In
order
to
improve
diagnostic
precision,
this
study
offers
an
original
framework
for
multimodal
health
image
fusion
that
makes
use
of
cloud-based
deep
learning.
A
descriptive
design
is
used
with
additional
information
gathering,
utilizing
approach
deductive
along
interpretivist
perspective.
The
convolutional
neural
network-based
suggested
model
assessed
in
terms
its
scalability,
effectiveness,
and
stored
the
cloud
computational
effectiveness.
When
results
are
compared
current
techniques,
they
demonstrate
higher
precision.
model's
possible
consequences
on
healthcare
highlighted
by
interpretation
clinical
utility.
Limitations
addressed
through
critical
analysis,
suggestions
include
enhancing
model,
investigating
edge
computing,
taking
ethical
issues
into
account.
Subsequent
efforts
ought
concentrate
refining
growing
dataset,
guaranteeing
interpretability.
Cancers,
Journal Year:
2024,
Volume and Issue:
16(18), P. 3205 - 3205
Published: Sept. 20, 2024
Background:
Colorectal
cancer
is
one
of
the
most
prevalent
forms
and
associated
with
a
high
mortality
rate.
Additionally,
an
increasing
number
adults
under
50
are
being
diagnosed
disease.
This
underscores
importance
leveraging
modern
technologies,
such
as
artificial
intelligence,
for
early
diagnosis
treatment
support.
Methods:
Eight
classifiers
were
utilized
in
this
research:
Random
Forest,
XGBoost,
CatBoost,
LightGBM,
Gradient
Boosting,
Extra
Trees,
k-nearest
neighbor
algorithm
(KNN),
decision
trees.
These
algorithms
optimized
using
frameworks
Optuna,
RayTune,
HyperOpt.
study
was
conducted
on
public
dataset
from
Brazil,
containing
information
tens
thousands
patients.
Results:
The
models
developed
demonstrated
classification
accuracy
predicting
one-,
three-,
five-year
survival,
well
overall
cancer-specific
mortality.
Forest
delivered
best
performance,
achieving
approximately
80%
across
all
evaluated
tasks.
Conclusions:
research
enabled
development
effective
that
can
be
applied
clinical
practice.
Indian Journal of Science and Technology,
Journal Year:
2024,
Volume and Issue:
17(10), P. 899 - 910
Published: March 1, 2024
Objectives:
To
propose
a
new
AI
based
CAD
model
for
early
detection
and
severity
analysis
of
pulmonary
(lung)
cancer
disease.
A
deep
learning
artificial
intelligence-based
approach
is
employed
to
maximize
the
discrimination
power
in
CT
images
minimize
dimensionality
order
boost
accuracy.
Methods:
The
AI-based
3D
Convolutional
Neural
Network
(3D-DLCNN)
method
learn
complex
patterns
features
robust
way
efficient
classification.
nodules
are
identified
by
Mask-R-CNN
at
initial
level,
classification
done
3D-DLCNN.
Kernel
Density
Estimation
(KDE)
used
discover
error
data
points
extracted
removal
before
candidate
screening.
study
uses
CT-DICOM
dataset,
which
includes
355
instances
251135
with
target
attributes
cancer,
healthy,
condition
(if
positive).
Statistical
outlier
utilized
measure
z-score
each
feature
reduce
point
deviation.
intensity
pixel
masking
CT-DOCIM
measured
using
ER-NCN
identify
performance
3D-DLCNN
MATLAB
R2020a
tool
comparative
prevailing
approaches
such
as
GA-PSO,
SVM,
KNN,
BPNN.
Findings:
suggested
outperforms
models
promising
results
93%
accuracy
rate,
92.7%
sensitivity,
93.4%
specificity,
0.8
AUC-ROC,
6.6%
FPR,
0.87
C-Index,
helps
pulmonologists
detect
PC
diagnosis.
Novelty:
novel
hybrid
has
ability
disease
analyze
score
patient
an
stage
during
screening
process
candidates.
It
overcomes
limitations
machine
models,
Keywords:
Artificial
Intelligence,
Disease
Prediction,
Lung
Cancer,
Deep
Learning,
Cancer
Detection,
Computational
Model,
Frontiers in Bioinformatics,
Journal Year:
2025,
Volume and Issue:
5
Published: April 17, 2025
The
incidence
of
non-alcoholic
fatty
liver
disease
(NAFLD),
encompassing
the
more
severe
steatohepatitis
(NASH),
is
rising
alongside
surges
in
diabetes
and
obesity.
Increasing
evidence
indicates
that
NASH
responsible
for
a
significant
share
idiopathic
hepatocellular
carcinoma
(HCC)
cases,
fatal
cancer
with
5-year
survival
rate
below
22%.
Biomarkers
can
facilitate
early
screening
monitoring
at-risk
NAFLD/NASH
patients
assist
identifying
potential
drug
candidates
treatment.
This
study
utilized
an
ensemble
feature
selection
framework
to
analyze
transcriptomic
data,
biomarker
genes
associated
stage-wise
progression
NAFLD-related
HCC.
Seven
machine
learning
algorithms
were
assessed
stage
classification.
Twelve
methods
including
correlation-based
techniques,
mutual
information-based
methods,
embedded
techniques
rank
top
as
features,
through
this
approach,
multiple
combined
yield
robust
features
important
progression.
Cox
regression-based
analysis
was
carried
out
evaluate
potentiality
these
genes.
Furthermore,
multiphase
repurposing
strategy
molecular
docking
employed
identify
against
biomarkers.
Among
seven
models
initially
evaluated,
DISCR
resulted
most
accurate
classifier.
Ensemble
identified
ten
genes,
among
which
eight
recognized
biomarkers
based
on
analysis.
These
include
ABAT,
ABCB11,
MBTPS1,
ZFP1
mostly
involved
alanine
glutamate
metabolism,
butanoate
ER
protein
processing.
Through
repurposing,
81
candidate
drugs
found
be
effective
markers
Diosmin,
Esculin,
Lapatinib,
Phenelzine
best
screened
MMGBSA.
consensus
derived
from
enhances
accuracy
relevant
NAFLD-associated
use
highlights
therapeutic
options
intervention,
essential
stop
improve
outcomes.
Timely
and
precise
identification
categorization
of
lung
cancer
are
crucial
for
improving
patient
survival
rates.
Although
diagnostic
technologies
have
made
progress,
the
complex
characteristics
malignant
tumors
provide
considerable
difficulties
in
analyzing
images.
In
this
study,
a
groundbreaking
approach
is
introduced,
merging
Adaptive
Neuro-Fuzzy
Inference
System
(ANFIS)
with
VGG-19
deep
learning
framework
to
effectively
address
these
complexities.
The
model,
trained
on
varied
imaging
data
from
IQ-OTH/NCCD
dataset,
has
exceptional
performance
precisely
recognizing,
predicting,
pinpointing
symptoms.
model
utilized
because
its
extensive
capacity
extract
intricate
information
pictures,
accurately
identifying
possible
cancers.
After
extracting
data,
ANFIS
utilizes
fuzzy
logic
analyze
features,
enabling
detailed
patterns
that
enhances
both
accuracy
interpretability.
This
technique
combines
advanced
capabilities
neural
networks
valuable
insights
logic,
establishing
new
standard
medical
diagnoses.
results
our
research
show
improvements
important
measures,
such
as
classifying,
reliability
precision
locating.
These
advancements
represent
major
progress
compared
current
methods,
underscore
transformative
potential
integrating
AI
traditional
techniques.
VFAST Transactions on Software Engineering,
Journal Year:
2024,
Volume and Issue:
12(2), P. 241 - 249
Published: June 30, 2024
Lung
cancer
is
one
of
the
deadliest
forms
cancer,
witnessing
thousands
new
diagnoses
annually.
Early
detection
remains
paramount;
without
it,
survival
rates
plummet
drastically.
This
underscores
critical
role
employing
artificial
intelligence
(AI)
for
early
diagnosis,
a
pivotal
step
in
combating
this
devastating
illness.
study
introduces
sophisticated
computer-aided
system,
aiming
to
revolutionize
lung
through
state-of-the-art
convolutional
neural
network
(CNN)
technology.
By
harnessing
capabilities
AI
and
CNN's,
enabling
precise
categorization
patients
into
those
exhibiting
normal
tissue,
benign
nodules,
or
malignant
cancer.The
primary
objective
streamline
diagnosis
efforts,
thereby
facilitating
prompt
intervention
treatment
initiation
enhance
patient
outcomes
bolster
rates.
Leveraging
cutting-edge
technology,
innovative
approach
aims
transform
landscape
offering
hope
more
effective
strategies
deadly
disease.
Furthermore,
by
CNN
bridge
existing
gaps
insights
opportunities
advancements
medical
research
clinical
practice.
Ultimately,
successful
implementation
has
potential
significantly
impact
field
treatment,
improved
increased
Through
continued
development,
further
AI-based
diagnostic
tools
can
be
achieved,
paving
way
brighter
future
fight
against
cancer.
Engineering Technology & Applied Science Research,
Journal Year:
2024,
Volume and Issue:
14(5), P. 16847 - 16853
Published: Oct. 9, 2024
In
the
last
ten
years,
lung
cancer
and
chronic
pulmonary
diseases
have
become
prominent
respiratory
that
require
significant
attention.
This
increase
in
prominence
underscores
their
widespread
impact
on
public
health
urgent
need
for
better
understanding,
detection,
management
strategies.
Accurate
identification
of
Chronic
Obstructive
Pulmonary
Disease
(COPD)
is
crucial
preserving
human
life.
differentiation
between
two
disorders
administration
necessary
treatment
are
very
important.
study
focuses
effectively
discriminating
deadliest
chest
using
X-ray
images.
Recurrent
neural
networks
help
to
classify
accurately
by
improving
feature
extraction
from
radiographs.
The
proposed
algorithm
performs
more
when
analyzing
image
datasets
showing
alterations
a
patient's
chest,
including
development
tiny
lobes
or
thicker
capillaries
system
among
other
details,
compared
standard
imaging.
Research Square (Research Square),
Journal Year:
2024,
Volume and Issue:
unknown
Published: Feb. 29, 2024
Abstract
Medical
images
are
affected
by
various
complications
such
as
noise
and
deficient
contrast.
To
increase
the
quality
of
an
image,
it
is
highly
important
to
contrast
eliminate
noise.
In
field
image
processing,
enhancement
one
essential
methods
for
recovering
visual
aspects
image.
However
segmentation
medical
brain
MRI
lungs
CT
scans
properly
difficult.
this
article,
a
novel
hybrid
method
proposed
lung
images.
The
suggested
article
includes
two
steps.
1st
step,
were
enhanced.
During
enhancement,
gone
through
many
steps
de-hazing,
complementing,
channel
stretching,
course
illumination,
fusion
principal
component
analysis
(PCA).
second
modified
U-Net
model
was
applied
segment
We
evaluated
entropy
input
output
images,
mean
square
error
(MSE),
peak
signal-to-noise
ratio
(PSNR),
gradient
magnitude
similarity
deviation
(GMSD),
multi-scale
(MCSD)
after
process.
we
used
both
original
enhanced
calculated
accuracy.
found
that
Dice-coefficient
0.9695
0.9797
The
disease
known
as
lung
cancer,
which
is
common
and
frequently
deadly,
starts
in
the
cells
of
lungs
causes
symptoms
like
exhaustion,
chest
pain,
persistent
coughing.
Since
small
cell
cancer
(SCLC)
less
frequent
but
more
dangerous
than
non-small
(NSCLC),
knowledge
its
causes,
including
smoking,
pollution,
genetic
factors,
essential.
Survival
rates
are
greatly
increased
by
early
identification
about
20%.
This
study
comprehensively
analyzes
deep
learning
machine
models-based
prediction
methods
from
2016
to
2023.
review
emphasizes
how
well
these
models
work
achieve
greater
accuracy.
Expanding
on
this,
a
new
method
suggested
that
combines
data
augmentation
denoising
preprocessing
with
CNN
ResNet
architecture
for
classification.
goal
this
hybrid
model
maintain
improve
accuracy
levels
benign
malignant
pictures.
methodology
offers
promising
promises
accurate
reliable
utilizing
advances
both
classification
techniques.