Frontiers in Genetics,
Journal Year:
2024,
Volume and Issue:
15
Published: Dec. 10, 2024
Multi-omics
data
integration
has
become
increasingly
crucial
for
a
deeper
understanding
of
the
complexity
biological
systems.
However,
effectively
integrating
and
analyzing
multi-omics
remains
challenging
due
to
their
heterogeneity
high
dimensionality.
Existing
methods
often
struggle
with
noise,
redundant
features,
complex
interactions
between
different
omics
layers,
leading
suboptimal
performance.
Additionally,
they
face
difficulties
in
adequately
capturing
intra-omics
simplistic
concatenation
techiniques,
risk
losing
critical
inter-omics
interaction
information
when
using
hierarchical
attention
layers.
To
address
these
challenges,
we
propose
novel
Denoised
Multi-Omics
Integration
approach
that
leverages
Transformer
multi-head
self-attention
mechanism
(DMOIT).
DMOIT
consists
three
key
modules:
generative
adversarial
imputation
network
handling
missing
values,
sampling-based
robust
feature
selection
module
reduce
noise
(MHSA)
based
extractor
noval
architecture
enchance
capture.
We
validated
model
porformance
cancer
datasets
from
Cancer
Genome
Atlas
(TCGA),
conducting
two
tasks:
survival
time
classification
across
types
estrogen
receptor
status
breast
cancer.
Our
results
show
outperforms
traditional
machine
learning
state-of-the-art
method
MoGCN
terms
accuracy
weighted
F1
score.
Furthermore,
compared
various
alternative
MHSA-based
architectures
further
validate
our
approach.
consistently
models
combinations.
The
strong
performance
robustness
demonstrate
its
potential
as
valuable
tool
applications.
IEEE Access,
Journal Year:
2025,
Volume and Issue:
13, P. 37724 - 37736
Published: Jan. 1, 2025
Recent
studies
on
integrating
multiple
omics
data
highlighted
the
potential
to
advance
our
understanding
of
cancer
disease
process.
Computational
models
based
graph
neural
networks
and
attention-based
architectures
have
demonstrated
promising
results
for
classification
due
their
ability
model
complex
relationships
among
biological
entities.
However,
challenges
related
addressing
high
dimensionality
complexity
in
multi-omics
data,
as
well
constructing
structures
that
effectively
capture
interactions
between
nodes,
remain
active
areas
research.
This
study
evaluates
network
(MO)
integration
graph-convolutional
(GCN),
graph-attention
(GAT),
graph-transformer
(GTN).
Differential
gene
expression
LASSO
(Least
Absolute
Shrinkage
Selection
Operator)
regression
are
employed
reducing
feature
selection;
hence,
developed
referred
LASSO-MOGCN,
LASSO-MOGAT,
LASSO-MOGTN.
Graph
constructed
using
sample
correlation
matrices
protein-protein
interaction
investigated.
Experimental
validation
is
performed
with
a
dataset
8,464
samples
from
31
types
normal
tissue,
comprising
messenger-RNA,
micro-RNA,
DNA
methylation
data.
The
show
outperformed
trained
single
where
LASSO-MOGAT
achieved
best
overall
performance,
an
accuracy
95.9%.
findings
also
suggest
correlation-based
enhance
models'
identify
shared
cancer-specific
signatures
across
patients
comparison
networks-based
structures.
code
used
this
available
link
(https://github.com/FadiAlharbi2024/Graph_Based_Architecture.git).
Frontiers in Neuroinformatics,
Journal Year:
2024,
Volume and Issue:
18
Published: Sept. 16, 2024
The
Religious
Order
Study
and
Memory
Aging
Project
(ROSMAP)
is
an
initiative
that
integrates
two
longitudinal
cohort
studies,
which
have
been
collecting
clinicopathological
molecular
data
since
the
early
1990s.
This
extensive
dataset
includes
a
wide
array
of
omic
data,
revealing
complex
interactions
between
levels
in
neurodegenerative
diseases
(ND)
aging.
Neurodegenerative
are
frequently
associated
with
morbidity
cognitive
decline
older
adults.
Omics
research,
conjunction
clinical
variables,
crucial
for
advancing
our
understanding
diagnosis
treatment
diseases.
summary
reviews
omics
research—encompassing
genomics,
transcriptomics,
proteomics,
metabolomics,
epigenomics,
multiomics—conducted
through
ROSMAP
study.
It
highlights
significant
advancements
mechanisms
underlying
diseases,
particular
focus
on
Alzheimer's
disease.
Brain Communications,
Journal Year:
2024,
Volume and Issue:
6(4)
Published: Jan. 1, 2024
Abstract
Treatments
that
can
completely
resolve
brain
diseases
have
yet
to
be
discovered.
Omics
is
a
novel
technology
allows
researchers
understand
the
molecular
pathways
underlying
diseases.
Multiple
omics,
including
genomics,
transcriptomics
and
proteomics,
imaging
technologies,
such
as
MRI,
PET
EEG,
contributed
disease-related
therapeutic
target
detection.
However,
new
treatment
discovery
remains
challenging.
We
focused
on
establishing
multi-molecular
maps
using
an
integrative
approach
of
omics
provide
insights
into
disease
diagnosis
treatment.
This
requires
precise
data
collection
processing
normalization.
Incorporating
map
with
advanced
technologies
through
artificial
intelligence
will
help
establish
system
for
regulation
at
level.
BioData Mining,
Journal Year:
2025,
Volume and Issue:
18(1)
Published: March 28, 2025
The
integration
of
multi-omics
data
from
diverse
high-throughput
technologies
has
revolutionized
drug
discovery.
While
various
network-based
methods
have
been
developed
to
integrate
data,
systematic
evaluation
and
comparison
these
remain
challenging.
This
review
aims
analyze
approaches
for
evaluate
their
applications
in
We
conducted
a
comprehensive
literature
(2015-2024)
on
discovery,
categorized
into
four
primary
types:
network
propagation/diffusion,
similarity-based
approaches,
graph
neural
networks,
inference
models.
also
discussed
the
three
scenario
including
target
identification,
response
prediction,
repurposing,
finally
evaluated
performance
by
highlighting
advantages
limitations
specific
applications.
shown
promise
challenges
computational
scalability,
integration,
biological
interpretation.
Future
developments
should
focus
incorporating
temporal
spatial
dynamics,
improving
model
interpretability,
establishing
standardized
frameworks.
Frontiers in Medicine,
Journal Year:
2025,
Volume and Issue:
12
Published: April 16, 2025
Recent
advances
in
machine
learning
are
transforming
medical
image
analysis,
particularly
cancer
detection
and
classification.
Techniques
such
as
deep
learning,
especially
convolutional
neural
networks
(CNNs)
vision
transformers
(ViTs),
now
enabling
the
precise
analysis
of
complex
histopathological
images,
automating
detection,
enhancing
classification
accuracy
across
various
types.
This
study
focuses
on
osteosarcoma
(OS),
most
common
bone
children
adolescents,
which
affects
long
bones
arms
legs.
Early
accurate
OS
is
essential
for
improving
patient
outcomes
reducing
mortality.
However,
increasing
prevalence
demand
personalized
treatments
create
challenges
achieving
diagnoses
customized
therapies.
We
propose
a
novel
hybrid
model
that
combines
(CNN)
(ViT)
to
improve
diagnostic
using
hematoxylin
eosin
(H&E)
stained
images.
The
CNN
extracts
local
features,
while
ViT
captures
global
patterns
from
These
features
combined
classified
Multi-Layer
Perceptron
(MLP)
into
four
categories:
non-tumor
(NT),
non-viable
tumor
(NVT),
viable
(VT),
ratio
(NVR).
Using
Cancer
Imaging
Archive
(TCIA)
dataset,
achieved
an
99.08%,
precision
99.10%,
recall
99.28%,
F1-score
99.23%.
first
successful
four-class
this
setting
new
benchmark
research
offering
promising
potential
future
advancements.
Sensors,
Journal Year:
2025,
Volume and Issue:
25(9), P. 2712 - 2712
Published: April 25, 2025
This
study
presents
a
hybrid
deep
learning
approach
for
bearing
fault
diagnosis
that
integrates
continuous
wavelet
transform
(CWT)
with
an
attention-enhanced
spatiotemporal
feature
extraction
framework.
The
model
combines
time-frequency
domain
analysis
using
CWT
classification
architecture
comprising
multi-head
self-attention
(MHSA),
bidirectional
long
short-term
memory
(BiLSTM),
and
1D
convolutional
residual
network
(1D
conv
ResNet).
effectively
captures
both
spatial
temporal
dependencies,
enhances
noise
resilience,
extracts
discriminative
features
from
nonstationary
nonlinear
vibration
signals.
is
initially
trained
on
controlled
laboratory
dataset
further
validated
real
artificial
subsets
of
the
Paderborn
dataset,
demonstrating
strong
generalization
across
diverse
conditions.
t-SNE
visualizations
confirm
clear
separability
between
categories,
supporting
model’s
capability
precise
reliable
potential
real-time
predictive
maintenance
in
complex
industrial
environments.
Academia Biology,
Journal Year:
2024,
Volume and Issue:
2(3)
Published: Aug. 30, 2024
The
application
of
machine
learning
methods
to
analyze
changes
in
gene
expression
patterns
has
recently
emerged
as
a
powerful
approach
cancer
research,
enhancing
our
understanding
the
molecular
mechanisms
underpinning
development
and
progression.
Combining
data
with
other
types
omics
been
reported
by
numerous
works
improve
classification
outcomes.
Despite
these
advances,
effectively
integrating
high-dimensional
multi-omics
capturing
complex
relationships
across
different
biological
layers
remains
challenging.
This
paper
introduces
LASSO-MOGAT
(LASSO-Multi-Omics
Gated
ATtention),
novel
graph-based
deep
framework
that
integrates
messenger
RNA,
microRNA,
DNA
methylation
classify
31
types.
Utilizing
differential
analysis
LIMMA
LASSO
regression
for
feature
selection,
leveraging
Graph
Attention
Networks
(GATs)
incorporate
protein-protein
interaction
(PPI)
networks,
captures
intricate
within
data.
Experimental
validation
using
five-fold
cross-validation
demonstrates
method's
precision,
reliability,
capacity
providing
comprehensive
insights
into
mechanisms.
computation
attention
coefficients
edges
graph
proposed
graph-attention
architecture
based
on
interactions
proved
beneficial
identifying
synergies
classification.