International Journal of Molecular Sciences,
Journal Year:
2025,
Volume and Issue:
26(9), P. 4317 - 4317
Published: May 1, 2025
Uveal
melanoma
(UVM)
is
an
aggressive
cancer
with
a
poor
prognosis,
particularly
in
metastatic
cases.
This
study
aimed
to
develop
and
validate
novel
extracellular
matrix
(ECM)
gene
expression
signature
predict
prognosis
stratify
patients
by
risk.
ECM-related
genes
were
identified
used
construct
prognostic
model
through
Lasso–Cox
regression
analysis,
leveraging
RNA
sequencing
data
from
80
UVM
The
Cancer
Genome
Atlas
(TCGA).
was
validated
using
independent
cohort
of
63
patients.
Survival
analyses,
immune
infiltration
profiling,
functional
enrichment
analyses
conducted
evaluate
the
biological
significance
clinical
utility
signature.
ECM
stratified
into
high-
low-risk
groups
significant
differences
survival
outcomes.
High-risk
showed
elevated
MMP1
MMP12,
which
are
associated
remodeling
modulation,
alongside
increased
immunosuppressive
cells,
such
as
M2
macrophages.
Validation
confirmed
value
across
cohorts.
Functional
highlighted
involvement
pathways,
epithelial–mesenchymal
transition,
system
interactions
tumor
progression.
robust
tool
for
UVM,
offering
insights
biology
microenvironment
interactions.
It
holds
promise
improving
patient
stratification
guiding
personalized
therapeutic
strategies.
Further
research
warranted
explore
roles
these
Genome Medicine,
Journal Year:
2022,
Volume and Issue:
14(1)
Published: Feb. 28, 2022
Abstract
Rare
diseases
affect
30
million
people
in
the
USA
and
more
than
300–400
worldwide,
often
causing
chronic
illness,
disability,
premature
death.
Traditional
diagnostic
techniques
rely
heavily
on
heuristic
approaches,
coupling
clinical
experience
from
prior
rare
disease
presentations
with
medical
literature.
A
large
number
of
patients
remain
undiagnosed
for
years
many
even
die
without
an
accurate
diagnosis.
In
recent
years,
gene
panels,
microarrays,
exome
sequencing
have
helped
to
identify
molecular
cause
such
diseases.
These
technologies
allowed
diagnoses
a
sizable
proportion
(25–35%)
patients,
actionable
findings.
However,
these
undiagnosed.
this
review,
we
focus
that
can
be
adopted
if
is
unrevealing.
We
discuss
benefits
whole
genome
additional
benefit
may
offered
by
long-read
technology,
pan-genome
reference,
transcriptomics,
metabolomics,
proteomics,
methyl
profiling.
highlight
computational
methods
help
regionally
distant
similar
phenotypes
or
genetic
mutations.
Finally,
describe
approaches
automate
accelerate
genomic
analysis.
The
strategies
discussed
here
are
intended
serve
as
guide
clinicians
researchers
next
steps
when
encountering
non-diagnostic
exomes.
Molecular Omics,
Journal Year:
2024,
Volume and Issue:
20(4), P. 220 - 233
Published: Jan. 1, 2024
This
review
initially
presents
relevant
patient-derived
models,
including
PDXs,
PDOs,
and
PDEs.
Subsequently,
a
comprehensive
summary
of
single-cell
analyses
conducted
on
these
models
is
provided.
Acta Biochimica Polonica,
Journal Year:
2025,
Volume and Issue:
72
Published: Feb. 5, 2025
In
recent
years,
significant
advancements
in
biochemistry,
materials
science,
engineering,
and
computer-aided
testing
have
driven
the
development
of
high-throughput
tools
for
profiling
genetic
information.
Single-cell
RNA
sequencing
(scRNA-seq)
technologies
established
themselves
as
key
dissecting
sequences
at
level
single
cells.
These
reveal
cellular
diversity
allow
exploration
cell
states
transformations
with
exceptional
resolution.
Unlike
bulk
sequencing,
which
provides
population-averaged
data,
scRNA-seq
can
detect
subtypes
or
gene
expression
variations
that
would
otherwise
be
overlooked.
However,
a
limitation
is
its
inability
to
preserve
spatial
information
about
transcriptome,
process
requires
tissue
dissociation
isolation.
Spatial
transcriptomics
pivotal
advancement
medical
biotechnology,
facilitating
identification
molecules
such
their
original
context
within
sections
single-cell
level.
This
capability
offers
substantial
advantage
over
traditional
techniques.
valuable
insights
into
wide
range
biomedical
fields,
including
neurology,
embryology,
cancer
research,
immunology,
histology.
review
highlights
approaches,
technological
developments,
associated
challenges,
various
techniques
data
analysis,
applications
disciplines
microbiology,
neuroscience,
reproductive
biology,
immunology.
It
critical
role
characterizing
dynamic
nature
individual
International Journal of Molecular Sciences,
Journal Year:
2025,
Volume and Issue:
26(5), P. 2074 - 2074
Published: Feb. 27, 2025
This
article
reviews
the
impact
of
single-cell
sequencing
(SCS)
on
cancer
biology
research.
SCS
has
revolutionized
our
understanding
and
tumor
heterogeneity,
clonal
evolution,
complex
interplay
between
cells
microenvironment.
provides
high-resolution
profiling
individual
in
genomic,
transcriptomic,
epigenomic
landscapes,
facilitating
detection
rare
mutations,
characterization
cellular
diversity,
integration
molecular
data
with
phenotypic
traits.
The
multi-omics
provided
a
multidimensional
view
states
regulatory
mechanisms
cancer,
uncovering
novel
therapeutic
targets.
Advances
computational
tools,
artificial
intelligence
(AI),
machine
learning
have
been
crucial
interpreting
vast
amounts
generated,
leading
to
identification
new
biomarkers
development
predictive
models
for
patient
stratification.
Furthermore,
there
emerging
technologies
such
as
spatial
transcriptomics
situ
sequencing,
which
promise
further
enhance
microenvironment
organization
interactions.
As
its
related
continue
advance,
they
are
expected
drive
significant
advances
personalized
diagnostics,
prognosis,
therapy,
ultimately
improving
outcomes
era
precision
oncology.
Frontiers in Immunology,
Journal Year:
2023,
Volume and Issue:
14
Published: Oct. 27, 2023
Single-cell
sequencing
is
a
technique
for
detecting
and
analyzing
genomes,
transcriptomes,
epigenomes
at
the
single-cell
level,
which
can
detect
cellular
heterogeneity
lost
in
conventional
hybrid
samples,
it
has
revolutionized
our
understanding
of
genetic
complexity
tumor
progression.
Moreover,
microenvironment
(TME)
plays
crucial
role
formation,
development
response
to
treatment
tumors.
The
application
ushered
new
age
TME
analysis,
revealing
not
only
blueprint
pan-cancer
immune
microenvironment,
but
also
differentiation
routes
cells,
as
well
predicting
prognosis.
Thus,
combination
analysis
provides
unique
opportunity
unravel
molecular
mechanisms
underlying
In
this
review,
we
summarize
recent
advances
highlighting
their
potential
applications
cancer
research
clinical
translation.
Biomedicines,
Journal Year:
2024,
Volume and Issue:
12(8), P. 1851 - 1851
Published: Aug. 14, 2024
Advances
in
melanoma
research
have
unveiled
critical
insights
into
its
genetic
and
molecular
landscape,
leading
to
significant
therapeutic
innovations.
This
review
explores
the
intricate
interplay
between
alterations,
such
as
mutations
BRAF,
NRAS,
KIT,
pathogenesis.
The
MAPK
PI3K/Akt/mTOR
signaling
pathways
are
highlighted
for
their
roles
tumor
growth
resistance
mechanisms.
Additionally,
this
delves
impact
of
epigenetic
modifications,
including
DNA
methylation
histone
changes,
on
progression.
microenvironment,
characterized
by
immune
cells,
stromal
soluble
factors,
plays
a
pivotal
role
modulating
behavior
treatment
responses.
Emerging
technologies
like
single-cell
sequencing,
CRISPR-Cas9,
AI-driven
diagnostics
transforming
research,
offering
precise
personalized
approaches
treatment.
Immunotherapy,
particularly
checkpoint
inhibitors
mRNA
vaccines,
has
revolutionized
therapy
enhancing
body’s
response.
Despite
these
advances,
mechanisms
remain
challenge,
underscoring
need
combined
therapies
ongoing
achieve
durable
comprehensive
overview
aims
highlight
current
state
transformative
impacts
advancements
clinical
practice.
Advanced Science,
Journal Year:
2023,
Volume and Issue:
11(7)
Published: Dec. 10, 2023
Abstract
Accurately
identifies
the
cellular
composition
of
complex
tissues,
which
is
critical
for
understanding
disease
pathogenesis,
early
diagnosis,
and
prevention.
However,
current
methods
deconvoluting
bulk
RNA
sequencing
(RNA‐seq)
typically
rely
on
matched
single‐cell
(scRNA‐seq)
as
a
reference,
can
be
limiting
due
to
differences
in
distribution
potential
invalid
information
from
references.
Hence,
novel
computational
method
named
SCROAM
introduced
address
these
challenges.
transforms
scRNA‐seq
RNA‐seq
into
shared
feature
space,
effectively
eliminating
distributional
latent
space.
Subsequently,
cell‐type‐specific
expression
matrices
are
generated
data,
facilitating
precise
identification
cell
types
within
tissues.
The
performance
assessed
through
benchmarking
against
simulated
real
datasets,
demonstrating
its
accuracy
robustness.
To
further
validate
SCROAM's
performance,
experiments
conducted
mouse
spinal
cord
tissue,
with
applied
identify
tissue.
Results
indicate
that
highly
effective
tool
identifying
similar
types.
An
integrated
analysis
liver
cancer
primary
glioblastoma
then
performed.
Overall,
this
research
offers
perspective
delivering
insights
pathogenesis
therapeutic
strategies.