Frontiers in Pharmacology,
Journal Year:
2025,
Volume and Issue:
16
Published: April 30, 2025
Multiomics
data
integration
approaches
offer
a
comprehensive
functional
understanding
of
biological
systems,
with
significant
applications
in
disease
therapeutics.
However,
the
quantitative
multiomics
presents
complex
challenge,
requiring
highly
specialized
computational
methods.
By
providing
deep
insights
into
disease-associated
molecular
mechanisms,
facilitates
precision
medicine
by
accounting
for
individual
omics
profiles,
enabling
early
detection
and
prevention,
aiding
biomarker
discovery
diagnosis,
prognosis,
treatment
monitoring,
identifying
targets
innovative
drug
development
or
repurposing
existing
therapies.
AI-driven
bioinformatics
plays
crucial
role
computing
scores
to
prioritize
available
drugs,
assisting
clinicians
selecting
optimal
treatments.
This
review
will
explain
potential
AI
It
highlight
challenges
diverse
clinical
workflows
involving
cancer
genomics,
addressing
ethical
privacy
concerns
related
oncology.
The
scope
this
text
is
broad
yet
focused,
readers
overview
how
AI-powered
integrative
are
transforming
Understanding
Genomics,
it
explore
strategies
selection,
genome
profiling
tumor
clonality
analysis
application
prioritization
tools,
technical,
ethical,
practical
hurdles
deploying
genomics
tools.
Frontiers in Oncology,
Journal Year:
2023,
Volume and Issue:
13
Published: May 17, 2023
Breast
cancer
is
a
highly
heterogeneous
disease,
at
both
inter-
and
intra-tumor
levels,
this
heterogeneity
crucial
determinant
of
malignant
progression
response
to
treatments.
In
addition
genetic
diversity
plasticity
cells,
the
tumor
microenvironment
contributes
shaping
physical
biological
surroundings
tumor.
The
activity
certain
types
immune,
endothelial
or
mesenchymal
cells
in
can
change
effectiveness
therapies
via
plethora
different
mechanisms.
Therefore,
deciphering
interactions
between
distinct
cell
types,
their
spatial
organization
specific
contribution
growth
drug
sensitivity
still
major
challenge.
Dissecting
currently
an
urgent
need
better
define
breast
biology
develop
therapeutic
strategies
targeting
as
helpful
tools
for
combined
personalized
treatment.
review,
we
analyze
mechanisms
by
which
affects
characteristics
that
ultimately
result
resistance,
outline
state
art
preclinical
models
emerging
technologies
will
be
instrumental
unraveling
impact
on
resistance
therapies.
Cancer Discovery,
Journal Year:
2022,
Volume and Issue:
12(6), P. 1423 - 1427
Published: June 2, 2022
Summary:
Artificial
intelligence
(AI)
and
machine
learning
(ML)
technologies
have
not
only
tremendous
potential
to
augment
clinical
decision-making
enhance
quality
care
precision
medicine
efforts,
but
also
the
worsen
existing
health
disparities
without
a
thoughtful,
transparent,
inclusive
approach
that
includes
addressing
bias
in
their
design
implementation
along
cancer
discovery
continuum.
We
discuss
applications
of
AI/ML
tools
provide
recommendations
for
mitigating
with
AI
ML
while
promoting
equity.
Computational and Structural Biotechnology Journal,
Journal Year:
2023,
Volume and Issue:
21, P. 1372 - 1382
Published: Jan. 1, 2023
Cancer
progression
is
linked
to
gene-environment
interactions
that
alter
cellular
homeostasis.
The
use
of
biomarkers
as
early
indicators
disease
manifestation
and
can
substantially
improve
diagnosis
treatment.
Large
omics
datasets
generated
by
high-throughput
profiling
technologies,
such
microarrays,
RNA
sequencing,
whole-genome
shotgun
nuclear
magnetic
resonance,
mass
spectrometry,
have
enabled
data-driven
biomarker
discoveries.
identification
differentially
expressed
traits
molecular
markers
has
traditionally
relied
on
statistical
techniques
are
often
limited
linear
parametric
modeling.
heterogeneity,
epigenetic
changes,
high
degree
polymorphism
observed
in
oncogenes
demand
biomarker-assisted
personalized
medication
schemes.
Deep
learning
(DL),
a
major
subunit
machine
(ML),
been
increasingly
utilized
recent
years
investigate
various
diseases.
combination
ML/DL
approaches
for
performance
optimization
across
multi-omics
produces
robust
ensemble-learning
prediction
models,
which
becoming
useful
precision
medicine.
This
review
focuses
the
development
methods
provide
integrative
solutions
discovering
cancer-related
biomarkers,
their
utilization
Biology,
Journal Year:
2023,
Volume and Issue:
12(10), P. 1298 - 1298
Published: Sept. 30, 2023
This
review
discusses
the
transformative
potential
of
integrating
multi-omics
data
and
artificial
intelligence
(AI)
in
advancing
horticultural
research,
specifically
plant
phenotyping.
The
traditional
methods
phenotyping,
while
valuable,
are
limited
their
ability
to
capture
complexity
biology.
advent
(meta-)genomics,
(meta-)transcriptomics,
proteomics,
metabolomics
has
provided
an
opportunity
for
a
more
comprehensive
analysis.
AI
machine
learning
(ML)
techniques
can
effectively
handle
volume
data,
providing
meaningful
interpretations
predictions.
Reflecting
multidisciplinary
nature
this
area
review,
readers
will
find
collection
state-of-the-art
solutions
that
key
integration
phenotyping
experiments
horticulture,
including
experimental
design
considerations
with
several
technical
non-technical
challenges,
which
discussed
along
solutions.
future
prospects
include
precision
predictive
breeding,
improved
disease
stress
response
management,
sustainable
crop
exploration
biodiversity.
holds
immense
promise
revolutionizing
research
applications,
heralding
new
era
Biology,
Journal Year:
2024,
Volume and Issue:
13(11), P. 848 - 848
Published: Oct. 22, 2024
With
the
advent
of
high-throughput
technologies,
field
omics
has
made
significant
strides
in
characterizing
biological
systems
at
various
levels
complexity.
Transcriptomics,
proteomics,
and
metabolomics
are
three
most
widely
used
each
providing
unique
insights
into
different
layers
a
system.
However,
analyzing
data
set
separately
may
not
provide
comprehensive
understanding
subject
under
study.
Therefore,
integrating
multi-omics
become
increasingly
important
bioinformatics
research.
In
this
article,
we
review
strategies
for
transcriptomics,
data,
including
co-expression
analysis,
metabolite-gene
networks,
constraint-based
models,
pathway
enrichment
interactome
analysis.
We
discuss
combined
integration
approaches,
correlation-based
strategies,
machine
learning
techniques
that
utilize
one
or
more
types
data.
By
presenting
these
methods,
aim
to
researchers
with
better
how
integrate
gain
view
system,
facilitating
identification
complex
patterns
interactions
might
be
missed
by
single-omics
analyses.
Heliyon,
Journal Year:
2024,
Volume and Issue:
10(3), P. e25369 - e25369
Published: Feb. 1, 2024
In
recent
years,
scientific
data
on
cancer
has
expanded,
providing
potential
for
a
better
understanding
of
malignancies
and
improved
tailored
care.
Advances
in
Artificial
Intelligence
(AI)
processing
power
algorithmic
development
position
Machine
Learning
(ML)
Deep
(DL)
as
crucial
players
predicting
Leukemia,
blood
cancer,
using
integrated
multi-omics
technology.
However,
realizing
these
goals
demands
novel
approaches
to
harness
this
deluge.
This
study
introduces
Leukemia
diagnosis
approach,
analyzing
accuracy
ML
DL
algorithms.
techniques,
including
Random
Forest
(RF),
Naive
Bayes
(NB),
Decision
Tree
(DT),
Logistic
Regression
(LR),
Gradient
Boosting
(GB),
methods
such
Recurrent
Neural
Networks
(RNN)
Feedforward
(FNN)
are
compared.
GB
achieved
97
%
ML,
while
RNN
outperformed
by
achieving
98
DL.
approach
filters
unclassified
effectively,
demonstrating
the
significance
leukemia
prediction.
The
testing
validation
was
based
17
different
features
patient
age,
sex,
mutation
type,
treatment
methods,
chromosomes,
others.
Our
compares
techniques
chooses
best
technique
that
gives
optimum
results.
emphasizes
implications
high-throughput
technology
healthcare,
offering
Cancer Informatics,
Journal Year:
2022,
Volume and Issue:
21, P. 117693512211242 - 117693512211242
Published: Jan. 1, 2022
Multi-omics
data
integration
facilitates
collecting
richer
understanding
and
perceptions
than
separate
omics
data.
Various
promising
integrative
approaches
have
been
utilized
to
analyze
multi-omics
for
biomedical
applications,
including
disease
prediction
subtypes,
biomarker
prediction,
others.In
this
paper,
we
introduce
a
method
that
is
constructed
using
the
combination
of
gene
similarity
network
(GSN)
based
on
uniform
manifold
approximation
projection
(UMAP)
convolutional
neural
networks
(CNNs).
The
utilizes
UMAP
embed
expression,
DNA
methylation,
copy
number
alteration
(CNA)
lower
dimension
creating
two-dimensional
RGB
images.
Gene
expression
used
as
reference
construct
GSN
then
integrate
other
with
better
prediction.
We
CNNs
predict
Gleason
score
levels
prostate
cancer
patients
tumor
stage
in
breast
patients.The
model
proposed
near
perfection
accuracy
above
99%
all
performance
measurements
at
same
level.
outperformed
state-of-art
iSOM-GSN
constructs
map
self-organizing
map.The
results
show
an
embedding
technique
can
maps
into
SOM.
also
be
applied
build
types
cancer.
Journal of Biological Engineering,
Journal Year:
2023,
Volume and Issue:
17(1)
Published: April 17, 2023
Abstract
Background
Early
diagnosis
of
Pancreatic
Ductal
Adenocarcinoma
(PDAC)
is
the
main
key
to
surviving
cancer
patients.
Urine
proteomic
biomarkers
which
are
creatinine,
LYVE1,
REG1B,
and
TFF1
present
a
promising
non-invasive
inexpensive
diagnostic
method
PDAC.
Recent
utilization
both
microfluidics
technology
artificial
intelligence
techniques
enables
accurate
detection
analysis
these
biomarkers.
This
paper
proposes
new
deep-learning
model
identify
urine
for
automated
pancreatic
cancers.
The
proposed
composed
one-dimensional
convolutional
neural
networks
(1D-CNNs)
long
short-term
memory
(LSTM).
It
can
categorize
patients
into
healthy
pancreas,
benign
hepatobiliary
disease,
PDAC
cases
automatically.
Results
Experiments
evaluations
have
been
successfully
done
on
public
dataset
590
samples
three
classes,
183
pancreas
samples,
208
disease
199
samples.
results
demonstrated
that
our
1-D
CNN
+
LSTM
achieved
best
accuracy
score
97%
area
under
curve
(AUC)
98%
versus
state-of-the-art
models
diagnose
cancers
using
Conclusion
A
efficient
1D
CNN-LSTM
has
developed
early
four
TFF1.
showed
superior
performance
other
machine
learning
classifiers
in
previous
studies.
prospect
this
study
laboratory
realization
deep
classifier
urinary
biomarker
panels
assisting
procedures
Frontiers in Genetics,
Journal Year:
2024,
Volume and Issue:
14
Published: Jan. 12, 2024
Chronic
lymphocytic
leukemia
is
a
complex
and
heterogeneous
hematological
malignancy.
The
advance
of
high-throughput
multi-omics
technologies
has
significantly
influenced
chronic
research
paved
the
way
for
precision
medicine
approaches.
In
this
review,
we
explore
role
machine
learning
in
analysis
data
We
discuss
recent
literature
on
different
models
applied
to
single
omic
studies
leukemia,
with
special
focus
potential
contributions
medicine.
Finally,
highlight
recently
published
applications
area
as
well
their
limitations.