PLoS ONE,
Journal Year:
2024,
Volume and Issue:
19(7), P. e0298102 - e0298102
Published: July 2, 2024
Brain
tumors
pose
a
significant
threat
to
health,
and
their
early
detection
classification
are
crucial.
Currently,
the
diagnosis
heavily
relies
on
pathologists
conducting
time-consuming
morphological
examinations
of
brain
images,
leading
subjective
outcomes
potential
misdiagnoses.
In
response
these
challenges,
this
study
proposes
an
improved
Vision
Transformer-based
algorithm
for
human
tumor
classification.
To
overcome
limitations
small
existing
datasets,
Homomorphic
Filtering,
Channels
Contrast
Limited
Adaptive
Histogram
Equalization,
Unsharp
Masking
techniques
applied
enrich
dataset
enhancing
information
improving
model
generalization.
Addressing
limitation
Transformer’s
self-attention
structure
in
capturing
input
token
sequences,
novel
relative
position
encoding
method
is
employed
enhance
overall
predictive
capabilities
model.
Furthermore,
introduction
residual
structures
Multi-Layer
Perceptron
tackles
convergence
degradation
during
training,
faster
enhanced
accuracy.
Finally,
comprehensively
analyzes
network
model’s
performance
validation
sets
terms
accuracy,
precision,
recall.
Experimental
results
demonstrate
that
proposed
achieves
accuracy
91.36%
augmented
open-source
dataset,
surpassing
original
VIT-B/16
by
5.54%.
This
validates
effectiveness
approach
classification,
offering
reference
clinical
diagnoses
medical
practitioners.
Scientific Reports,
Journal Year:
2024,
Volume and Issue:
14(1)
Published: Jan. 30, 2024
Abstract
Pneumonia
is
a
widespread
and
acute
respiratory
infection
that
impacts
people
of
all
ages.
Early
detection
treatment
pneumonia
are
essential
for
avoiding
complications
enhancing
clinical
results.
We
can
reduce
mortality,
improve
healthcare
efficiency,
contribute
to
the
global
battle
against
disease
has
plagued
humanity
centuries
by
devising
deploying
effective
methods.
Detecting
not
only
medical
necessity
but
also
humanitarian
imperative
technological
frontier.
Chest
X-rays
frequently
used
imaging
modality
diagnosing
pneumonia.
This
paper
examines
in
detail
cutting-edge
method
detecting
implemented
on
Vision
Transformer
(ViT)
architecture
public
dataset
chest
available
Kaggle.
To
acquire
context
spatial
relationships
from
X-ray
images,
proposed
framework
deploys
ViT
model,
which
integrates
self-attention
mechanisms
transformer
architecture.
According
our
experimentation
with
Transformer-based
framework,
it
achieves
higher
accuracy
97.61%,
sensitivity
95%,
specificity
98%
X-rays.
The
model
preferable
capturing
context,
comprehending
relationships,
processing
images
have
different
resolutions.
establishes
its
efficacy
as
robust
solution
surpassing
convolutional
neural
network
(CNN)
based
architectures.
Biomedicines,
Journal Year:
2024,
Volume and Issue:
12(7), P. 1395 - 1395
Published: June 23, 2024
Brain
tumor
classification
is
essential
for
clinical
diagnosis
and
treatment
planning.
Deep
learning
models
have
shown
great
promise
in
this
task,
but
they
are
often
challenged
by
the
complex
diverse
nature
of
brain
tumors.
To
address
challenge,
we
propose
a
novel
deep
residual
region-based
convolutional
neural
network
(CNN)
architecture,
called
Res-BRNet,
using
magnetic
resonance
imaging
(MRI)
scans.
Res-BRNet
employs
systematic
combination
regional
boundary-based
operations
within
modified
spatial
blocks.
The
blocks
extract
homogeneity,
heterogeneity,
boundary-related
features
tumors,
while
significantly
capture
local
global
texture
variations.
We
evaluated
performance
on
challenging
dataset
collected
from
Kaggle
repositories,
Br35H,
figshare,
containing
various
categories,
including
meningioma,
glioma,
pituitary,
healthy
images.
outperformed
standard
CNN
models,
achieving
excellent
accuracy
(98.22%),
sensitivity
(0.9811),
F1-score
(0.9841),
precision
(0.9822).
Our
results
suggest
that
promising
tool
classification,
with
potential
to
improve
efficiency
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.
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.
BMC Bioinformatics,
Journal Year:
2024,
Volume and Issue:
25(1)
Published: Jan. 17, 2024
Abstract
Background
COVID-19
is
a
disease
that
caused
contagious
respiratory
ailment
killed
and
infected
hundreds
of
millions.
It
necessary
to
develop
computer-based
tool
fast,
precise,
inexpensive
detect
efficiently.
Recent
studies
revealed
machine
learning
deep
models
accurately
using
chest
X-ray
(CXR)
images.
However,
they
exhibit
notable
limitations,
such
as
large
amount
data
train,
larger
feature
vector
sizes,
enormous
trainable
parameters,
expensive
computational
resources
(GPUs),
longer
run-time.
Results
In
this
study,
we
proposed
new
approach
address
some
the
above-mentioned
limitations.
The
model
involves
following
steps:
First,
use
contrast
limited
adaptive
histogram
equalization
(CLAHE)
enhance
CXR
resulting
images
are
converted
from
CLAHE
YCrCb
color
space.
We
estimate
reflectance
chrominance
Illumination–Reflectance
model.
Finally,
normalized
local
binary
patterns
generated
(Cr)
YCb
classification
vector.
Decision
tree,
Naive
Bayes,
support
machine,
K-nearest
neighbor,
logistic
regression
were
used
algorithms.
performance
evaluation
on
test
set
indicates
superior,
with
accuracy
rates
99.01%,
100%,
98.46%
across
three
different
datasets,
respectively.
probabilistic
algorithm,
emerged
most
resilient.
Conclusion
Our
method
uses
fewer
handcrafted
features,
affordable
resources,
less
runtime
than
existing
state-of-the-art
approaches.
Emerging
nations
where
radiologists
in
short
supply
can
adopt
prototype.
made
both
coding
materials
datasets
accessible
general
public
for
further
improvement.
Check
manuscript’s
availability
under
declaration
section
access.
Scientific Reports,
Journal Year:
2024,
Volume and Issue:
14(1)
Published: Aug. 27, 2024
COVID-19
has
resulted
in
a
significant
global
impact
on
health,
the
economy,
education,
and
daily
life.
The
disease
can
range
from
mild
to
severe,
with
individuals
over
65
or
those
underlying
medical
conditions
being
more
susceptible
severe
illness.
Early
testing
isolation
are
vital
due
virus's
variable
incubation
period.
Chest
radiographs
(CXR)
have
gained
importance
as
diagnostic
tool
their
efficiency
reduced
radiation
exposure
compared
CT
scans.
However,
sensitivity
of
CXR
detecting
may
be
lower.
This
paper
introduces
deep
learning
framework
for
accurate
classification
severity
prediction
using
images.
U-Net
is
used
lung
segmentation,
achieving
precision
0.9924.
Classification
performed
Convulation-capsule
network,
high
true
positive
rates
86%
COVID-19,
93%
pneumonia,
85%
normal
cases.
Severity
assessment
employs
ResNet50,
VGG-16,
DenseNet201,
DenseNet201
showing
superior
accuracy.
Empirical
results,
validated
95%
confidence
intervals,
confirm
framework's
reliability
robustness.
integration
advanced
techniques
radiological
imaging
enhances
early
detection
assessment,
improving
patient
management
resource
allocation
clinical
settings.
Scientific Reports,
Journal Year:
2023,
Volume and Issue:
13(1)
Published: Dec. 9, 2023
Abstract
COVID-19,
a
novel
pathogen
that
emerged
in
late
2019,
has
the
potential
to
cause
pneumonia
with
unique
variants
upon
infection.
Hence,
development
of
efficient
diagnostic
systems
is
crucial
accurately
identifying
infected
patients
and
effectively
mitigating
spread
disease.
However,
system
poses
several
challenges
because
limited
availability
labeled
data,
distortion,
complexity
image
representation,
as
well
variations
contrast
texture.
Therefore,
two-phase
analysis
framework
been
developed
scrutinize
subtle
irregularities
associated
COVID-19
contamination.
A
new
Convolutional
Neural
Network-based
STM-BRNet
developed,
which
integrates
Split-Transform-Merge
(STM)
block
Feature
map
enrichment
(FME)
techniques
first
phase.
The
STM
captures
boundary
regional-specific
features
essential
for
detecting
infectious
CT
slices.
Additionally,
by
incorporating
FME
Transfer
Learning
(TL)
concept
into
blocks,
multiple
enhanced
channels
are
generated
capture
minute
illumination
texture
specific
COVID-19-infected
images.
residual
multipath
learning
used
improve
capacity
progressively
increase
feature
representation
boosting
at
high
level
through
TL.
In
second
phase
analysis,
scans
processed
using
newly
SA-CB-BRSeg
segmentation
CNN
delineate
infection
method
utilizes
approach
combines
smooth
heterogeneous
processes
both
encoder
decoder.
These
operations
structured
patterns,
including
region-homogenous,
variation,
border.
By
these
techniques,
demonstrates
its
ability
analyze
segment
related
data.
Furthermore,
model
incorporates
CB
decoder,
where
additional
combined
TL
enhance
low
regions.
models
achieve
impressive
results,
an
accuracy
98.01%,
recall
98.12%,
F-score
98.11%,
Dice
Similarity
96.396%,
IOU
98.85%.
proposed
will
alleviate
workload
radiologist's
decision-making
region
evaluating
severity
stages
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.