Microscopy Research and Technique,
Год журнала:
2025,
Номер
unknown
Опубликована: Март 4, 2025
ABSTRACT
This
article
proposes
a
method
called
DenseNet
121‐Mask
R‐CNN
(DN‐MRCNN)
for
the
detection
and
segmentation
of
brain
tumors.
The
main
objective
is
to
reduce
execution
time
accurately
locate
segment
tumor,
including
its
subareas.
input
images
undergo
preprocessing
techniques
such
as
median
filtering
Gaussian
noise
artifacts,
well
improve
image
quality.
Histogram
equalization
used
enhance
tumor
regions,
augmentation
employed
model's
diversity
robustness.
To
capture
important
patterns,
gated
axial
self‐attention
layer
added
121
model,
allowing
increased
attention
during
analysis
images.
For
accurate
segmentation,
boundary
boxes
are
generated
using
Regional
Proposal
Network
with
anchor
customization.
Post‐processing
techniques,
specifically
nonmaximum
suppression,
performed
neglect
redundant
bounding
caused
by
overlapping
regions.
Mask
model
detect
entire
(WT),
core
(TC),
enhancing
(ET).
proposed
evaluated
BraTS
2019
dataset,
UCSF‐PDGM
UPENN‐GBM
which
commonly
segmentation.
Neural Computing and Applications,
Год журнала:
2023,
Номер
35(31), С. 23103 - 23124
Опубликована: Сен. 7, 2023
Abstract
The
current
development
in
deep
learning
is
witnessing
an
exponential
transition
into
automation
applications.
This
can
provide
a
promising
framework
for
higher
performance
and
lower
complexity.
ongoing
undergoes
several
rapid
changes,
resulting
the
processing
of
data
by
studies,
while
it
may
lead
to
time-consuming
costly
models.
Thus,
address
these
challenges,
studies
have
been
conducted
investigate
techniques;
however,
they
mostly
focused
on
specific
approaches,
such
as
supervised
learning.
In
addition,
did
not
comprehensively
other
techniques,
unsupervised
reinforcement
techniques.
Moreover,
majority
neglect
discuss
some
main
methodologies
learning,
transfer
federated
online
Therefore,
motivated
limitations
existing
this
study
summarizes
techniques
supervised,
unsupervised,
reinforcement,
hybrid
learning-based
addition
each
category,
brief
description
categories
their
models
provided.
Some
critical
topics
namely,
transfer,
federated,
models,
are
explored
discussed
detail.
Finally,
challenges
future
directions
outlined
wider
outlooks
researchers.
Expert Systems with Applications,
Год журнала:
2023,
Номер
242, С. 122807 - 122807
Опубликована: Дек. 2, 2023
Deep
learning
has
emerged
as
a
powerful
tool
in
various
domains,
revolutionising
machine
research.
However,
one
persistent
challenge
is
the
scarcity
of
labelled
training
data,
which
hampers
performance
and
generalisation
deep
models.
To
address
this
limitation,
researchers
have
developed
innovative
methods
to
overcome
data
enhance
model
capabilities.
Two
prevalent
techniques
that
gained
significant
attention
are
transfer
self-supervised
learning.
Transfer
leverages
knowledge
learned
from
pre-training
on
large-scale
dataset,
such
ImageNet,
applies
it
target
task
with
limited
data.
This
approach
allows
models
benefit
representations
effectively
new
tasks,
resulting
improved
generalisation.
On
other
hand,
focuses
using
pretext
tasks
do
not
require
manual
annotation,
allowing
them
learn
valuable
large
amounts
unlabelled
These
can
then
be
fine-tuned
for
downstream
mitigating
need
extensive
In
recent
years,
found
applications
fields,
including
medical
image
processing,
video
recognition,
natural
language
processing.
approaches
demonstrated
remarkable
achievements,
enabling
breakthroughs
areas
disease
diagnosis,
object
understanding.
while
these
offer
numerous
advantages,
they
also
limitations.
For
example,
may
face
domain
mismatch
issues
between
requires
careful
design
ensure
meaningful
representations.
review
paper
explores
fields
within
past
three
years.
It
delves
into
advantages
limitations
each
approach,
assesses
employing
techniques,
identifies
potential
directions
future
By
providing
comprehensive
current
methods,
article
offers
guidance
selecting
best
technique
specific
issue.
IEEE Access,
Год журнала:
2023,
Номер
11, С. 12870 - 12886
Опубликована: Янв. 1, 2023
A
tumor
is
carried
on
by
rapid
and
uncontrolled
cell
growth
in
the
brain.
If
it
not
treated
initial
phases,
could
prove
fatal.
Despite
numerous
significant
efforts
encouraging
outcomes,
accurate
segmentation
classification
continue
to
be
a
challenge.
Detection
of
brain
tumors
significantly
complicated
distinctions
position,
structure,
proportions.
The
main
disinterest
this
study
stays
offer
investigators,
comprehensive
literature
Magnetic
Resonance
(MR)
imaging's
ability
identify
tumors.
Using
computational
intelligence
statistical
image
processing
techniques,
research
paper
proposed
several
ways
detect
cancer
This
also
shows
an
assessment
matrix
for
specific
system
using
particular
systems
dataset
types.
explains
morphology
tumors,
accessible
data
sets,
augmentation
methods,
component
extraction,
categorization
among
Deep
Learning
(DL),
Transfer
(TL),
Machine
(ML)
models.
Finally,
our
compiles
all
relevant
material
identification
understanding
including
their
benefits,
drawbacks,
advancements,
upcoming
trends.
IEEE Journal of Biomedical and Health Informatics,
Год журнала:
2023,
Номер
28(3), С. 1261 - 1272
Опубликована: Апрель 12, 2023
The
abnormal
growth
of
malignant
or
nonmalignant
tissues
in
the
brain
causes
long-term
damage
to
brain.
Magnetic
resonance
imaging
(MRI)
is
one
most
common
methods
detecting
tumors.
To
determine
whether
a
patient
has
tumor,
MRI
filters
are
physically
examined
by
experts
after
they
received.
It
possible
for
images
different
specialists
produce
inconsistent
results
since
professionals
formulate
evaluations
differently.
Furthermore,
merely
identifying
tumor
not
enough.
begin
treatment
as
soon
possible,
it
equally
important
type
has.
In
this
paper,
we
consider
multiclass
classification
tumors
significant
work
been
done
on
binary
classification.
order
detect
faster,
more
unbiased,
and
reliably,
investigated
performance
several
deep
learning
(DL)
architectures
including
Visual
Geometry
Group
16
(VGG16),
InceptionV3,
VGG19,
ResNet50,
InceptionResNetV2,
Xception.
Following
this,
propose
transfer
learning(TL)
based
model
called
IVX16
three
best-performing
TL
models.
We
use
dataset
consisting
total
3264
images.
Through
extensive
experiments,
achieve
peak
accuracy
$95.11\%$
,
notation="LaTeX">$93.88\%$
notation="LaTeX">$94.19\%$
notation="LaTeX">$93.58\%$
notation="LaTeX">$94.5\%$
notation="LaTeX">$96.94\%$
VGG16,
Xception,
IVX16,
respectively.
Explainable
AI
evaluate
validity
each
DL
implement
recently
introduced
Vison
Transformer
(ViT)
models
compare
their
obtained
output
with
ensemble
model.
International Journal of Advanced Computer Science and Applications,
Год журнала:
2023,
Номер
14(3)
Опубликована: Янв. 1, 2023
Recently,
Deep
learning
algorithms,
particularly
Convolutional
Neural
Networks
(CNNs),
have
been
applied
extensively
for
image
recognition
and
classification
tasks,
with
successful
results
in
the
field
of
medicine,
such
as
medical
analysis.
Radiologists
a
hard
time
categorizing
this
lethal
illness
since
brain
tumors
include
variety
tumor
cells.
Lately,
methods
based
on
computer-aided
diagnostics
claimed
to
employ
magnetic
resonance
imaging
help
diagnosis
cancers
(MRI).
(CNNs)
are
often
used
analysis,
including
detection
cancers.
This
effort
was
motivated
by
difficulty
that
physicians
appropriately
detecting
tumors,
when
they
early
stages
bleeding.
proposed
model
categorized
into
four
distinct
classes:
(Normal,
Glioma,
Meningioma,
Pituitary).
The
CNN
networks
reach
95%
recall,
95.44%
accuracy
95.36%
F1-score.
International Journal of Machine Learning and Cybernetics,
Год журнала:
2024,
Номер
15(9), С. 3579 - 3597
Опубликована: Март 5, 2024
Abstract
Serious
consequences
due
to
brain
tumors
necessitate
a
timely
and
accurate
diagnosis.
However,
obstacles
such
as
suboptimal
imaging
quality,
issues
with
data
integrity,
varying
tumor
types
stages,
potential
errors
in
interpretation
hinder
the
achievement
of
precise
prompt
diagnoses.
The
rapid
identification
plays
pivotal
role
ensuring
patient
safety.
Deep
learning-based
systems
hold
promise
aiding
radiologists
make
diagnoses
swiftly
accurately.
In
this
study,
we
present
an
advanced
deep
learning
approach
based
on
Swin
Transformer.
proposed
method
introduces
novel
Hybrid
Shifted
Windows
Multi-Head
Self-Attention
module
(HSW-MSA)
along
rescaled
model.
This
enhancement
aims
improve
classification
accuracy,
reduce
memory
usage,
simplify
training
complexity.
Residual-based
MLP
(ResMLP)
replaces
traditional
Transformer,
thereby
improving
speed,
parameter
efficiency.
We
evaluate
Proposed-Swin
model
publicly
available
MRI
dataset
four
classes,
using
only
test
data.
Model
performance
is
enhanced
through
application
transfer
augmentation
techniques
for
efficient
robust
training.
achieves
remarkable
accuracy
99.92%,
surpassing
previous
research
models.
underscores
effectiveness
Transformer
HSW-MSA
ResMLP
improvements
innovative
diagnostic
offering
support
diagnosis,
ultimately
outcomes
reducing
risks.
IEEE Access,
Год журнала:
2024,
Номер
12, С. 41180 - 41218
Опубликована: Янв. 1, 2024
In
today's
digital
age,
Convolutional
Neural
Networks
(CNNs),
a
subset
of
Deep
Learning
(DL),
are
widely
used
for
various
computer
vision
tasks
such
as
image
classification,
object
detection,
and
segmentation.
There
numerous
types
CNNs
designed
to
meet
specific
needs
requirements,
including
1D,
2D,
3D
CNNs,
well
dilated,
grouped,
attention,
depthwise
convolutions,
NAS,
among
others.
Each
type
CNN
has
its
unique
structure
characteristics,
making
it
suitable
tasks.
It's
crucial
gain
thorough
understanding
perform
comparative
analysis
these
different
understand
their
strengths
weaknesses.
Furthermore,
studying
the
performance,
limitations,
practical
applications
each
can
aid
in
development
new
improved
architectures
future.
We
also
dive
into
platforms
frameworks
that
researchers
utilize
research
or
from
perspectives.
Additionally,
we
explore
main
fields
like
6D
vision,
generative
models,
meta-learning.
This
survey
paper
provides
comprehensive
examination
comparison
architectures,
highlighting
architectural
differences
emphasizing
respective
advantages,
disadvantages,
applications,
challenges,
future
trends.
Cluster Computing,
Год журнала:
2024,
Номер
27(8), С. 11187 - 11212
Опубликована: Май 20, 2024
Abstract
The
early
and
accurate
diagnosis
of
brain
tumors
is
critical
for
effective
treatment
planning,
with
Magnetic
Resonance
Imaging
(MRI)
serving
as
a
key
tool
in
the
non-invasive
examination
such
conditions.
Despite
advancements
Computer-Aided
Diagnosis
(CADx)
systems
powered
by
deep
learning,
challenge
accurately
classifying
from
MRI
scans
persists
due
to
high
variability
tumor
appearances
subtlety
early-stage
manifestations.
This
work
introduces
novel
adaptation
EfficientNetv2
architecture,
enhanced
Global
Attention
Mechanism
(GAM)
Efficient
Channel
(ECA),
aimed
at
overcoming
these
hurdles.
enhancement
not
only
amplifies
model’s
ability
focus
on
salient
features
within
complex
images
but
also
significantly
improves
classification
accuracy
tumors.
Our
approach
distinguishes
itself
meticulously
integrating
attention
mechanisms
that
systematically
enhance
feature
extraction,
thereby
achieving
superior
performance
detecting
broad
spectrum
Demonstrated
through
extensive
experiments
large
public
dataset,
our
model
achieves
an
exceptional
high-test
99.76%,
setting
new
benchmark
MRI-based
classification.
Moreover,
incorporation
Grad-CAM
visualization
techniques
sheds
light
decision-making
process,
offering
transparent
interpretable
insights
are
invaluable
clinical
assessment.
By
addressing
limitations
inherent
previous
models,
this
study
advances
field
medical
imaging
analysis
highlights
pivotal
role
enhancing
interpretability
learning
models
diagnosis.
research
sets
stage
advanced
CADx
systems,
patient
care
outcomes.