Research Square (Research Square),
Journal Year:
2023,
Volume and Issue:
unknown
Published: Sept. 6, 2023
Abstract
This
study
investigated
the
usefulness
of
deep
learning-based
automatic
detection
temporomandibular
joint
(TMJ)
effusion
using
magnetic
resonance
imaging
(MRI)
in
patients
with
disorder
(TMD)
and
whether
diagnostic
accuracy
model
improved
when
patients’
clinical
information
was
provided
addition
to
MRI
images.
The
sagittal
MR
images
2,948
TMJs
were
collected
from
1,017
women
457
men
(mean
age
37.19
±
18.64
years).
TMJ
performances
three
convolutional
neural
networks
(scratch,
fine-tuning,
freeze
schemes)
compared
those
human
experts
based
on
areas
under
curve
(AUCs)
diagnosis
accuracies.
fine-tuning
proton
density
(PD)
showed
acceptable
prediction
performance
(AUC
=
0.7895),
from-scratch
(0.6193)
(0.6149)
models
lower
(p
<
0.05).
had
excellent
specificity
(87.25%
vs.
58.17%).
However,
superior
sensitivity
(80.00%
57.43%)
(all
p
0.001).
In
Grad-CAM
visualizations,
scheme
focused
more
than
other
structures
TMJ,
sparsity
higher
that
(82.40%
49.83%,
visualizations
agreed
learned
through
important
features
area,
particularly
around
articular
disc.
Two
PD
T2-weighted
did
not
improve
alone
Diverse
AUCs
observed
across
each
group
divided
according
(0.7083–0.8375)
sex
(male:0.7576,
female:0.7083).
ensemble
all
data
used
(74.21%
67.71%,
A
network
(DNN)
developed
process
multimodal
data,
including
patient
data.
Analysis
four
groups
DNN
41–60
best
0.8258).
There
no
significant
difference
between
>
optimal
for
judging
may
be
prevent
true
negative
cases
aid
performance.
Assistive
automated
methods
have
potential
increase
clinicians’
accuracy.
Canadian Association of Radiologists Journal,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 19, 2025
The
applications
of
artificial
intelligence
(AI)
in
radiology
are
rapidly
advancing
with
AI
algorithms
being
used
a
wide
range
disease
pathologies
and
clinical
settings.
Acute
thoracic
including
rib
fractures,
pneumothoraces,
acute
PE
associated
significant
morbidity
mortality
their
identification
is
crucial
for
prompt
treatment.
models
which
increase
diagnostic
accuracy,
improve
radiologist
efficiency
reduce
time
to
diagnosis
abnormalities
the
thorax
have
potential
significantly
patient
outcomes.
purpose
this
review
summarize
current
imaging,
highlighting
strengths,
limitations,
future
research
opportunities.
Journal of the Mexican Federation of Radiology and Imaging,
Journal Year:
2024,
Volume and Issue:
3(2)
Published: July 9, 2024
Artificial
intelligence
(AI)
is
revolutionizing
clinical
medicine,
particularly
radiology,
by
enhancing
diagnostic
accuracy
and
streamlining
operational
efficiency.Radiology
benefits
from
AI's
prowess
in
image
pattern
recognition,
which
not
only
augments
radiologists'
capabilities
but
also
optimizes
tasks
such
as
scheduling
radiation
monitoring.AI's
applications
span
interventional
enabling
the
interpretation
of
complex
imaging
data
through
advanced
technologies
convolutional
neural
networks
radiomics.These
tools
help
detect
subtle
disease
indicators
often
missed
human
eye.AI
improves
radiology
department
management
automating
routine
prioritizing
urgent
cases
to
ensure
timely
medical
interventions.Educational
programs
must
evolve
prepare
next
generation
radiologists
for
a
future
where
AI
ubiquitous
their
professional
landscape.However,
integrating
into
brings
challenges,
including
ethical
legal
concerns
about
patient
privacy,
security,
potential
bias
algorithms.Ethical
be
addressed
developing
robust
guidelines
that
keep
pace
with
technological
advancements.Addressing
these
issues
requires
rigorous
validation
across
various
settings
demographics.Undoubtedly,
will
empower
radiologists,
enhance
accuracy,
contribute
precision
personalized
medicine.
Canadian Association of Radiologists Journal,
Journal Year:
2024,
Volume and Issue:
75(3), P. 525 - 533
Published: Jan. 8, 2024
Pneumothorax
is
a
common
acute
presentation
in
healthcare
settings.
A
chest
radiograph
(CXR)
often
necessary
to
make
the
diagnosis,
and
minimizing
time
between
diagnosis
critical
deliver
optimal
treatment.
Deep
learning
(DL)
algorithms
have
been
developed
rapidly
identify
pathologic
findings
on
various
imaging
modalities.
Academia Medicine,
Journal Year:
2025,
Volume and Issue:
2(1)
Published: Feb. 21, 2025
Artificial
intelligence
(AI)
is
transforming
the
field
of
radiology.
Among
various
radiologic
subspecialties,
thoracic
imaging
has
seen
a
significant
rise
in
demand
due
to
global
increase
heart,
vascular,
lung,
and
diseases
such
as
lung
cancer,
pneumonia,
pulmonary
embolism,
cardiovascular
diseases.
AI
promises
revolutionize
diagnostics
by
enhancing
detection,
improving
accuracy,
reducing
time
required
interpret
images.
It
leverages
deep
learning
algorithms,
particularly
convolutional
neural
networks,
which
are
increasingly
integrated
into
workflows
assist
radiologists
diagnosing
evaluating
systems
can
help
identify
subtle
findings
that
might
otherwise
be
overlooked,
thereby
increasing
efficiency
diagnostic
errors.
Studies
have
shown
several
algorithms
been
trained
detect
acute
chest
conditions
aortic
dissection,
rib
fractures,
nodules
with
high
sensitivity
specificity,
offering
substantial
benefits
emergency
high-workload
environments.
This
review
article
focuses
on
presenting
syndrome
or
trauma
settings.
provides
an
overview
applications
imaging,
focusing
advancements
screening,
early
disease
triage
prioritization,
automated
image
analysis,
workflow
optimization.
These
points
supported
articles
published
subject,
including
our
own
publications.
We
further
explore
challenges
regulatory
barriers,
interpretability,
need
for
large,
diverse
datasets.
Finally,
we
discuss
future
directions
highlighting
its
potential
enhance
patient
outcomes
healthcare
system
efficiencies.
IGI Global eBooks,
Journal Year:
2025,
Volume and Issue:
unknown, P. 173 - 194
Published: March 28, 2025
This
study
aims
to
use
neural
networks
predict
pneumothorax
on
X-rays,
highlighting
the
transformative
impact
of
these
systems
diagnosing
and
managing
condition,
thereby
improving
clinical
decision-making.
The
uses
a
Kaggle
dataset
chest
X-rays
with
annotated
labels
detect
pneumothorax.
Convolutional
are
used
for
image
classification
tasks,
including
detection.
accuracy
logistics
regression
was
59%
61%,
respectively.
A
deep
learning
model
detection
has
shown
high
sensitivity,
specificity,
accuracy,
interpretability.
Neural
demonstrate
potential
in
radiographs.
Deep
models
surpass
traditional
logistic
this
task.
Further
research
is
required
optimize
performance
evaluate
utility.
Physics in Medicine and Biology,
Journal Year:
2024,
Volume and Issue:
69(14), P. 145017 - 145017
Published: July 2, 2024
Abstract
Objective.
The
trend
in
the
medical
field
is
towards
intelligent
detection-based
diagnostic
systems.
However,
these
methods
are
often
seen
as
‘black
boxes’
due
to
their
lack
of
interpretability.
This
situation
presents
challenges
identifying
reasons
for
misdiagnoses
and
improving
accuracy,
which
leads
potential
risks
misdiagnosis
delayed
treatment.
Therefore,
how
enhance
interpretability
models
crucial
patient
outcomes
reducing
treatment
delays.
So
far,
only
limited
researches
exist
on
deep
learning-based
prediction
spontaneous
pneumothorax,
a
pulmonary
disease
that
affects
lung
ventilation
venous
return.
Approach.
study
develops
an
integrated
image
analysis
system
using
explainable
learning
model
recognition
visualization
achieve
interpretable
automatic
diagnosis
process.
Main
results.
achieves
impressive
95.56%
accuracy
pneumothorax
classification,
emphasizes
significance
blood
vessel
penetration
defect
clinical
judgment.
Significance.
would
lead
improve
trustworthiness,
reduce
uncertainty,
accurate
various
diseases,
results
better
patients
utilization
resources.
Future
research
can
focus
implementing
new
detect
diagnose
other
diseases
generalizability
this
system.
Scientific Reports,
Journal Year:
2024,
Volume and Issue:
14(1)
Published: Aug. 14, 2024
This
study
investigated
the
usefulness
of
deep
learning-based
automatic
detection
temporomandibular
joint
(TMJ)
effusion
using
magnetic
resonance
imaging
(MRI)
in
patients
with
disorder
and
whether
diagnostic
accuracy
model
improved
when
patients'
clinical
information
was
provided
addition
to
MRI
images.
The
sagittal
MR
images
2948
TMJs
were
collected
from
1017
women
457
men
(mean
age
37.19
±
18.64
years).
TMJ
performances
three
convolutional
neural
networks
(scratch,
fine-tuning,
freeze
schemes)
compared
those
human
experts
based
on
areas
under
curve
(AUCs)
diagnosis
accuracies.
fine-tuning
proton
density
(PD)
showed
acceptable
prediction
performance
(AUC
=
0.7895),
from-scratch
(0.6193)
(0.6149)
models
lower
(p
<
0.05).
had
excellent
specificity
(87.25%
vs.
58.17%).
However,
superior
sensitivity
(80.00%
57.43%)
(all
p
0.001).
In
gradient-weighted
class
activation
mapping
(Grad-CAM)
visualizations,
scheme
focused
more
than
other
structures
TMJ,
sparsity
higher
that
(82.40%
49.83%,
Grad-CAM
visualizations
agreed
learned
through
important
features
area,
particularly
around
articular
disc.
Two
PD
T2-weighted
did
not
improve
alone
Diverse
AUCs
observed
across
each
group
divided
according
(0.7083–0.8375)
sex
(male:0.7576,
female:0.7083).
ensemble
all
data
used
(74.21%
67.71%,
A
network
(DNN)
developed
process
multimodal
data,
including
patient
data.
Analysis
four
groups
DNN
41–60
best
0.8258).
optimal
for
judging
may
be
prevent
true
negative
cases
aid
performance.
Assistive
automated
methods
have
potential
increase
clinicians'
accuracy.