IEEE Access,
Год журнала:
2023,
Номер
11, С. 28896 - 28919
Опубликована: Янв. 1, 2023
Open-box
models
in
medical
domain
have
high
acceptance
and
demand
by
many
examiners.
Even
though
the
accuracy
predicted
most
of
convolutional
neural
network
(CNN)
is
high,
it
still
not
convincing
as
detail
discussion
regarding
outcome
semi-transparent
functioning
process.
As
pneumonia
one
top
contagious
infection
that
makes
population
affected
due
to
low
immunity.
Therefore,
goal
this
paper
implement
an
interpretable
classification
using
eXplainable
AI
(XAI-ICP).
Thus,
XAI-ICP
highly
efficient
system
designed
solve
challenge
adapting
recent
health
conditions.
The
aim
design
deep
transfer
learning
based
evaluation
for
classification.
model
primarily
pre-trained
open
Chest
X-Ray
(CXR)
dataset
from
National
Institutes
Health
(NIH).
Whereas,
training
input
testing
given
Taichung
Veterans
General
Hospital
(TCVGH)
independent
learning,
Taiwan
+
VinDr
patients
with
labelled
CXR
images
possessing
three
features
infiltrate,
cardiomegaly
effusion.
data
labelling
performed
examiners
XAI
human-in-the-loop
approach.
demonstrates
re-configurable
DCNN
a
novel
provides
transparency
analysis
competitive
accuracy.
purpose
work,
can
continuously
improve
itself
feedback
provide
feasibility
deployment
across
multiple
countries
then
decisions
taken
at
each
step
used
within
algorithm
during
hospitalization.
scope
be
explainable
usage
diagnosis
preprocessing
evaluation.
achieved
92.14%
further
improved
on
successive
93.29%.
adapts
different
while
providing
results
Procedia Computer Science,
Год журнала:
2023,
Номер
218, С. 357 - 366
Опубликована: Янв. 1, 2023
Pneumonia
is
a
viral
infection
which
affects
significant
proportion
of
individuals,
especially
in
developing
and
penurious
countries
where
contamination,
overcrowded,
unsanitary
living
conditions
are
widespread,
along
with
the
lack
healthcare
infrastructures.
produces
pericardial
effusion,
disease
wherein
fluids
fill
chest
create
inhaling
problems.
It
difficult
step
to
recognize
presence
pneumonia
quickly
order
receive
treatment
services
improve
survival
chances.
Deep
learning,
field
artificial
intelligence
used
successful
development
prediction
models.
There
various
ways
detecting
such
as
CT-scan,
pulse
oximetry,
many
more
among
most
common
way
X-ray
tomography.
On
other
hand,
examining
X-rays
(CXR)
tough
process
susceptible
subjective
variability.
In
this
work,
deep
learning(DL)
model
using
VGG16
utilized
for
classifying
two
CXR
image
datasets.
The
Neural
Networks
(NN)
provides
an
accuracy
value
92.15%,
recall
0.9308,
precision
0.9428,
F1-Score0.937
first
dataset.
Furthermore,
experiment
NN
has
been
performed
on
another
dataset
containing
6,436
images
pneumonia,
normal
covid-19.
results
second
provide
accuracy,
recall,
precision,
F1-score
95.4%,
0.954,
respectively.
research
outcome
exhibits
that
better
performance
than
Support
Vector
Machine
(SVM),
K-Nearest
Neighbor
(KNN),
Random
Forest
(RF),
Naïve
Bayes
(NB)
both
Further,
proposed
work
exhibit
improved
datasets
1
2
comparison
existing
IEEE/CAA Journal of Automatica Sinica,
Год журнала:
2023,
Номер
10(4), С. 859 - 876
Опубликована: Март 28, 2023
Artificial
intelligence
(AI)
continues
to
transform
data
analysis
in
many
domains.
Progress
each
domain
is
driven
by
a
growing
body
of
annotated
data,
increased
computational
resources,
and
technological
innovations.
In
medicine,
the
sensitivity
complexity
tasks,
potentially
high
stakes,
requirement
accountability
give
rise
particular
set
challenges.
this
review,
we
focus
on
three
key
methodological
approaches
that
address
some
challenges
AI-driven
medical
decision
making.
1)
Explainable
AI
aims
produce
human-interpretable
justification
for
output.
Such
models
increase
confidence
if
results
appear
plausible
match
clinicians
expectations.
However,
absence
explanation
does
not
imply
an
inaccurate
model.
Especially
highly
non-linear,
complex
are
tuned
maximize
accuracy,
such
interpretable
representations
only
reflect
small
portion
justification.
2)
Domain
adaptation
transfer
learning
enable
be
trained
applied
across
multiple
For
example,
classification
task
based
images
acquired
different
acquisition
hardware.
3)
Federated
enables
large-scale
without
exposing
sensitive
personal
health
information.
Unlike
centralized
learning,
where
machine
has
access
entire
training
federated
process
iteratively
updates
sites
exchanging
parameter
updates,
data.
This
narrative
review
covers
basic
concepts,
highlights
relevant
corner-stone
state-of-the-art
research
field,
discusses
perspectives.
International Journal of Computational and Experimental Science and Engineering,
Год журнала:
2024,
Номер
10(4)
Опубликована: Окт. 8, 2024
COVID-19
has
affected
hundreds
of
millions
individuals,
seriously
harming
the
global
population’s
health,
welfare,
and
economy.
Furthermore,
health
facilities
are
severely
overburdened
due
to
record
number
cases,
which
makes
prompt
accurate
diagnosis
difficult.
Automatically
identifying
infected
individuals
promptly
placing
them
under
special
care
is
a
critical
step
in
reducing
burden
such
issues.
Convolutional
Neural
Networks
(CNN)
other
machine
learning
techniques
can
be
utilized
address
this
demand.
Many
existing
Deep
models,
albeit
producing
intended
outcomes,
were
developed
using
parameters,
making
unsuitable
for
use
on
devices
with
constrained
resources.
Motivated
by
fact,
novel
lightweight
deep
model
based
Efficient
Channel
Attention
(ECA)
module
SqueezeNet
architecture,
work
identify
patients
from
chest
X-ray
CT
images
initial
phases
disease.
After
proposed
was
tested
different
datasets
two,
three
four
classes,
results
show
its
better
performance
over
models.
The
outcomes
shown
that,
comparison
current
heavyweight
our
models
reduced
cost
memory
requirements
computing
resources
dramatically,
while
still
achieving
comparable
performance.
These
support
notion
that
help
diagnose
Covid-19
being
easily
implemented
low-resource
low-processing
devices.
Diagnostics,
Год журнала:
2025,
Номер
15(6), С. 689 - 689
Опубликована: Март 11, 2025
The
widespread
use
of
medical
imaging
techniques
such
as
X-rays
and
computed
tomography
(CT)
has
raised
significant
concerns
regarding
ionizing
radiation
exposure,
particularly
among
vulnerable
populations
requiring
frequent
imaging.
Achieving
a
balance
between
high-quality
diagnostic
minimizing
exposure
remains
fundamental
challenge
in
radiology.
Artificial
intelligence
(AI)
emerged
transformative
solution,
enabling
low-dose
protocols
that
enhance
image
quality
while
significantly
reducing
doses.
This
review
explores
the
role
AI-assisted
imaging,
CT,
X-ray,
magnetic
resonance
(MRI),
highlighting
advancements
deep
learning
models,
convolutional
neural
networks
(CNNs),
other
AI-based
approaches.
These
technologies
have
demonstrated
substantial
improvements
noise
reduction,
artifact
removal,
real-time
optimization
parameters,
thereby
enhancing
accuracy
mitigating
risks.
Additionally,
AI
contributed
to
improved
radiology
workflow
efficiency
cost
reduction
by
need
for
repeat
scans.
also
discusses
emerging
directions
AI-driven
including
hybrid
systems
integrate
post-processing
with
data
acquisition,
personalized
tailored
patient
characteristics,
expansion
applications
fluoroscopy
positron
emission
(PET).
However,
challenges
model
generalizability,
regulatory
constraints,
ethical
considerations,
computational
requirements
must
be
addressed
facilitate
broader
clinical
adoption.
potential
revolutionize
safety,
optimizing
quality,
improving
healthcare
efficiency,
paving
way
more
advanced
sustainable
future