to
the
inability
clearly
distinguish
between
normal
tissue,
surgery
cannot
achieve
safe
resection,
often
leading
poor
patient
prognosis
inevitable
tumor
recurrence.
According
previous
studies,
GBM
invasion
related
intercellular
adhesion,
matrix
degradation,
extracellular
its
adhesion
molecules,
well
molecular
of
protein
hydrolases
in
microenvironment
cells
stromal
cells.
The
aim
enhance
our
understanding
mechanisms
underlying
advance
research
on
targeted
therapies
for
inhibiting
invasion.
This
article
describes
that
may
affect
cell
invasion,
changes
cytoskeleton
during
motility,
regulatory
intracellular
signaling
pathways
In
addition,
we
explored
possibility
therapy
against
molecules
GBM.
Language: Английский