Complex & Intelligent Systems,
Journal Year:
2024,
Volume and Issue:
10(4), P. 4835 - 4851
Published: April 9, 2024
Abstract
Malaria
is
a
potentially
fatal
plasmodium
parasite
injected
by
female
anopheles
mosquitoes
that
infect
red
blood
cells
and
cause
millions
of
lifelong
disability
worldwide
yearly.
However,
specialists’
manual
screening
in
clinical
practice
laborious
prone
to
error.
Therefore,
novel
Deep
Boosted
Ensemble
Learning
(DBEL)
framework,
comprising
the
stacking
new
Boosted-BR-STM
convolutional
neural
networks
(CNN)
ensemble
ML
classifiers,
developed
screen
malaria
images.
The
proposed
based
on
dilated-convolutional
block-based
Split
Transform
Merge
(STM)
feature-map
Squeezing–Boosting
(SB)
ideas.
Moreover,
STM
block
uses
regional
boundary
operations
learn
parasite’s
homogeneity,
heterogeneity,
with
patterns.
Furthermore,
diverse
boosted
channels
are
attained
employing
Transfer
Learning-based
SB
blocks
at
abstract,
medium,
conclusion
levels
minute
intensity
texture
variation
parasitic
pattern.
Additionally,
enhance
learning
capacity
foster
more
representation
features,
boosting
final
stage
achieved
through
TL
utilizing
multipath
residual
learning.
DBEL
framework
implicates
prominent
provides
generated
discriminative
features
classifiers.
improves
discrimination
ability
generalization
deep
feature
spaces
customized
CNNs
fed
into
classifiers
for
comparative
analysis.
outperforms
existing
techniques
NIH
dataset
enhanced
using
discrete
wavelet
transform
enrich
space.
Accuracy
(98.50%),
Sensitivity
(0.9920),
F-score
(0.9850),
AUC
(0.9960),
which
suggests
it
be
utilized
screening.
Diagnostics,
Journal Year:
2023,
Volume and Issue:
13(12), P. 2050 - 2050
Published: June 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
PLoS ONE,
Journal Year:
2024,
Volume and Issue:
19(1), P. e0295632 - e0295632
Published: Jan. 3, 2024
Cervical
cancer
is
a
leading
cause
of
women's
mortality,
emphasizing
the
need
for
early
diagnosis
and
effective
treatment.
In
line
with
imperative
intervention,
automated
identification
cervical
has
emerged
as
promising
avenue,
leveraging
machine
learning
techniques
to
enhance
both
speed
accuracy
diagnosis.
However,
an
inherent
challenge
in
development
these
systems
presence
missing
values
datasets
commonly
used
detection.
Missing
data
can
significantly
impact
performance
models,
potentially
inaccurate
or
unreliable
results.
This
study
addresses
critical
identification-handling
datasets.
The
present
novel
approach
that
combines
three
models
into
stacked
ensemble
voting
classifier,
complemented
by
use
KNN
Imputer
manage
values.
proposed
model
achieves
remarkable
results
0.9941,
precision
0.98,
recall
0.96,
F1
score
0.97.
examines
distinct
scenarios:
one
involving
deletion
values,
another
utilizing
imputation,
third
employing
PCA
imputing
research
significant
implications
medical
field,
offering
experts
powerful
tool
more
accurate
therapy
enhancing
overall
effectiveness
testing
procedures.
By
addressing
challenges
achieving
high
accuracy,
this
work
represents
valuable
contribution
detection,
ultimately
aiming
reduce
disease
on
health
healthcare
systems.
Diagnosing
brain
tumors
is
a
time-consuming
process
requiring
radiologist
expertise.
With
the
growing
patient
population
and
increased
data
volume,
conventional
procedures
have
become
expensive
ineffective.
Scholars
explored
algorithms
for
detecting
classifying
tumors,
focusing
on
precision
efficiency.
Deep
learning
methodologies
are
being
used
to
create
automated
systems
that
can
diagnose
or
segment
with
efficiency,
particularly
in
cancer
classification.
This
approach
facilitates
transfer
models
medical
imaging.
The
present
study
undertakes
an
evaluation
of
three
foundational
domain
computer
vision,
namely
AlexNet,
VGG16,
ResNet-50.
VGG16
ResNet-50
demonstrated
praiseworthy
performance,
thereby
instigating
amalgamation
these
into
groundbreaking
hybrid
VGG16–ResNet-50
model.
amalgamated
model
was
subsequently
implemented
dataset,
yielding
remarkable
accuracy
99.98%,
sensitivity
specificity
99.98%
F1
score
99.98%.
Based
comparative
analysis
alternative
models,
it
be
deduced
suggested
framework
exhibits
commendable
level
dependability
facilitating
timely
identification
diverse
cerebral
neoplasms.
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
Critical Reviews in Oncology/Hematology,
Journal Year:
2025,
Volume and Issue:
unknown, P. 104682 - 104682
Published: March 1, 2025
Brain
tumors
refer
to
the
abnormal
growths
that
occur
within
brain's
tissue,
comprising
both
primary
neoplasms
and
metastatic
lesions.
Timely
detection,
precise
staging,
suitable
treatment,
standardized
management
are
of
significant
clinical
importance
for
extending
survival
rates
brain
tumor
patients.
Artificial
intelligence
(AI),
a
discipline
computer
science,
is
leveraging
its
robust
capacity
information
identification
combination
revolutionize
traditional
paradigms
oncology
care,
offering
substantial
potential
precision
medicine.
This
article
provides
an
overview
current
applications
AI
in
tumors,
encompassing
technologies,
their
working
mechanisms
workflow,
contributions
diagnosis
as
well
role
scientific
research,
particularly
drug
innovation
revealing
microenvironment.
Finally,
paper
addresses
existing
challenges,
solutions,
future
application
prospects.
review
aims
enhance
our
understanding
provide
valuable
insights
forthcoming
inquiries.
Sensors,
Journal Year:
2025,
Volume and Issue:
25(9), P. 2746 - 2746
Published: April 26, 2025
A
brain
tumor
is
the
result
of
abnormal
growth
cells
in
central
nervous
system
(CNS),
widely
considered
as
a
complex
and
diverse
clinical
entity
that
difficult
to
diagnose
cure.
In
this
study,
we
focus
on
current
advances
medical
imaging,
particularly
magnetic
resonance
imaging
(MRI),
how
machine
learning
(ML)
deep
(DL)
algorithms
might
be
combined
with
assessments
improve
diagnosis.
Due
its
superior
contrast
resolution
safety
compared
other
methods,
MRI
highlighted
preferred
modality
for
tumors.
The
challenges
related
analysis
different
processes
including
detection,
segmentation,
classification,
survival
prediction
are
addressed
along
ML/DL
approaches
significantly
these
steps.
We
systematically
analyzed
107
studies
(2018–2024)
employing
ML,
DL,
hybrid
models
across
publicly
available
datasets
such
BraTS,
TCIA,
Figshare.
light
recent
developments
analysis,
many
have
been
proposed
accurately
obtain
ontological
characteristics
tumors,
enhancing
diagnostic
precision
personalized
therapeutic
strategies.
Sensors,
Journal Year:
2022,
Volume and Issue:
22(19), P. 7575 - 7575
Published: Oct. 6, 2022
Detection
of
a
brain
tumor
in
the
early
stages
is
critical
for
clinical
practice
and
survival
rate.
Brain
tumors
arise
multiple
shapes,
sizes,
features
with
various
treatment
options.
Tumor
detection
manually
challenging,
time-consuming,
prone
to
error.
Magnetic
resonance
imaging
(MRI)
scans
are
mostly
used
due
their
non-invasive
properties
also
avoid
painful
biopsy.
MRI
scanning
one
patient’s
generates
many
3D
images
from
directions,
making
manual
very
difficult,
error-prone,
time-consuming.
Therefore,
there
considerable
need
autonomous
diagnostics
tools
detect
accurately.
In
this
research,
we
have
presented
novel
TumorResnet
deep
learning
(DL)
model
detection,
i.e.,
binary
classification.
The
TumorResNet
employs
20
convolution
layers
leaky
ReLU
(LReLU)
activation
function
feature
map
compute
most
distinctive
features.
Finally,
three
fully
connected
classification
classify
into
normal
tumorous.
performance
proposed
architecture
evaluated
on
standard
Kaggle
dataset
(BTD),
which
contains
MR
images.
achieved
good
accuracy
99.33%
BTD.
These
experimental
results,
including
cross-dataset
setting,
validate
superiority
over
contemporary
frameworks.
This
study
offers
an
automated
BTD
method
that
aids
diagnosis
cancers.
procedure
has
substantial
impact
improving
options
patient
survival.
Computers & Security,
Journal Year:
2023,
Volume and Issue:
133, P. 103385 - 103385
Published: July 7, 2023
Security
issues
are
threatened
in
various
types
of
networks,
especially
the
Internet
Things
(IoT)
environment
that
requires
early
detection.
IoT
is
network
real-time
devices
like
home
automation
systems
and
can
be
controlled
by
open-source
android
devices,
which
an
open
ground
for
attackers.
Attackers
access
credentials,
initiate
a
different
kind
security
breach,
compromises
control.
Therefore,
timely
detecting
increasing
number
sophisticated
malware
attacks
challenge
to
ensure
credibility
protection.
In
this
regard,
we
have
developed
new
detection
framework,
Deep
Squeezed-Boosted
Ensemble
Learning
(DSBEL),
comprised
novel
Boundary-Region
Split-Transform-Merge
(SB-BR-STM)
CNN
ensemble
learning.
The
proposed
STM
block
employs
multi-path
dilated
convolutional,
Boundary,
regional
operations
capture
homogenous
heterogeneous
global
malicious
patterns.
Moreover,
diverse
feature
maps
achieved
using
transfer
learning
multi-path-based
squeezing
boosting
at
initial
final
levels
learn
minute
pattern
variations.
Finally,
boosted
discriminative
features
extracted
from
deep
SB-BR-STM
provided
classifiers
(SVM,
MLP,
AdabooSTM1)
improve
hybrid
generalization.
performance
analysis
DSBEL
framework
against
existing
techniques
been
evaluated
IOT_Malware
dataset
on
standard
measures.
Evaluation
results
show
progressive
as
98.50%
accuracy,
97.12%
F1-Score,
91.91%
MCC,
95.97
%
Recall,
98.42
Precision.
robust
helpful
activity
suggests
future
strategies.