BioMedical Engineering OnLine,
Journal Year:
2024,
Volume and Issue:
23(1)
Published: Dec. 23, 2024
This
study
aims
to
accurately
predict
the
effects
of
hormonal
therapy
on
prostate
cancer
(PC)
lesions
by
integrating
multi-modality
magnetic
resonance
imaging
(MRI)
and
clinical
marker
prostate-specific
antigen
(PSA).
It
addresses
limitations
Convolutional
Neural
Networks
(CNNs)
in
capturing
long-range
spatial
relations
Vision
Transformer
(ViT)'s
deficiency
localization
information
due
consecutive
downsampling.
The
research
question
focuses
improving
PC
response
prediction
accuracy
combining
both
approaches.
We
propose
a
3D
multi-branch
CNN
(CNNFormer)
model,
ViT.
Each
branch
model
utilizes
encode
volumetric
images
into
high-level
feature
representations,
preserving
detailed
localization,
while
ViT
extracts
global
salient
features.
framework
was
evaluated
39-individual
patient
cohort,
stratified
PSA
biomarker
status.
Our
achieved
remarkable
performance
differentiating
responders
non-responders
therapy,
with
an
97.50%,
sensitivity
100%,
specificity
95.83%.
These
results
demonstrate
effectiveness
CNNFormer
despite
cohort's
small
size.
findings
emphasize
framework's
potential
enhancing
personalized
treatment
planning
monitoring.
By
strengths
ViT,
proposed
approach
offers
robust,
accurate
implications
for
decision-making.
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: April 11, 2025
Abstract
To
address
the
public
health
issue
of
renal
failure
and
global
shortage
nephrologists,
an
AI-based
system
has
been
developed
to
automatically
identify
kidney
diseases.
Recent
advancements
in
machine
learning,
deep
learning
(DL),
artificial
intelligence
(AI)
have
unlocked
new
possibilities
healthcare.
By
harnessing
these
technologies,
we
can
analyze
data
gain
insights
into
symptoms
patterns,
ultimately
facilitating
remote
patient
care.
create
diagnosis
for
disease,
this
paper
focused
on
three
major
categories
diseases:
stones,
cysts,
tumors,
which
were
collected
annotated
12,446
computed
tomography
(CT)
whole
abdomen
urogram
images.
effectively
aid
automatic
identification
diseases,
a
novel
DL
model
built
transfer-learning
(TL)
technology
is
implemented
work.
models
are
designed
focus
problems,
whereas
TL
uses
knowledge
acquired
while
resolving
one
another
pertinent
issue.
The
proposed
combines
multiple
improve
overall
performance
by
leveraging
strengths
different
architectures,
ensembles
enhance
accuracy,
robustness,
generalization.
It
enhances
features
extracted
from
MobileNet-V2,
ResNet50,
EfficientNet-B0
networks
using
metaheuristic
algorithms
bidirectional
long-short-term
memory
(Bi-LSTM)
CT
image.
MobileNetV2,
hyperparameters
optimized
modified
grey
wolf
optimization
(GWO)
approach
better
performance.
suggested
model’s
measured
five
assessment
metrics:
sensitivity,
specificity,
precision,
area
under
ROC
curve
(AUC)
achieved
99.85%
99.8%
99.3%
98.1%
1.0
AUC.
Advances in computational intelligence and robotics book series,
Journal Year:
2025,
Volume and Issue:
unknown, P. 291 - 306
Published: March 28, 2025
Monkeypox
is
viral
disease
transmitted
from
animals
to
man
and
presents
symptoms
of
smallpox
especially
rashes
lesions
on
the
skin.
The
recent
mutation
that
has
led
human-to-human
transmission
caused
international
concern
therefore
enhanced
method
diagnosing
required
proved.
In
this
part
work,
we
bring
forward
a
powerful
approach
for
monkeypox
classification
with
pooled-based
vision
transformer
mode
called
as
Pooling-based
Vision
Transformer
(PiT)
architecture
merged
MobileNetV3
trained
Adam
optimizer.
By
merging
strengths
both
architectures
can
enhance
representation
power
by
integrating
local
global
feature
extraction.
This
hybrid
significantly
reduces
computational
load
through
techniques
like
token
pooling,
leading
higher
accuracy
without
proportional
increase
in
costs.
Lion
optimizer
employed
model
convergence
response
performance
contrast
other
optimizers.
For
task,
proposed
was
94.23,
91,
93.5
90.75
%
occupancy
accuracy,
precision,
recall,
F1
score.
BMC Medical Imaging,
Journal Year:
2024,
Volume and Issue:
24(1)
Published: Aug. 9, 2024
A
recent
global
health
crisis,
COVID-19
is
a
significant
crisis
that
has
profoundly
affected
lifestyles.
The
detection
of
such
diseases
from
similar
thoracic
anomalies
using
medical
images
challenging
task.
Thus,
the
requirement
an
end-to-end
automated
system
vastly
necessary
in
clinical
treatments.
In
this
way,
work
proposes
Squeeze-and-Excitation
Attention-based
ResNet50
(SEA-ResNet50)
model
for
detecting
utilizing
chest
X-ray
data.
Here,
idea
lies
improving
residual
units
squeeze-and-excitation
attention
mechanism.
For
further
enhancement,
Ranger
optimizer
and
adaptive
Mish
activation
function
are
employed
to
improve
feature
learning
SEA-ResNet50
model.
evaluation,
two
publicly
available
radiographic
datasets
utilized.
input
augmented
during
experimentation
robust
evaluation
against
four
output
classes
namely
normal,
pneumonia,
lung
opacity,
COVID-19.
Then
comparative
study
done
VGG-16,
Xception,
ResNet18,
ResNet50,
DenseNet121
architectures.
proposed
framework
together
with
provided
maximum
classification
accuracies
98.38%
(multiclass)
99.29%
(binary
classification)
as
compared
existing
CNN
method
achieved
highest
Kappa
validation
scores
0.975
0.98
over
others.
Furthermore,
visualization
saliency
maps
abnormal
regions
represented
explainable
artificial
intelligence
(XAI)
model,
thereby
enhancing
interpretability
disease
diagnosis.
Neural Computing and Applications,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Oct. 19, 2024
Abstract
Retinal
illnesses
such
as
age-related
macular
degeneration
(AMD)
and
diabetic
maculopathy
pose
serious
risks
to
vision
in
the
developed
world.
The
diagnosis
assessment
of
these
disorders
have
undergone
revolutionary
change
with
development
optical
coherence
tomography
(OCT).
This
study
proposes
a
novel
method
for
improving
clinical
precision
retinal
disease
by
utilizing
strength
Attention-Based
DenseNet,
deep
learning
architecture
attention
processes.
For
model
building
evaluation,
dataset
84495
high-resolution
OCT
images
divided
into
NORMAL,
CNV,
DME,
DRUSEN
classes
was
used.
Data
augmentation
techniques
were
employed
enhance
model's
robustness.
DenseNet
achieved
validation
accuracy
0.9167
batch
size
32
50
training
epochs.
discovery
presents
promising
route
more
precise
speedy
identification
illnesses,
ultimately
enhancing
patient
care
outcomes
settings
integrating
cutting-edge
technology
powerful
neural
network
architectures.