Journal of Electronics Electromedical Engineering and Medical Informatics,
Год журнала:
2025,
Номер
7(1), С. 176 - 186
Опубликована: Янв. 8, 2025
Brain
tumor
image
segmentation
is
one
of
the
most
critical
tasks
in
medical
imaging
for
diagnosis,
treatment
planning,
and
prognosis.
Traditional
methods
brain
are
mostly
based
on
Convolution
Neural
Network
(CNN),
which
have
been
proved
very
powerful
but
still
limitations
to
effectively
capture
long-range
dependencies
complex
spatial
hierarchies
MRI
images.
Variability
shape,
size,
location
tumors
may
affect
performance
get
stuck
into
suboptimal
outcomes.
In
these
regards,
new
encoder-decoder
architecture
with
VisionTranscoder(ViT)
proposed,
enhance
detection
classification.
The
proposed
VisionTranscoder
exploits
a
transformer's
ability
modeling
global
context
through
self-attention
mechanisms,
providing
more
inclusive
interpretation
intricate
patterns
images
classification
by
capturing
both
local
features.
maintains
Vision
Transformer
its
encoder
processing
as
sequences
patches
often
outside
view
traditional
CNNs.
Then
map
rebuilt
at
high
level
fidelity
decoder
upsampling
skips
connections
maintain
detailed
information.
risk
overfitting
hugely
reduced
design
advanced
regularization
techniques
extensive
data
augmentation.
dataset
contains
7,023
human
images,
all
four
different
classes:
glioma,
meningioma,
no
tumor,
pituitary.
Images
from
'no
tumor'
class,
indicating
an
scan
without
any
detectable
were
taken
Br35H
.
results
show
efficiency
over
wide
set
scans,
producing
accuracy
98.5%
loss
0.05.
This
underlines
it
accurately
segment
classify
overfitting.
Neurocomputing,
Год журнала:
2024,
Номер
573, С. 127216 - 127216
Опубликована: Янв. 5, 2024
Brains
are
the
control
center
of
nervous
system
in
human
bodies,
and
brain
tumor
is
one
most
deadly
diseases.
Currently,
magnetic
resonance
imaging
(MRI)
effective
way
to
tumors
early
detection
clinical
diagnoses
due
its
superior
quality
for
soft
tissues.
Manual
analysis
MRI
error-prone
which
depends
on
empirical
experience
fatigue
state
radiologists
a
large
extent.
Computer-aided
diagnosis
(CAD)
systems
becoming
more
impactful
because
they
can
provide
accurate
prediction
results
based
medical
images
with
advanced
techniques
from
computer
vision.
Therefore,
novel
CAD
method
classification
named
RanMerFormer
presented
this
paper.
A
pre-trained
vision
transformer
used
as
backbone
model.
Then,
merging
mechanism
proposed
remove
redundant
tokens
transformer,
improves
computing
efficiency
substantially.
Finally,
randomized
vector
functional-link
serves
head
RanMerFormer,
be
trained
swiftly.
All
simulation
obtained
two
public
benchmark
datasets,
reveal
that
achieve
state-of-the-art
performance
classification.
The
applied
real-world
scenarios
assist
diagnosis.
Cancers,
Год журнала:
2025,
Номер
17(1), С. 121 - 121
Опубликована: Янв. 2, 2025
Background/Objectives:
Brain
tumor
classification
is
a
crucial
task
in
medical
diagnostics,
as
early
and
accurate
detection
can
significantly
improve
patient
outcomes.
This
study
investigates
the
effectiveness
of
pre-trained
deep
learning
models
classifying
brain
MRI
images
into
four
categories:
Glioma,
Meningioma,
Pituitary,
No
Tumor,
aiming
to
enhance
diagnostic
process
through
automation.
Methods:
A
publicly
available
Tumor
dataset
containing
7023
was
used
this
research.
The
employs
state-of-the-art
models,
including
Xception,
MobileNetV2,
InceptionV3,
ResNet50,
VGG16,
DenseNet121,
which
are
fine-tuned
using
transfer
learning,
combination
with
advanced
preprocessing
data
augmentation
techniques.
Transfer
applied
fine-tune
optimize
accuracy
while
minimizing
computational
requirements,
ensuring
efficiency
real-world
applications.
Results:
Among
tested
Xception
emerged
top
performer,
achieving
weighted
98.73%
F1
score
95.29%,
demonstrating
exceptional
generalization
capabilities.
These
proved
particularly
effective
addressing
class
imbalances
delivering
consistent
performance
across
various
evaluation
metrics,
thus
their
suitability
for
clinical
adoption.
However,
challenges
persist
improving
recall
Glioma
Meningioma
categories,
black-box
nature
requires
further
attention
interpretability
trust
settings.
Conclusions:
findings
underscore
transformative
potential
imaging,
offering
pathway
toward
more
reliable,
scalable,
efficient
tools.
Future
research
will
focus
on
expanding
diversity,
model
explainability,
validating
settings
support
widespread
adoption
AI-driven
systems
healthcare
ensure
integration
workflows.
Diagnostics,
Год журнала:
2023,
Номер
13(12), С. 2050 - 2050
Опубликована: Июнь 13, 2023
Brain
tumor
(BT)
is
a
serious
issue
and
potentially
deadly
disease
that
receives
much
attention.
However,
early
detection
identification
of
type
location
are
crucial
for
effective
treatment
saving
lives.
Manual
diagnoses
time-consuming
depend
on
radiologist
experts;
the
increasing
number
new
cases
brain
tumors
makes
it
difficult
to
process
massive
large
amounts
data
rapidly,
as
time
critical
factor
in
patients'
Hence,
artificial
intelligence
(AI)
vital
understanding
its
various
types.
Several
studies
proposed
different
techniques
BT
classification.
These
machine
learning
(ML)
deep
(DL).
The
ML-based
method
requires
handcrafted
or
automatic
feature
extraction
algorithms;
however,
DL
becomes
superior
self-learning
robust
classification
recognition
tasks.
This
research
focuses
classifying
three
types
using
MRI
imaging:
meningioma,
glioma,
pituitary
tumors.
DCTN
model
depends
dual
convolutional
neural
networks
with
VGG-16
architecture
concatenated
custom
CNN
(convolutional
networks)
architecture.
After
conducting
approximately
22
experiments
architectures
models,
our
reached
100%
accuracy
during
training
99%
testing.
methodology
obtained
highest
possible
improvement
over
existing
studies.
solution
provides
revolution
healthcare
providers
can
be
used
future
save
human
Diagnostics,
Год журнала:
2024,
Номер
14(4), С. 383 - 383
Опубликована: Фев. 9, 2024
Brain
tumors
can
have
fatal
consequences,
affecting
many
body
functions.
For
this
reason,
it
is
essential
to
detect
brain
tumor
types
accurately
and
at
an
early
stage
start
the
appropriate
treatment
process.
Although
convolutional
neural
networks
(CNNs)
are
widely
used
in
disease
detection
from
medical
images,
they
face
problem
of
overfitting
training
phase
on
limited
labeled
insufficiently
diverse
datasets.
The
existing
studies
use
transfer
learning
ensemble
models
overcome
these
problems.
When
examined,
evident
that
there
a
lack
weight
ratios
will
be
with
technique.
With
framework
proposed
study,
several
CNN
different
architectures
trained
fine-tuning
three
A
particle
swarm
optimization-based
algorithm
determined
optimum
weights
for
combining
five
most
successful
results
across
datasets
as
follows:
Dataset
1,
99.35%
accuracy
99.20
F1-score;
2,
98.77%
98.92
3,
99.92%
99.92
F1-score.
We
achieved
performances
datasets,
showing
reliable
classification.
As
result,
outperforms
studies,
offering
clinicians
enhanced
decision-making
support
through
its
high-accuracy
classification
performance.