Computers, materials & continua/Computers, materials & continua (Print),
Journal Year:
2023,
Volume and Issue:
76(3), P. 3763 - 3781
Published: Jan. 1, 2023
As
ocular
computer-aided
diagnostic
(CAD)
tools
become
more
widely
accessible,
many
researchers
are
developing
deep
learning
(DL)
methods
to
aid
in
disease
(OHD)
diagnosis.Common
eye
diseases
like
cataracts
(CATR),
glaucoma
(GLU),
and
age-related
macular
degeneration
(AMD)
the
focus
of
this
study,
which
uses
DL
examine
their
identi
cation.Data
imbalance
outliers
widespread
fundus
images,
can
make
it
di
cult
apply
algorithms
accomplish
analytical
assignment.The
creation
e
cient
reliable
is
seen
be
key
further
enhancing
detection
performance.Using
analysis
images
color
retinal
fundus,
study
o
ers
a
model
that
combined
with
one-of-a-kind
concoction
loss
function
(CLF)
for
automated
cation
OHD.This
presents
combination
focal
(FL)
correntropy-induced
functions
(CILF)
proposed
improve
recognition
performance
classi
biomedical
data.This
done
because
good
generalization
robustness
these
two
types
losses
addressing
complex
datasets
class
outliers.The
our
compared
baseline
models
using
accuracy
(ACU),
recall
(REC),
speci
city
(SPF),
Kappa,
area
under
receiver
operating
characteristic
curve
(AUC)
as
evaluation
metrics.The
testing
shows
method
cient.
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: Jan. 8, 2025
Abstract
Deep
learning-based
medical
image
analysis
has
shown
strong
potential
in
disease
categorization,
segmentation,
detection,
and
even
prediction.
However,
high-stakes
complex
domains
like
healthcare,
the
opaque
nature
of
these
models
makes
it
challenging
to
trust
predictions,
particularly
uncertain
cases.
This
sort
uncertainty
can
be
crucial
analysis;
diabetic
retinopathy
is
an
example
where
slight
errors
without
indication
confidence
have
adverse
impacts.
Traditional
deep
learning
rely
on
single-point
limiting
their
ability
provide
measures
essential
for
robust
clinical
decision-making.
To
solve
this
issue,
Bayesian
approximation
approaches
evolved
are
gaining
market
traction.
In
work,
we
implemented
a
transfer
approach,
building
upon
DenseNet-121
convolutional
neural
network
detect
retinopathy,
followed
by
extensions
trained
model.
techniques,
including
Monte
Carlo
Dropout,
Mean
Field
Variational
Inference,
Deterministic
were
applied
represent
posterior
predictive
distribution,
allowing
us
evaluate
model
predictions.
Our
experiments
combined
dataset
(APTOS
2019
+
DDR)
with
pre-processed
images
showed
that
Bayesian-augmented
outperforms
state-of-the-art
test
accuracy,
achieving
97.68%
Dropout
model,
94.23%
91.44%
We
also
measure
how
certain
predictions
are,
using
entropy
standard
deviation
metric
each
approach.
evaluated
both
AUC
accuracy
scores
at
multiple
data
retention
levels.
addition
overall
performance
boosts,
results
highlight
does
not
only
improve
classification
detection
but
reveals
beneficial
insights
about
estimation
help
build
more
trustworthy
decision-making
solutions.
Research Square (Research Square),
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 2, 2025
Abstract
Glaucoma
is
a
progressive
eye
disease
characterized
by
damage
to
optic
nerve.
Early
detection
and
management
are
crucial
preserving
vision,
making
prediction
of
glaucoma
risk.
To
improve
accurate
prediction,
Gradient-weighted
Class
Activation
Mapped
Deep
Transfer
Learning
(GWCAMDTL)
model
developed.
The
main
aim
the
enhance
accuracy
while
minimizing
time
consumption.
Retinal
fundus
images
collected
from
dataset
for
in
image
acquisition
phase.
transfer
learning
involves
adapting
pre-trained
deep
performing
prediction.
In
proposed
model,
Multilayer
Perceptron
classifier
used
as
analyzing
given
large
number
training
images.
Then,
new
constructed
along
with
its
Initially,
layers
usually
frozen
preserve
learned
features
infected
regions.
Transferring
information
previously
results
mode
tasks
has
potential
significantly
feature
efficiency
applying
congruence
correlation
coefficient.
Mapping
generates
visual
explanations
predictions
made
model.
Fine-tuning
part
learning.
During
fine-tuning
weights
certain
updated
better
fit
specific
characteristics
dataset,
leading
reduction
both
validation
error.
This
approach
improves
strengths
it
clinical
retinal
process
helps
make
extensively
F1-score.
Experimental
conducted
using
various
evaluation
metrics.
Results
GWCAMDTL
achieve
higher
reduced
well
error
compared
existing
methods.
Biomedical Signal Processing and Control,
Journal Year:
2024,
Volume and Issue:
96, P. 106621 - 106621
Published: July 13, 2024
The
existence
of
fundus
diseases
not
only
endangers
people's
vision,
but
also
brings
serious
economic
burden
to
the
society.
Fundus
images
are
an
objective
and
standard
basis
for
diagnosis
diseases.
With
continuous
advancement
computer
science,
deep
learning
methods
dominated
by
convolutional
neural
networks
(CNN)
have
been
widely
used
in
image
classification.
However,
current
CNN-based
classification
research
still
has
a
lot
room
improvement:
CNN
cannot
effectively
avoid
interference
repeated
background
information
limited
ability
model
whole
world.
In
response
above
findings,
this
paper
proposes
CNN-Trans
model.
is
parallel
dual-branch
network,
which
two
branches
CNN-LSTM
Vision
Transform
(ViT).
branch
uses
Xception
after
transfer
learning.
As
original
feature
extractor,
LSTM
responsible
dealing
with
gradient
disappearance
problem
network
iterations
before
head,
then
introduces
new
type
lightweight
attention
mechanism
between
LSTM:
Coordinate
Attention,
so
as
emphasize
key
related
suppress
less
useful
information;
while
self-attention
ViT
local
interactions,
it
can
establish
long-distance
dependence
on
target
extract
global
features.
Finally,
concatenation
(Concat)
operation
fuse
features
branches.
extracted
form
complementary
advantages.
After
fusion,
more
comprehensive
sent
layer.
large
number
experimental
tests
comparisons,
results
show
that:
achieved
accuracy
80.68%
task,
that
comparable
state-of-the-art
methods.
performance..
Journal of Machine and Computing,
Journal Year:
2025,
Volume and Issue:
unknown, P. 015 - 029
Published: Jan. 3, 2025
One
of
the
major
factors
contributing
to
rising
death
rate
is
cardiovascular
disease.
Analyzing
clinical
data
has
made
it
harder
predict
To
solve
aforementioned
problems,
an
improved
DenseNet
model
presented
in
this
study.
The
proposed
approach
forecasts
Central
Retinal
Artery
Occlusion
(CRAO)
and
Coronary
Disease
(CAD)
simultaneously
by
using
patient's
from
eye
cardiac
examinations.
Then,
coherence
relationship
calculated
with
help
Pearson’s
correlation
coefficient
for
both
diseases.
As
far
as
we
are
aware,
first
study
use
DL
techniques
between
CRAO
CAD.
While
predicting
CAD,
Improved
97.5%
accuracy
when
compared
benchmarked
models
like
ResNet
50
VGG16.
Applied Sciences,
Journal Year:
2023,
Volume and Issue:
13(20), P. 11437 - 11437
Published: Oct. 18, 2023
Eye
diseases
can
result
in
various
challenges
and
visual
impairments.
These
affect
an
individual’s
quality
of
life
general
health
well-being.
The
symptoms
eye
vary
widely
depending
on
the
nature
severity
disease.
Early
diagnosis
protect
individuals
from
impairment.
Artificial
intelligence
(AI)-based
disease
classification
(EDC)
assists
physicians
providing
effective
patient
services.
However,
complexities
fundus
image
classifier’s
performance.
There
is
a
demand
for
practical
EDC
identifying
earlier
stages.
Thus,
author
intends
to
build
model
using
deep
learning
(DL)
technique.
Denoising
autoencoders
are
used
remove
noises
artifacts
images.
single-shot
detection
(SSD)
approach
generates
key
features.
whale
optimization
algorithm
(WOA)
with
Levy
Flight
Wavelet
search
strategy
followed
selecting
In
addition,
Adam
optimizer
(AO)
applied
fine-tune
ShuffleNet
V2
classify
Two
benchmark
datasets,
ocular
intelligent
recognition
(ODIR)
utilized
performance
evaluation.
proposed
achieved
accuracy
Kappa
values
99.1
96.4,
99.4
96.5,
ODIR
respectively.
It
outperformed
recent
models.
findings
highlight
significance
classifying
complex
Healthcare
centers
implement
improve
their
standards
serve
more
significant
number
patients.
future,
be
extended
identify
comprehensive
range
diseases.