BMC Medical Informatics and Decision Making,
Год журнала:
2023,
Номер
23(1)
Опубликована: Июль 6, 2023
Abstract
Deep
learning
models
have
been
widely
used
in
electroencephalogram
(EEG)
analysis
and
obtained
excellent
performance.
But
the
adversarial
attack
defense
for
them
should
be
thoroughly
studied
before
putting
into
safety-sensitive
use.
This
work
exposes
an
important
safety
issue
deep-learning-based
brain
disease
diagnostic
systems
by
examining
vulnerability
of
deep
diagnosing
epilepsy
with
electrical
activity
mappings
(BEAMs)
to
white-box
attacks.
It
proposes
two
methods,
Gradient
Perturbations
BEAMs
(GPBEAM),
Differential
Evolution
(GPBEAM-DE),
which
generate
EEG
samples,
first
time
perturbing
densely
sparsely
respectively,
find
that
these
BEAMs-based
samples
can
easily
mislead
models.
The
experiments
use
data
from
CHB-MIT
dataset
types
victim
each
has
four
different
neural
network
(DNN)
architectures.
is
shown
that:
(1)
BEAM-based
produced
proposed
methods
this
paper
are
aggressive
BEAM-related
as
input
internal
DNN
architectures,
but
unaggressive
EEG-related
raw
top
success
rate
attacking
up
0.8
while
only
0.01;
(2)
GPBEAM-DE
outperforms
GPBEAM
when
they
same
model
under
a
distortion
constraint,
former
0.59
latter;
(3)
simple
modification
GPBEAM/GPBEAM-DE
will
make
it
aggressiveness
both
BEAMs-related
(with
0.64),
capacity
enhancement
done
without
any
cost
increment.
goal
study
not
medical
systems,
raise
concerns
about
hope
lead
safer
design.
IgMin Research,
Год журнала:
2024,
Номер
2(7), С. 518 - 523
Опубликована: Июль 5, 2024
Pneumonia
is
described
as
an
acute
infection
of
lung
tissue
produced
by
one
or
more
bacteria,
and
Coronavirus
Disease
(COVID-19)
a
deadly
virus
that
affects
the
lungs
human
body.
The
symptoms
COVID-19
disease
are
closely
related
to
pneumonia.
In
this
work,
we
identify
patients
pneumonia
coronavirus
from
chest
X-ray
images.
We
used
convolutional
neural
network
for
spatial
feature
learning
experimented
with
images
in
Kaggle
dataset.
corona
classified
using
feed-forward
hybrid
models
(CNN+SVM,
CNN+RF,
CNN+Xgboost).
experimental
findings
on
dataset
demonstrate
CNN
detects
99.47%
recall.
overall
experiments
x-ray
show
detected
95.45%
accuracy.
BioMedical Engineering OnLine,
Год журнала:
2024,
Номер
23(1)
Опубликована: Июль 31, 2024
Abstract
Background
Transcranial
sonography
(TCS)
plays
a
crucial
role
in
diagnosing
Parkinson's
disease.
However,
the
intricate
nature
of
TCS
pathological
features,
lack
consistent
diagnostic
criteria,
and
dependence
on
physicians'
expertise
can
hinder
accurate
diagnosis.
Current
TCS-based
methods,
which
rely
machine
learning,
often
involve
complex
feature
engineering
may
struggle
to
capture
deep
image
features.
While
learning
offers
advantages
processing,
it
has
not
been
tailored
address
specific
movement
disorder
considerations.
Consequently,
there
is
scarcity
research
algorithms
for
PD
Methods
This
study
introduces
residual
network
model,
augmented
with
attention
mechanisms
multi-scale
extraction,
termed
AMSNet,
assist
Initially,
extraction
module
implemented
robustly
handle
irregular
morphological
features
significant
area
information
present
images.
effectively
mitigates
effects
artifacts
noise.
When
combined
convolutional
module,
enhances
model's
ability
learn
lesion
areas.
Subsequently,
architecture,
integrated
channel
attention,
utilized
hierarchical
detailed
textures
within
images,
further
enhancing
representation
capabilities.
Results
The
compiled
images
personal
data
from
1109
participants.
Experiments
conducted
this
dataset
demonstrated
that
AMSNet
achieved
remarkable
classification
accuracy
(92.79%),
precision
(95.42%),
specificity
(93.1%).
It
surpassed
performance
previously
employed
domain,
as
well
current
general-purpose
models.
Conclusion
proposed
deviates
traditional
approaches
necessitate
engineering.
capable
automatically
extracting
capacity
comprehend
articulate
data.
underscores
substantial
potential
methods
application
diagnosis
disorders.
Graphical
PeerJ Computer Science,
Год журнала:
2024,
Номер
10, С. e2517 - e2517
Опубликована: Дек. 24, 2024
The
global
spread
of
SARS-CoV-2
has
prompted
a
crucial
need
for
accurate
medical
diagnosis,
particularly
in
the
respiratory
system.
Current
diagnostic
methods
heavily
rely
on
imaging
techniques
like
CT
scans
and
X-rays,
but
identifying
these
images
proves
to
be
challenging
time-consuming.
In
this
context,
artificial
intelligence
(AI)
models,
specifically
deep
learning
(DL)
networks,
emerge
as
promising
solution
image
analysis.
This
article
provides
meticulous
comprehensive
review
imaging-based
diagnosis
using
up
May
2024.
starts
with
an
overview
covering
basic
steps
learning-based
data
sources,
pre-processing
methods,
taxonomy
techniques,
findings,
research
gaps
performance
evaluation.
We
also
focus
addressing
current
privacy
issues,
limitations,
challenges
realm
diagnosis.
According
taxonomy,
each
model
is
discussed,
encompassing
its
core
functionality
critical
assessment
suitability
detection.
A
comparative
analysis
included
by
summarizing
all
relevant
studies
provide
overall
visualization.
Considering
best
deep-learning
detection,
conducts
experiment
twelve
contemporary
techniques.
experimental
result
shows
that
MobileNetV3
outperforms
other
models
accuracy
98.11%.
Finally,
elaborates
explores
potential
future
directions
methodological
recommendations
advancement.
BMC Medical Informatics and Decision Making,
Год журнала:
2023,
Номер
23(1)
Опубликована: Июль 6, 2023
Abstract
Deep
learning
models
have
been
widely
used
in
electroencephalogram
(EEG)
analysis
and
obtained
excellent
performance.
But
the
adversarial
attack
defense
for
them
should
be
thoroughly
studied
before
putting
into
safety-sensitive
use.
This
work
exposes
an
important
safety
issue
deep-learning-based
brain
disease
diagnostic
systems
by
examining
vulnerability
of
deep
diagnosing
epilepsy
with
electrical
activity
mappings
(BEAMs)
to
white-box
attacks.
It
proposes
two
methods,
Gradient
Perturbations
BEAMs
(GPBEAM),
Differential
Evolution
(GPBEAM-DE),
which
generate
EEG
samples,
first
time
perturbing
densely
sparsely
respectively,
find
that
these
BEAMs-based
samples
can
easily
mislead
models.
The
experiments
use
data
from
CHB-MIT
dataset
types
victim
each
has
four
different
neural
network
(DNN)
architectures.
is
shown
that:
(1)
BEAM-based
produced
proposed
methods
this
paper
are
aggressive
BEAM-related
as
input
internal
DNN
architectures,
but
unaggressive
EEG-related
raw
top
success
rate
attacking
up
0.8
while
only
0.01;
(2)
GPBEAM-DE
outperforms
GPBEAM
when
they
same
model
under
a
distortion
constraint,
former
0.59
latter;
(3)
simple
modification
GPBEAM/GPBEAM-DE
will
make
it
aggressiveness
both
BEAMs-related
(with
0.64),
capacity
enhancement
done
without
any
cost
increment.
goal
study
not
medical
systems,
raise
concerns
about
hope
lead
safer
design.