2022 9th International Conference on Computing for Sustainable Global Development (INDIACom),
Journal Year:
2024,
Volume and Issue:
unknown, P. 87 - 92
Published: Feb. 28, 2024
Glaucoma
is
a
common
retinal
disorder
that
has
an
impact
on
the
optic
nerve,
resulting
in
irreversible
sight
loss
if
left
untreated.
Although
early
detection
crucial
for
optimal
management,
manual
difficult
and
needs
highly
competent
ophthalmologists.
To
overcome
this
issue,
study
Employ
Convolutional
Neural
Networks
(CNNs)
further
deep
learning
techniques,
to
detect
glaucoma
automatically.
The
employs
standardization
technique
dataset
of
5000
pictures
ensure
all
images
are
uniform
at
$256\times
256$
pixels.
Data
augmentation
techniques
such
as
rescaling,
rotation,
vertical
horizontal
shifts
used
consistently
improve
variety
model
resilience.
MobileNetV3
architecture
detection,
two
optimizers,
Stochastic
Gradient
Descent
(SGD)
Adam
during
training.
Pre-processing
refines
incoming
by
turning
them
greyscale,
adding
Gaussian
noise,
ensuring
pixel
values
inside
[0,
255]
range.
Accuracy,
precision,
recall,
specificity,
F-measure
part
performance
evaluation.
Comparative
analyses
evaluate
suggested
model's
efficacy,
assuring
its
dependability
quality.
results
show
proficient
detecting
due
excellent
classification
accuracy.
This
work
improves
automated
perhaps
assisting
diagnosis
treatment,
so
protecting
patients
from
irreparable
vision
caused
"silent
thief
vision."
Bioengineering,
Journal Year:
2024,
Volume and Issue:
11(12), P. 1302 - 1302
Published: Dec. 23, 2024
Accurate
segmentation
of
brain
tumors
in
MRI
scans
is
critical
for
diagnosis
and
treatment
planning.
Traditional
models,
such
as
U-Net,
excel
capturing
spatial
information
but
often
struggle
with
complex
tumor
boundaries
subtle
variations
image
contrast.
These
limitations
can
lead
to
inconsistencies
identifying
regions,
impacting
the
accuracy
clinical
outcomes.
To
address
these
challenges,
this
paper
proposes
a
novel
modification
U-Net
architecture
by
integrating
attention
mechanism
designed
dynamically
focus
on
relevant
regions
within
scans.
This
innovation
enhances
model's
ability
delineate
fine
improves
precision.
Our
model
was
evaluated
Figshare
dataset,
which
includes
annotated
images
meningioma,
glioma,
pituitary
tumors.
The
proposed
achieved
Dice
similarity
coefficient
(DSC)
0.93,
recall
0.95,
an
AUC
0.94,
outperforming
existing
approaches
V-Net,
DeepLab
V3+,
nnU-Net.
results
demonstrate
effectiveness
our
addressing
key
challenges
like
low-contrast
boundaries,
small
overlapping
Furthermore,
lightweight
design
ensures
its
suitability
real-time
applications,
making
it
robust
tool
automated
segmentation.
study
underscores
potential
mechanisms
significantly
enhance
medical
imaging
models
paves
way
more
effective
diagnostic
tools.
Frontiers in Neuroinformatics,
Journal Year:
2025,
Volume and Issue:
19
Published: April 17, 2025
Brain
tumors
are
a
leading
cause
of
mortality
worldwide,
with
early
and
accurate
diagnosis
being
essential
for
effective
treatment.
Although
Deep
Learning
(DL)
models
offer
strong
performance
in
tumor
detection
segmentation
using
MRI,
their
black-box
nature
hinders
clinical
adoption
due
to
lack
interpretability.
We
present
hybrid
AI
framework
that
integrates
3D
U-Net
Convolutional
Neural
Network
MRI-based
radiomic
feature
extraction.
Dimensionality
reduction
is
performed
machine
learning,
an
Adaptive
Neuro-Fuzzy
Inference
System
(ANFIS)
employed
produce
interpretable
decision
rules.
Each
experiment
constrained
small
set
high-impact
features
enhance
clarity
reduce
complexity.
The
was
validated
on
the
BraTS2020
dataset,
achieving
average
DICE
Score
82.94%
core
76.06%
edema
segmentation.
Classification
tasks
yielded
accuracies
95.43%
binary
(healthy
vs.
tumor)
92.14%
multi-class
edema)
problems.
A
concise
18
fuzzy
rules
generated
provide
clinically
outputs.
Our
approach
balances
high
diagnostic
accuracy
enhanced
interpretability,
addressing
critical
barrier
applying
DL
settings.
Integrating
ANFIS
radiomics
supports
transparent
decision-making,
facilitating
greater
trust
applicability
real-world
medical
diagnostics
assistance.
Electronics,
Journal Year:
2025,
Volume and Issue:
14(9), P. 1863 - 1863
Published: May 2, 2025
Brain
tumor
prediction
from
magnetic
resonance
images
is
an
important
problem,
but
it
difficult
due
to
the
complexity
of
brain
structure
and
variability
in
appearance.
There
have
been
various
ML
DL-based
approaches,
limitations
current
models
are
a
lack
adaptability
new
tasks
need
for
extensive
training
on
large
datasets.
To
address
these
issues,
novel
meta-learning
approach
has
proposed,
enabling
rapid
adaptation
with
limited
data.
This
paper
presents
method
that
integrates
vision
transformer
metric-based
model,
few-shot
learning
enhance
classification
performance.
The
proposed
begins
preprocessing
MRI
images,
followed
by
feature
extraction
using
transformer.
A
Siamese
network
enhances
model’s
learning,
quick
unseen
data
improving
robustness.
Furthermore,
applying
strategy
performance
when
there
comparison
other
developed
reveals
consistently
performs
better.
It
also
compared
previously
approaches
same
datasets
evaluation
metrics
including
accuracy,
precision,
specificity,
recall,
F1-score.
results
demonstrate
efficacy
our
methodology
classification,
which
significant
implications
enhancing
diagnostic
accuracy
patient
outcomes.