HydraViT: Adaptive multi-branch transformer for multi-label disease classification from Chest X-ray images
Biomedical Signal Processing and Control,
Год журнала:
2024,
Номер
100, С. 106959 - 106959
Опубликована: Сен. 30, 2024
Язык: Английский
Learning to Generalize towards Unseen Domains via a Content-Aware Style Invariant Model for Disease Detection from Chest X-rays
IEEE Journal of Biomedical and Health Informatics,
Год журнала:
2024,
Номер
28(6), С. 3626 - 3636
Опубликована: Март 5, 2024
Performance
degradation
due
to
distribution
discrepancy
is
a
longstanding
challenge
in
intelligent
imaging,
particularly
for
chest
X-rays
(CXRs).
Recent
studies
have
demonstrated
that
CNNs
are
biased
toward
styles
(e.g.,
uninformative
textures)
rather
than
content
shape),
stark
contrast
the
human
vision
system.
Radiologists
tend
learn
visual
cues
from
CXRs
and
thus
perform
well
across
multiple
domains.
Motivated
by
this,
we
employ
novel
on-the-fly
style
randomization
modules
at
both
image
(SRM-IL)
feature
(SRM-FL)
levels
create
rich
perturbed
features
while
keeping
intact
robust
cross-domain
performance.
Previous
methods
simulate
unseen
domains
constructing
new
via
interpolation
or
swapping
existing
data,
limiting
them
available
source
during
training.
However,
SRM-IL
samples
statistics
possible
value
range
of
CXR
instead
training
data
achieve
more
diversified
augmentations.
Moreover,
utilize
pixel-wise
learnable
parameters
SRM-FL
compared
pre-defined
channel-wise
mean
standard
deviations
as
embeddings
capturing
representative
features.
Additionally,
leverage
consistency
regularizations
on
global
semantic
predictive
distributions
with
without
style-perturbed
versions
same
tweak
model's
sensitivity
markers
accurate
predictions.
Our
proposed
method,
trained
CheXpert
MIMIC-CXR
datasets,
achieves
77.32±0.35,
88.38±0.19,
82.63±0.13
AUCs(%)
domain
test
i.e.,
BRAX,
VinDr-CXR,
NIH
X-ray14,
respectively,
75.56±0.80,
87.57±0.46,
82.07±0.19
state-of-the-art
models
five-fold
cross-validation
statistically
significant
results
thoracic
disease
classification.
Язык: Английский
Reconstruction-based approach for chest X-ray image segmentation and enhanced multi-label chest disease classification
Artificial Intelligence in Medicine,
Год журнала:
2025,
Номер
165, С. 103135 - 103135
Опубликована: Апрель 23, 2025
U-Net
is
a
commonly
used
model
for
medical
image
segmentation.
However,
when
applied
to
chest
X-ray
images
that
show
pathologies,
it
often
fails
include
these
critical
pathological
areas
in
the
generated
masks.
To
address
this
limitation,
our
study,
we
tackled
challenge
of
precise
segmentation
and
mask
generation
by
developing
novel
approach,
using
CycleGAN,
encompasses
affected
pathologies
within
region
interest,
allowing
extraction
relevant
radiomic
features
linked
pathologies.
Furthermore,
adopted
feature
selection
approach
focus
analysis
on
most
significant
features.
The
results
proposed
pipeline
are
promising,
with
an
average
accuracy
92.05%
AUC
89.48%
multi-label
classification
effusion
infiltration
acquired
from
ChestX-ray14
dataset,
XGBoost
model.
applying
methodology
14
diseases
dataset
resulted
83.12%,
outperforming
previous
studies.
This
research
highlights
importance
effective
accurate
diseases.
promising
underscore
its
potential
broader
applications
Язык: Английский
Curriculum-Based Augmented Fourier Domain Adaptation for Robust Medical Image Segmentation
IEEE Transactions on Automation Science and Engineering,
Год журнала:
2023,
Номер
21(3), С. 4340 - 4352
Опубликована: Июль 24, 2023
Accurate
and
robust
medical
image
segmentation
is
fundamental
crucial
for
enhancing
the
autonomy
of
computer-aided
diagnosis
intervention
systems.
Medical
data
collection
normally
involves
different
scanners,
protocols,
populations,
making
domain
adaptation
(DA)
a
highly
demanding
research
field
to
alleviate
model
degradation
in
deployment
site.
To
preserve
performance
across
multiple
testing
domains,
this
work
proposes
Curriculum-based
Augmented
Fourier
Domain
Adaptation
(Curri-AFDA)
segmentation.
In
particular,
our
curriculum
learning
strategy
based
on
causal
relationship
under
levels
shift
phase,
where
higher
is,
harder
recognize
variance.
Considering
this,
we
progressively
introduce
more
amplitude
information
from
target
source
frequency
space
during
curriculum-style
training
smoothly
schedule
semantic
knowledge
transfer
an
easier-to-harder
manner.
Besides,
incorporate
training-time
chained
augmentation
mixing
help
expand
distributions
while
preserving
domain-invariant
semantics,
which
beneficial
acquired
be
generalize
better
unseen
domains.
Extensive
experiments
two
tasks
Retina
Nuclei
collected
sites
scanners
suggest
that
proposed
method
yields
superior
generalization
performance.
Meanwhile,
approach
proves
various
corruption
types
increasing
severity
levels.
addition,
show
also
domain-adaptive
classification
task
with
skin
lesion
datasets.
The
code
available
at
https://github.com/lofrienger/Curri-AFDA.
Note
Practitioners
—Medical
key
improving
computer-assisted
autonomy.
However,
due
gaps
between
sites,
deep
learning-based
models
frequently
encounter
when
deployed
novel
domain.
Moreover,
robustness
expected
mitigate
effects
corruption.
all
these
yet
practical
needs
automate
applications
benefit
healthcare,
propose
cross-domain
datasets
consistent
superiority
regarding
domains
against
synthetic
corrupted
data.
independent
modalities
because
its
efficacy
does
not
rely
modality-specific
characteristics.
demonstrate
besides
ablation
study.
Therefore,
can
potentially
applied
many
yield
improved
Future
works
may
extended
by
exploring
integration
regime
fusion
time
rather
than
like
most
other
existing
works.
Язык: Английский
A systematic review of generalization research in medical image classification
Computers in Biology and Medicine,
Год журнала:
2024,
Номер
183, С. 109256 - 109256
Опубликована: Окт. 20, 2024
Язык: Английский
ThoraX-PriorNet: A Novel Attention-Based Architecture Using Anatomical Prior Probability Maps for Thoracic Disease Classification
IEEE Access,
Год журнала:
2023,
Номер
12, С. 3256 - 3273
Опубликована: Дек. 22, 2023
Objective:
Computer-aided
disease
diagnosis
and
prognosis
based
on
medical
images
is
a
rapidly
emerging
field.
Many
Convolutional
Neural
Network
(CNN)
architectures
have
been
developed
by
researchers
for
classification
localization
from
chest
X-ray
images.
It
known
that
different
thoracic
lesions
are
more
likely
to
occur
in
specific
anatomical
regions
compared
others.
This
article
aims
incorporate
this
region-dependent
prior
probability
distribution
within
deep
learning
framework.
xmlns:xlink="http://www.w3.org/1999/xlink">Methods:
We
present
the
ThoraX-PriorNet,
novel
attention-based
CNN
model
classification.
first
estimate
disease-dependent
spatial
probability,
i.e.,
an
prior,
indicates
of
occurrence
region
image.
Next,
we
develop
combines
information
estimated
automatically
extracted
interest
(ROI)
masks
provide
attention
feature
maps
generated
convolution
network.
Unlike
previous
works
utilize
various
self-attention
mechanisms,
proposed
method
leverages
ROI
along
with
probabilistic
information,
which
selects
diseases
attention.
xmlns:xlink="http://www.w3.org/1999/xlink">Results:
The
shows
superior
performance
NIH
ChestX-ray14
dataset
existing
state-of-the-art
methods
while
reaching
area
under
ROC
curve
(%AUC)
84.67.
Regarding
localization,
anatomy
competitive
methods,
achieving
accuracy
0.80,
0.63,
0.49,
0.33,
0.28,
0.21,
0.04
Intersection
over
Union
(IoU)
threshold
0.1,
0.2,
0.3,
0.4,
0.5,
0.6,
0.7,
respectively.
xmlns:xlink="http://www.w3.org/1999/xlink">Impact
Statement:
ThoraX-PriorNet
can
be
generalized
image
tasks
where
lesion
dependent
sites.
Язык: Английский
Breaking Down Covariate Shift on Pneumothorax Chest X-Ray Classification
Lecture notes in computer science,
Год журнала:
2023,
Номер
unknown, С. 157 - 166
Опубликована: Янв. 1, 2023
Язык: Английский
Learning to Generalize towards Unseen Domains via a Content-Aware Style Invariant Model for Disease Detection from Chest X-rays
arXiv (Cornell University),
Год журнала:
2023,
Номер
unknown
Опубликована: Янв. 1, 2023
Performance
degradation
due
to
distribution
discrepancy
is
a
longstanding
challenge
in
intelligent
imaging,
particularly
for
chest
X-rays
(CXRs).
Recent
studies
have
demonstrated
that
CNNs
are
biased
toward
styles
(e.g.,
uninformative
textures)
rather
than
content
shape),
stark
contrast
the
human
vision
system.
Radiologists
tend
learn
visual
cues
from
CXRs
and
thus
perform
well
across
multiple
domains.
Motivated
by
this,
we
employ
novel
on-the-fly
style
randomization
modules
at
both
image
(SRM-IL)
feature
(SRM-FL)
levels
create
rich
perturbed
features
while
keeping
intact
robust
cross-domain
performance.
Previous
methods
simulate
unseen
domains
constructing
new
via
interpolation
or
swapping
existing
data,
limiting
them
available
source
during
training.
However,
SRM-IL
samples
statistics
possible
value
range
of
CXR
instead
training
data
achieve
more
diversified
augmentations.
Moreover,
utilize
pixel-wise
learnable
parameters
SRM-FL
compared
pre-defined
channel-wise
mean
standard
deviations
as
embeddings
capturing
representative
features.
Additionally,
leverage
consistency
regularizations
on
global
semantic
predictive
distributions
with
without
style-perturbed
versions
same
tweak
model's
sensitivity
markers
accurate
predictions.
Our
proposed
method,
trained
CheXpert
MIMIC-CXR
datasets,
achieves
77.32$\pm$0.35,
88.38$\pm$0.19,
82.63$\pm$0.13
AUCs(%)
domain
test
i.e.,
BRAX,
VinDr-CXR,
NIH
X-ray14,
respectively,
75.56$\pm$0.80,
87.57$\pm$0.46,
82.07$\pm$0.19
state-of-the-art
models
five-fold
cross-validation
statistically
significant
results
thoracic
disease
classification.
Язык: Английский
AI-Enhanced Diagnosis: Pediatric Chest X-ray Classification for Bronchiolitis and Pneumonia
Опубликована: Ноя. 22, 2023
The
pediatric
diseases
in
question
are
bronchiolitis
and
pneumonia,
which
pose
a
significant
threat
to
children,
especially
those
under
ten
years
of
age.
Rapid
diagnosis
often
requires
chest
X-ray;
reading
interpreting
these
images
is
challenging,
the
expertise
skilled
doctor.
It
essential
take
advantage
advanced
image
recognition
techniques
aid
examinations
extracting
necessary
information.
This
study
employed
deep
transfer
learning
models,
including
VGG16,
VGG19,
MobileNetV2,
InceptionResNetV2,
diagnose
pneumonia
X-rays
(PCXr)
for
first
time.
Our
findings
show
that
InceptionResNetV2
model
has
achieved
highest
recall
rate
bronchiolitis,
with
an
impressive
value
78.82%.
Following
that,
VGG16
77.64%,
MobileNetV2
at
74.11%,
VGG19
62.35%.
Furthermore,
when
assessing
models
comprehensively
based
on
their
performance
terms
F-score,
outperformed
others
F-score
65.68%.
Язык: Английский