Information Technology And Control,
Journal Year:
2024,
Volume and Issue:
53(2), P. 355 - 371
Published: June 26, 2024
Deep
learning-based
anomaly
detection
in
images
has
recently
gained
popularity
as
an
investigative
field
with
many
global
submissions.
To
simplify
complex
data
analysis,
researchers
the
deep
learning
subfield
of
machine
employ
Artificial
Neural
Networks
(ANNs)
hidden
layers.
Finding
occurrences
that
significantly
differ
from
generalizable
to
most
sets
is
primary
goal
detection.
Many
medical
imaging
applications
use
convolutional
neural
networks
(CNNs)
examine
anomalies
automatically.
While
CNN
structures
are
reliable
feature
extractors,
they
encounter
challenges
when
simultaneously
classifying
and
segmenting
spots
need
removal
scans.
We
suggest
a
separate
integration
system
solve
these
issues,
separated
into
two
distinct
departments:
classification
segmentation.
Initially,
network
architecturesare
taught
independently
for
each
abnormality,
networks’
main
components
combined.
A
sharedcomponent
branched
structure
functions
all
abnormalities.
The
final
branches:
onehas
sub-networks,
intended
classify
particular
other
various
CNNs
training
directly
on
high-resolution
necessitate
input
layer
image
compression,
which
results
loss
information
necessary
detecting
guided
GradCAM
(GCAM)
tuned
patch
applied
full-size
localization.
Therefore,
suggested
approach
merges
pre-trained
class
activation
mappings
area
suggestion
systems
construct
abnormality
sensors
then
fine-tunes
picture
patches,
focusing
abnormalities
instead
whole
images.
mammogram
set
was
used
test
classifier,
had
99%
overall
accuracy.
Brain
tumor
integrateddetector’s
ability
detect
abnormalities,
it
did
so
average
precision
0.99.
Journal of Integrated Science and Technology,
Journal Year:
2024,
Volume and Issue:
12(4)
Published: Feb. 8, 2024
Deep
learning
techniques
have
recently
demonstrated
promising
outcomes
in
the
segmentation
of
brain
tumors
from
MRI
images.
Due
to
its
capability
handle
high-resolution
images
and
segment
entire
tumor
region,
U-Net
model
is
one
them
frequently
utilized.
For
analysis
planning
treatments,
accurate
using
multi-contrast
essential.
models
including
U-Net,
PSPNet,
DeepLabV3+,
ResNet50
encouraging
tumors.
Using
BraTS
2018
dataset,
we
compare
these
this
research.
We
evaluate
a
variety
measures,
Hausdorff
Distance
(HD),
Absolute
Volume
Difference
(AVD),
Dice
Similarity
Coefficient
(DSC),
look
into
how
data
augmentation
transfer
approaches
affect
models'
performance.
The
findings
demonstrate
that
3D
performed
best,
with
DSC
0.90,
HD
10.69mm,
AVD
11.15%.
PSPNet
achieved
comparable
performance,
0.89,
11.37mm,
12.24%.
DeepLabV3+
lower
DSCs
0.85
0.83,
respectively.
Based
on
discoveries
analysis,
suggested
for
utilizing
URN:NBN:sciencein.jist.2024.v12.793
PeerJ Computer Science,
Journal Year:
2024,
Volume and Issue:
10, P. e1878 - e1878
Published: March 14, 2024
Hyperparameter
tuning
plays
a
pivotal
role
in
the
accuracy
and
reliability
of
convolutional
neural
network
(CNN)
models
used
brain
tumor
diagnosis.
These
hyperparameters
exert
control
over
various
aspects
network,
encompassing
feature
extraction,
spatial
resolution,
non-linear
mapping,
convergence
speed,
model
complexity.
We
propose
meticulously
refined
CNN
hyperparameter
designed
to
optimize
critical
parameters,
including
filter
number
size,
stride
padding,
pooling
techniques,
activation
functions,
learning
rate,
batch
layers.
Our
approach
leverages
two
publicly
available
MRI
datasets
for
research
purposes.
The
first
dataset
comprises
total
7,023
human
images,
categorized
into
four
classes:
glioma,
meningioma,
no
tumor,
pituitary.
second
contains
253
images
classified
as
“yes”
“no.”
delivers
exceptional
results,
demonstrating
an
average
94.25%
precision,
recall,
F1-score
with
96%
1,
while
87.5%
F1-score,
88%
2.
To
affirm
robustness
our
findings,
we
perform
comprehensive
comparison
existing
revealing
that
method
consistently
outperforms
these
approaches.
By
systematically
fine-tuning
hyperparameters,
not
only
enhances
its
performance
but
also
bolsters
generalization
capabilities.
This
optimized
provides
medical
experts
more
precise
efficient
tool
supporting
their
decision-making
processes
IEEE Access,
Journal Year:
2023,
Volume and Issue:
11, P. 118372 - 118385
Published: Jan. 1, 2023
The
growth
of
irregular
brain
cells
leads
to
a
disease
called
tumor
(BT).It
is
difficult
predict
patient's
chance
survival
due
the
low
rate
and
wide
range
shapes.Even
though
it
possible
manually
detect
cancer,
doing
so
time-consuming
runs
risk
producing
false-positive
results.This
can
be
done
via
MRI,
which
necessary
for
locating
cancer.It
very
reliably
identify
different
illnesses
from
MRI
images
successful
therapy
computer-aided
diagnostic
system.In
experiment,
three
openly
accessible
benchmark
datasets
were
utilized.To
perform
feature
extraction
in
our
proposed
method,
CNN
model
was
employed,
followed
by
application
five
machine
learning
classifiers:
Decision
tree,
Naive
Bayes,
Adaptive
Boosting,
K-nearest
neighbor,
support
vector
machine.The
outcomes
show
that
architecture
with
KNN
classifier
performs
better
than
previous
models
outperforming
other
cutting-edge
DL
under
various
classification
metrics.Finally,
achieved
F1-Score,
precision,
recall,
accuracy
values
detection
99.58%,
99.59%,
respectively.For
comparison
study,
additional
Transfer
Learning
are
utilized.Experimental
findings
strength
architecture,
has
rapidly
accelerated
improved
classifications
BTs.The
designed
method
outperforms
body
existing
knowledge,
demonstrating
quick
precise
classifying
BTs.
Diagnostics,
Journal Year:
2023,
Volume and Issue:
13(2), P. 312 - 312
Published: Jan. 14, 2023
Over
the
last
few
years,
brain
tumor-related
clinical
cases
have
increased
substantially,
particularly
in
adults,
due
to
environmental
and
genetic
factors.
If
they
are
unidentified
early
stages,
there
is
a
risk
of
severe
medical
complications,
including
death.
So,
diagnosis
tumors
plays
vital
role
treatment
planning
improving
patient’s
condition.
There
different
forms,
properties,
treatments
tumors.
Among
them,
manual
identification
classification
complex,
time-demanding,
sensitive
error.
Based
on
these
observations,
we
developed
an
automated
methodology
for
detecting
classifying
using
magnetic
resonance
(MR)
imaging
modality.
The
proposed
work
includes
three
phases:
pre-processing,
classification,
segmentation.
In
started
with
skull-stripping
process
through
morphological
thresholding
operations
eliminate
non-brain
matters
such
as
skin,
muscle,
fat,
eyeballs.
Then
employed
image
data
augmentation
improve
model
accuracy
by
minimizing
overfitting.
Later
phase,
novel
lightweight
convolutional
neural
network
(lightweight
CNN)
extract
features
from
skull-free
augmented
MR
images
then
classify
them
normal
abnormal.
Finally,
obtained
infected
tumor
regions
segmentation
phase
fast-linking
modified
spiking
cortical
(FL-MSCM).
this
sequence
operations,
our
framework
achieved
99.58%
95.7%
dice
similarity
coefficient
(DSC).
experimental
results
illustrate
efficiency
its
appreciable
performance
compared
existing
techniques.
A
brain
tumor
is
a
group
of
abnormal
cells
within
the
or
surrounding
tissues.
Several
variables,
including
family
history,
radiation
exposure,
and
some
genetic
disorders,
might
increase
likelihood
developing
tumor.
The
typical
method
for
detecting
tumors
to
perform
MRI
scans,
which
medical
specialist
then
examines
diagnosis.
While
time-consuming,
this
process
fraught
with
possibility
human
error,
especially
when
in
its
early
stages.
As
result,
diagnosis
must
be
made
properly
as
soon
possible.
With
quick
accurate
identification,
work
aims
prevent
premature
death,
provide
health
resource-constrained
conditions,
promote
patients'
healthy
lifestyles.
CNN
model
created
study
detect
cancers,
dataset
contains
251
scans.
Because
datasets
are
limited
availability,
data
augmentation
employed
expand
dataset's
coverage.
suggested
model's
outputs
were
evaluated
using
metrics
Accuracy,
F1-Score,
Precision,
Recall.
In
aggregate,
has
an
accuracy
85%.
deep-learning
models
have
been
demonstrated
while
spending
no
time
resources
effectively.
BioMedInformatics,
Journal Year:
2025,
Volume and Issue:
5(2), P. 20 - 20
Published: April 14, 2025
Artificial
Intelligence
(AI)
and
deep
learning
models
have
revolutionized
diagnosis,
prognostication,
treatment
planning
by
extracting
complex
patterns
from
medical
images,
enabling
more
accurate,
personalized,
timely
clinical
decisions.
Despite
its
promise,
challenges
such
as
image
heterogeneity
across
different
centers,
variability
in
acquisition
protocols
scanners,
sensitivity
to
artifacts
hinder
the
reliability
integration
of
models.
Addressing
these
issues
is
critical
for
ensuring
accurate
practical
AI-powered
neuroimaging
applications.
We
reviewed
summarized
strategies
improving
robustness
generalizability
segmentation
classification
neuroimages.
This
review
follows
a
structured
protocol,
comprehensively
searching
Google
Scholar,
PubMed,
Scopus
studies
on
neuroimaging,
task-specific
applications,
model
attributes.
Peer-reviewed,
English-language
brain
imaging
were
included.
The
extracted
data
analyzed
evaluate
implementation
effectiveness
techniques.
study
identifies
key
enhance
including
regularization,
augmentation,
transfer
learning,
uncertainty
estimation.
These
approaches
address
major
domain
shifts,
consistent
performance
diverse
settings.
technical
this
can
improve
their
real-world
practice.