International Journal of Pure and Applied Sciences,
Journal Year:
2024,
Volume and Issue:
unknown
Published: June 22, 2024
Beyin
tümörleri
dünya
çapında
önemli
bir
patolojik
durumu
temsil
etmektedir.
Be-yin
içindeki
dokunun
anormal
büyümesiyle
karakterize
edilen
bu
tümörler,
sağlıklı
beyin
dokularını
yerinden
ederek
ve
kafa
içi
basıncını
yükselterek
ciddi
tehdit
oluşturmaktadır.
Zamanında
müdahale
edilmediği
takdirde
durumun
sonuçları
ölümcül
olabilir.
Manyetik
Rezonans
Görüntüleme
(MRG),
özellikle
yumuşak
do-kuları
incelemek
için
çok
uygun
olan
güvenilir
tanı
yöntemi
olarak
öne
çık-maktadır.
Bu
makale,
(MR)
görüntülerini
kullanarak
kanserlerinin
otomatik
tespiti
yenilikçi
derin
öğrenme
tabanlı
yaklaşım
sunmaktadır.
Önerilen
metodoloji,
MR
görüntülerinden
özellikler
çıkarmak
yeni
Residual-ESA
modelinin
(A-ESA,
yani
Residual
Convolutional
Neural
Network)
sıfırdan
eğitilmesini
içermektedir.
yaklaşım,
2
sınıf
(sağlıklı
tümör)
4
(glioma
tümörü,
meningioma
hipofiz
tümörü
tümörsüz)
veri
setlerinden
oluşan
iki
ayrı
seti
üzerinde
değerlendirilmiştir.
sınıflı
kümeleri
en
iyi
sınıflandırma
doğruluğu
sırasıyla
%88.23
%77.14
idi.
Computers in Biology and Medicine,
Journal Year:
2025,
Volume and Issue:
191, P. 110166 - 110166
Published: April 17, 2025
Early
detection
of
brain
tumors
in
MRI
images
is
vital
for
improving
treatment
results.
However,
deep
learning
models
face
challenges
like
limited
dataset
diversity,
class
imbalance,
and
insufficient
interpretability.
Most
studies
rely
on
small,
single-source
datasets
do
not
combine
different
feature
extraction
techniques
better
classification.
To
address
these
challenges,
we
propose
a
robust
explainable
stacking
ensemble
model
multiclass
tumor
that
combines
EfficientNetB0,
MobileNetV2,
GoogleNet,
Multi-level
CapsuleNet,
using
CatBoost
as
the
meta-learner
improved
aggregation
classification
accuracy.
This
approach
captures
complex
characteristics
while
enhancing
robustness
The
proposed
integrates
CapsuleNet
within
framework,
utilizing
to
improve
We
created
two
large
by
merging
data
from
four
sources:
BraTS,
Msoud,
Br35H,
SARTAJ.
tackle
applied
Borderline-SMOTE
augmentation.
also
utilized
methods,
along
with
PCA
Gray
Wolf
Optimization
(GWO).
Our
was
validated
through
confidence
interval
analysis
statistical
tests,
demonstrating
superior
performance.
Error
revealed
misclassification
trends,
assessed
computational
efficiency
regarding
inference
speed
resource
usage.
achieved
97.81%
F1
score
98.75%
PR
AUC
M1,
98.32%
99.34%
M2.
Moreover,
consistently
surpassed
state-of-the-art
CNNs,
Vision
Transformers,
other
methods
classifying
across
individual
datasets.
Finally,
developed
web-based
diagnostic
tool
enables
clinicians
interact
visualize
decision-critical
regions
scans
Explainable
Artificial
Intelligence
(XAI).
study
connects
high-performing
AI
real
clinical
applications,
providing
reliable,
scalable,
efficient
solution
Diagnostics,
Journal Year:
2024,
Volume and Issue:
14(16), P. 1714 - 1714
Published: Aug. 7, 2024
Brain
tumors
are
a
leading
cause
of
death
globally,
with
numerous
types
varying
in
malignancy,
and
only
12%
adults
diagnosed
brain
cancer
survive
beyond
five
years.
This
research
introduces
hyperparametric
convolutional
neural
network
(CNN)
model
to
identify
tumors,
significant
practical
implications.
By
fine-tuning
the
hyperparameters
CNN
model,
we
optimize
feature
extraction
systematically
reduce
complexity,
thereby
enhancing
accuracy
tumor
diagnosis.
The
critical
include
batch
size,
layer
counts,
learning
rate,
activation
functions,
pooling
strategies,
padding,
filter
size.
hyperparameter-tuned
was
trained
on
three
different
MRI
datasets
available
at
Kaggle,
producing
outstanding
performance
scores,
an
average
value
97%
for
accuracy,
precision,
recall,
F1-score.
Our
optimized
is
effective,
as
demonstrated
by
our
methodical
comparisons
state-of-the-art
approaches.
hyperparameter
modifications
enhanced
strengthened
its
capacity
generalization,
giving
medical
practitioners
more
accurate
effective
tool
making
crucial
judgments
regarding
step
right
direction
toward
trustworthy
diagnosis,
implications
improving
patient
outcomes.
British Journal of Computer Networking and Information Technology,
Journal Year:
2024,
Volume and Issue:
7(4), P. 27 - 46
Published: Oct. 9, 2024
This
research
assessed
advancements
in
brain
tumour
classification
using
convolutional
neural
networks
(CNNs)
and
MRI
data.
An
analysis
of
37
studies
highlighted
the
effectiveness
CNN
architectures
pre-processing
methods
accurately
categorising
tumours.
Issues
such
as
class
disparities
model
interpretability
were
identified,
prompting
recommendations
for
advanced
deep
learning
techniques,
ensemble
methods,
diverse
datasets
to
enhance
diagnostic
accuracy.
The
findings
underscored
importance
these
achieving
high
accuracy,
with
a
maximum
rate
98.80%
from
154
images.
systematic
study
also
included
meta-analysis
2018
2022,
revealing
patterns
cases
across
demographics
providing
insights
into
healthcare
trends.
Diagnostics,
Journal Year:
2024,
Volume and Issue:
14(10), P. 997 - 997
Published: May 11, 2024
Deep
learning
(DL)
networks
have
shown
attractive
performance
in
medical
image
processing
tasks
such
as
brain
tumor
classification.
However,
they
are
often
criticized
mysterious
"black
boxes".
The
opaqueness
of
the
model
and
reasoning
process
make
it
difficult
for
health
workers
to
decide
whether
trust
prediction
outcomes.
In
this
study,
we
develop
an
interpretable
multi-part
attention
network
(IMPA-Net)
classification
enhance
interpretability
trustworthiness
proposed
not
only
predicts
grade
but
also
provides
a
global
explanation
local
justification
proffered
prediction.
Global
is
represented
group
feature
patterns
that
learns
distinguish
high-grade
glioma
(HGG)
low-grade
(LGG)
classes.
Local
interprets
individual
by
calculating
similarity
between
prototypical
parts
pre-learned
task-related
features.
Experiments
conducted
on
BraTS2017
dataset
demonstrate
IMPA-Net
verifiable
task.
A
percentage
86%
were
assessed
two
radiologists
be
valid
representing
task-relevant
shows
accuracy
92.12%,
which
81.17%
evaluated
trustworthy
based
explanations.
Our
can
used
decision
aids
Compared
with
black-box
CNNs,
allows
patients
understand
Scientific Reports,
Journal Year:
2024,
Volume and Issue:
14(1)
Published: Oct. 28, 2024
Brain
tumors
are
among
the
most
fatal
and
devastating
diseases,
they
often
result
in
a
significant
reduction
life
expectancy.
The
devising
of
treatment
plans
that
can
extend
lives
affected
individuals
hinges
on
an
accurate
diagnosis
these
tumors.
Identifying
analyzing
large
volumes
magnetic
resonance
imaging
(MRI)
data
manually
proves
to
be
both
challenging
time-consuming.
As
result,
there
exists
pressing
need
for
reliable
machine-learning
approach
accurately
diagnose
brain
tumors,
numerous
methods
have
already
been
proposed
over
last
decade.
In
this
paper,
novel,
comprehensive
is
identifying
classifying
given
MR
image
as
abnormal.
Three
common
namely
glioma,
meningioma,
pituitary
tumor,
chosen
abnormal
brains,
Figshare
MRI
dataset
was
collected
from
Kaggle
IEEE
websites.
method
initiated
by
employing
1st-order
statistics,
2nd-order
higher-order
transformed
(DWT)
feature
extraction
extract
features
images.
Then
missing
addressed
handled
using
KNNImputer,
followed
application
ExtratreesClassifier
PCA
selection
identify
relevant
reduce
dimensions
features.
Subsequently,
reduced
submitted
seven
machine
learning
models,
RF,
GB,
CB,
SVM,
LGBM,
DT,
LR.
strategy
k-fold
cross-validation
utilized
enhance
performance
those
models.
Finally,
models
evaluated
XAI
approaches,
which
ensure
transparent
decision-making
processes
provide
insights
into
model's
predictions.
Remarkably,
our
achieves
highest
accuracy,
precision,
recall,
F1
score,
MCC,
Kappa,
AUC-ROC,
R2,
well
lowest
loss,
evaluated,
proving
its
effectiveness
applicability
multiple
analytic
applications
relying
publicly
available
datasets.
Scene
classification
has
become
an
effective
technique
for
classifying
high
spatial
resolution
remote
sensing
images.
However,
in
the
traditional
deep
learning
convolutional
neural
network,
as
image
passes
through
layers
some
of
features
will
be
gradually
lost,
resulting
a
significant
decrease
accuracy
and
precision
scene
recognition,
there
is
problem
underutilization
features.
In
addition,
images
themselves
have
complexity.
To
overcome
these
challenges,
we
adopt
DenseNet
network.
Specifically,
first
train
from
UCMerced
dataset
network
inputs.
Then,
introduced
DenseNet-169
model
based
on
migration
learning.
Compared
with
DenseNet-121,
more
layers,
this
difference
mainly
manifested
number
dense
blocks.DenseNet-169
which
increases
complexity
parameters
model,
bringing
following
advantages:
stronger
expressive
power,
enables
extraction
complex
feature
patterns;
faster
training
time,
thanks
to
densely-connected
nature,
efficiently
utilizes
gradient
flow;
better
generalization
ability,
especially
large-scale
datasets.
our
experiments,
shows
excellent
performance
compared
other
state-of-the-art
networks
dataset,
95.14%,
95.31%,
Kappa
coefficient
94.90%,
F1-score
95.11%.
The
experimental
results
show
that
method
can
make
full
use
good
visual
effect,
providing
recognition.