Deep Learning-Driven Single-Lead ECG Classification: A Rapid Approach for Comprehensive Cardiac Diagnostics
Diagnostics,
Journal Year:
2025,
Volume and Issue:
15(3), P. 384 - 384
Published: Feb. 6, 2025
Background/Objectives:
This
study
aims
to
address
the
critical
need
for
accessible,
early,
and
accurate
cardiac
di-agnostics,
especially
in
resource-limited
or
remote
settings.
By
shifting
focus
from
traditional
multi-lead
ECG
analysis
single-lead
data,
this
research
explores
potential
of
advanced
deep
learning
models
classifying
conditions,
including
Nor-mal,
Abnormal,
Previous
Myocardial
Infarction
(PMI),
(MI).
Methods:
Five
state-of-the-art
architectures—Inception,
DenseNet201,
MobileNetV2,
NASNetLarge,
VGG16—were
systematically
evaluated
on
individual
leads.
Key
performance
metrics,
such
as
model
accuracy,
inference
time,
size,
were
analyzed
determine
optimal
configurations
practical
applications.
Results:
VGG16
emerged
most
model,
achieving
an
F1-score
98.11%
lead
V4
with
a
prediction
time
4.2
ms
size
528
MB,
making
it
suitable
high-precision
clinical
compact
13.4
offered
balanced
performance,
97.24%
faster
3.2
ms,
positioning
ideal
candidate
real-time
monitoring
telehealth
Conclusions:
bridges
gap
diagnostics
by
demonstrating
feasibility
lightweight,
scalable,
using
models.
The
findings
pave
way
deploying
portable
diagnostic
tools
across
diverse
settings,
enhancing
accessibility
efficiency
care
globally.
Language: Английский
Transformer and Attention-Based Architectures for Segmentation of Coronary Arterial Walls in Intravascular Ultrasound: A Narrative Review
Vandana Kumari,
No information about this author
Alok Katiyar,
No information about this author
Mrinalini Bhagawati
No information about this author
et al.
Diagnostics,
Journal Year:
2025,
Volume and Issue:
15(7), P. 848 - 848
Published: March 26, 2025
Background:
The
leading
global
cause
of
death
is
coronary
artery
disease
(CAD),
necessitating
early
and
precise
diagnosis.
Intravascular
ultrasound
(IVUS)
a
sophisticated
imaging
technique
that
provides
detailed
visualization
arteries.
However,
the
methods
for
segmenting
walls
in
IVUS
scan
into
internal
wall
structures
quantifying
plaque
are
still
evolving.
This
study
explores
use
transformers
attention-based
models
to
improve
diagnostic
accuracy
segmentation
scans.
Thus,
objective
explore
application
transformer
scans
assess
their
inherent
biases
artificial
intelligence
systems
improving
accuracy.
Methods:
By
employing
Preferred
Reporting
Items
Systematic
Reviews
Meta-Analyses
(PRISMA)
framework,
we
pinpointed
examined
top
strategies
using
transformer-based
techniques,
assessing
traits,
scientific
soundness,
clinical
relevancy.
Coronary
thickness
determined
by
boundaries
(inner:
lumen-intima
outer:
media-adventitia)
through
cross-sectional
Additionally,
it
first
investigate
deep
learning
(DL)
associated
with
segmentation.
Finally,
incorporates
explainable
AI
(XAI)
concepts
DL
structure
Findings:
Because
its
capacity
automatically
extract
features
at
numerous
scales
encoders,
rebuild
segmented
pictures
via
decoders,
fuse
variations
skip
connections,
UNet
model
stands
out
as
an
efficient
Conclusions:
investigation
underscores
deficiency
incentives
embracing
XAI
pruned
(PAI)
models,
no
attaining
bias-free
configuration.
Shifting
from
theoretical
practical
usage
crucial
bolstering
evaluation
deployment.
Language: Английский
An Artificial Intelligence-Based Non-Invasive Approach for Cardiovascular Disease Risk Stratification in Obstructive Sleep Apnea Patients: A Narrative Review
Reviews in Cardiovascular Medicine,
Journal Year:
2024,
Volume and Issue:
25(12)
Published: Dec. 28, 2024
Obstructive
sleep
apnea
(OSA)
is
a
severe
condition
associated
with
numerous
cardiovascular
complications,
including
heart
failure.
The
complex
biological
and
morphological
relationship
between
OSA
atherosclerotic
disease
(ASCVD)
poses
challenges
in
predicting
adverse
outcomes.
While
artificial
intelligence
(AI)
has
shown
potential
for
(CVD)
stroke
risks
other
conditions,
there
lack
of
detailed,
bias-free,
compressed
AI
models
ASCVD
risk
stratification
patients.
This
study
aimed
to
address
this
gap
by
proposing
three
hypotheses:
(i)
strong
exists
ASCVD/stroke,
(ii)
deep
learning
(DL)
can
stratify
ASCVD/stroke
patients
using
surrogate
carotid
imaging,
(iii)
as
covariate
factors
improve
CVD
stratification.
Language: Английский