medRxiv (Cold Spring Harbor Laboratory),
Journal Year:
2023,
Volume and Issue:
unknown
Published: Oct. 3, 2023
In
the
rapidly
evolving
landscape
of
modern
healthcare,
integration
wearable
and
portable
technology
provides
a
unique
opportunity
for
personalized
health
monitoring
in
community.
Devices
like
Apple
Watch,
FitBit,
AliveCor
KardiaMobile
have
revolutionized
acquisition
processing
intricate
data
streams
that
were
previously
accessible
only
through
devices
available
to
healthcare
providers.
Amidst
variety
collected
by
these
gadgets,
single-lead
electrocardiogram
(ECG)
recordings
emerged
as
crucial
source
information
cardiovascular
health.
Notably,
there
has
been
significant
advances
artificial
intelligence
capable
interpreting
1-lead
ECGs,
facilitating
clinical
diagnosis
well
detection
rare
cardiac
disorders.
This
design
study
describes
development
an
innovative
multi-platform
system
aimed
at
rapid
deployment
AI-based
ECG
solutions
investigation
care
delivery.
The
examines
various
considerations,
aligning
them
with
specific
applications,
develops
flows
maximize
efficiency
research
use.
process
encompasses
reception
ECGs
from
diverse
devices,
channeling
this
into
centralized
lake,
real-time
inference
AI
models
interpretation.
An
evaluation
platform
demonstrates
mean
duration
reporting
results
33.0
35.7
seconds,
after
standard
30
second
acquisition,
allowing
complete
be
completed
63.0
65.7
seconds.
There
no
substantial
differences
across
two
commercially
(Apple
Watch
KardiaMobile).
These
demonstrate
succcessful
translation
principles
fully
integrated
efficient
strategy
leveraging
platforms
interpretation
AI-ECG
algorithms.
Such
is
critical
translating
discoveries
impact
deployment.
Cureus,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Sept. 8, 2024
Wearable
health
devices
are
becoming
vital
in
chronic
disease
management
because
they
offer
real-time
monitoring
and
personalized
care.
This
review
explores
their
effectiveness
challenges
across
medical
fields,
including
cardiology,
respiratory
health,
neurology,
endocrinology,
orthopedics,
oncology,
mental
health.
A
thorough
literature
search
identified
studies
focusing
on
wearable
devices'
impact
patient
outcomes.
In
wearables
have
proven
effective
for
hypertension,
detecting
arrhythmias,
aiding
cardiac
rehabilitation.
these
enhance
asthma
continuous
of
critical
parameters.
Neurological
applications
include
seizure
detection
Parkinson's
management,
with
showing
promising
results
improving
technology
advances
thyroid
dysfunction
monitoring,
fertility
tracking,
diabetes
management.
Orthopedic
improved
postsurgical
recovery
rehabilitation,
while
help
early
complication
oncology.
Mental
benefits
anxiety
detection,
post-traumatic
stress
disorder
reduction
through
biofeedback.
conclusion,
transformative
potential
managing
illnesses
by
enhancing
engagement.
Despite
significant
improvements
adherence
outcomes,
data
accuracy
privacy
persist.
However,
ongoing
innovation
collaboration,
we
can
all
be
part
the
solution
to
maximize
technologies
healthcare.
International Journal of Computational and Experimental Science and Engineering,
Journal Year:
2025,
Volume and Issue:
11(2)
Published: April 10, 2025
Heart
disease
remains
a
leading
cause
of
mortality
worldwide,
necessitating
early
detection
and
prevention
strategies.
This
study
explores
machine
learning
(ML)
approaches
for
predicting
heart
using
patient
datasets.
Various
ML
algorithms,
including
Logistic
Regression,
Naive
Bayes,
Support
Vector
Machine
(SVM),
K-Nearest
Neighbors
(KNN),
Decision
Tree,
Random
Forest,
XGBoost,
an
Artificial
Neural
Network
(ANN),
were
implemented
to
classify
presence.
The
Forest
model
achieved
the
highest
accuracy
95%.
findings
demonstrate
that
can
significantly
enhance
prediction,
aiding
diagnosis
treatment.
Sports,
Journal Year:
2024,
Volume and Issue:
12(6), P. 144 - 144
Published: May 26, 2024
Artificial
Intelligence
(AI)
is
redefining
electrocardiogram
(ECG)
analysis
in
pre-participation
examination
(PPE)
of
athletes,
enhancing
the
detection
and
monitoring
cardiovascular
health.
Cardiovascular
concerns,
including
sudden
cardiac
death,
pose
significant
risks
during
sports
activities.
Traditional
ECG,
essential
yet
limited,
often
fails
to
distinguish
between
benign
adaptations
serious
conditions.
This
narrative
review
investigates
application
machine
learning
(ML)
deep
(DL)
ECG
interpretation,
aiming
improve
arrhythmias,
channelopathies,
hypertrophic
cardiomyopathies.
A
literature
over
past
decade,
sourcing
from
PubMed
Google
Scholar,
highlights
growing
adoption
AI
medicine
for
its
precision
predictive
capabilities.
algorithms
excel
at
identifying
complex
patterns,
potentially
overlooked
by
traditional
methods,
are
increasingly
integrated
into
wearable
technologies
continuous
monitoring.
Overall,
offering
a
comprehensive
overview
current
innovations
outlining
future
advancements,
this
supports
professionals
merging
screening
methods
with
state-of-the-art
technologies.
approach
aims
enhance
diagnostic
accuracy
efficiency
athlete
care,
promoting
early
more
effective
through
AI-enhanced
within
PPEs.
Sensors,
Journal Year:
2024,
Volume and Issue:
24(3), P. 828 - 828
Published: Jan. 26, 2024
Myocardial
Infarction
(MI),
commonly
known
as
heart
attack,
is
a
cardiac
condition
characterized
by
damage
to
portion
of
the
heart,
specifically
myocardium,
due
disruption
blood
flow.
Given
its
recurring
and
often
asymptomatic
nature,
there
need
for
continuous
monitoring
using
wearable
devices.
This
paper
proposes
single-microcontroller-based
system
designed
automatic
detection
MI
based
on
Edge
Computing
paradigm.
Two
solutions
are
evaluated,
Machine
Learning
(ML)
Deep
(DL)
techniques.
The
developed
algorithms
two
different
approaches
currently
available
in
literature,
they
optimized
deployment
low-resource
hardware.
A
feasibility
assessment
their
implementation
single
32-bit
microcontroller
with
an
ARM
Cortex-M4
core
was
examined,
comparison
terms
accuracy,
inference
time,
memory
usage
detailed.
For
ML
techniques,
significant
data
processing
feature
extraction,
coupled
simpler
Neural
Network
(NN)
involved.
On
other
hand,
second
method,
DL,
employs
Spectrogram
Analysis
extraction
Convolutional
(CNN)
longer
time
higher
utilization.
Both
methods
employ
same
low
power
hardware
reaching
accuracy
89.40%
94.76%,
respectively.
final
prototype
energy-efficient
capable
real-time
without
connect
remote
servers
or
cloud.
All
performed
at
edge,
enabling
NN
microcontroller.
Artificial Intelligence Review,
Journal Year:
2024,
Volume and Issue:
57(10)
Published: Aug. 19, 2024
Heart
disease
(HD)
is
one
of
the
leading
causes
death
in
humans,
posing
a
heavy
burden
on
society,
families,
and
patients.
Real-time
prediction
HD
can
reduce
mortality
rates
crucial
for
timely
intervention
treatment
HD.
Deep
learning
(DL)-related
methods
have
higher
accuracy
real-time
performance
predicting
In
this
study,
we
comprehensively
compared
evaluated
contributions
limitations
DL
algorithms,
extended
deep
(ETDL)
integrated
(integrated
DL)
algorithms
that
combine
with
other
technologies
The
articles
considered
span
period
from
2018
to
2023,
after
rigorous
screening,
64
were
selected
preliminary
research.
A
systematic
literature
review
HDP
will
provide
future
researchers
comprehensive
understanding
existing
related
healthcare
industry.
Furthermore,
it
discusses
popular
datasets
employed
deploying
numerous
models.
Additionally,
reveals
open
problems
or
challenges
encountered
by
previous
researchers.
Notably,
most
prevalent
challenge
scarcity
large
discrete
datasets,
followed
need
further
improvement
Journal of Medical Systems,
Journal Year:
2024,
Volume and Issue:
48(1)
Published: May 27, 2024
Abstract
Wearable
electronics
are
increasingly
common
and
useful
as
health
monitoring
devices,
many
of
which
feature
the
ability
to
record
a
single-lead
electrocardiogram
(ECG).
However,
recording
ECG
commonly
requires
user
touch
device
complete
lead
circuit,
prevents
continuous
data
acquisition.
An
alternative
approach
enable
without
initiation
is
embed
leads
in
garment.
This
study
assessed
obtained
from
YouCare
(a
novel
sensorized
garment)
via
comparison
with
conventional
Holter
monitor.
A
cohort
thirty
patients
(age
range:
20–82
years;
16
females
14
males)
were
enrolled
monitored
for
twenty-four
hours
both
devices
qualitatively
by
panel
three
expert
cardiologists
quantitatively
analyzed
using
specialized
software.
Patients
also
responded
survey
about
comfort
compared
The
was
have
70%
its
signals
“Good”,
12%
“Acceptable”,
18%
“Not
Readable”.
R-wave,
independently
recorded
monitor,
synchronized
within
measurement
error
during
99.4%
cardiac
cycles.
In
addition,
found
more
comfortable
than
monitor
(comfortable
22
vs.
5
uncomfortable
1
18,
respectively).
Therefore,
quality
collected
garment-based
comparable
when
signal
sufficiently
acquired,
garment
comfortable.
ICST Transactions on e-Education and e-Learning,
Journal Year:
2023,
Volume and Issue:
8(4), P. e3 - e3
Published: Sept. 6, 2023
The
rapid
advancements
in
artificial
intelligence
(AI)
have
unleashed
a
wave
of
transformative
technologies,
and
one
area
that
has
witnessed
significant
progress
is
AI-assisted
diagnosis
healthcare.
With
the
ability
to
analyze
vast
amounts
medical
data,
learn
from
patterns,
make
accurate
predictions,
AI
systems
hold
immense
potential
revolutionize
diagnostic
process,
enabling
earlier
detection,
improved
accuracy,
personalized
treatment
recommendations.
This
review
aims
explore
impact
healthcare,
specifically
focusing
on
its
role
assisting
physicians
with
diagnosis,
highlighting
benefits,
challenges,
ethical
considerations
associated
integration
into
clinical
practice.
Through
utilization
AI's
capabilities,
enhancement
patient
outcomes,
optimization
resource
allocation,
reshaping
professionals'
approaches
can
be
achieved.
Sensors,
Journal Year:
2023,
Volume and Issue:
23(18), P. 7874 - 7874
Published: Sept. 14, 2023
To
reduce
the
risks
and
challenges
faced
by
frontline
workers
in
confined
workspaces,
accurate
real-time
health
monitoring
of
their
vital
signs
is
essential
for
improving
safety
productivity
preventing
accidents.
Machine-learning-based
data-driven
methods
have
shown
promise
extracting
valuable
information
from
complex
data.
However,
practical
industrial
settings
still
struggle
with
data
collection
difficulties
low
prediction
accuracy
machine
learning
models
due
to
work
environment.
tackle
these
challenges,
a
novel
approach
called
long
short-term
memory
(LSTM)-based
deep
stacked
sequence-to-sequence
autoencoder
proposed
predicting
status
spaces.
The
first
step
involves
implementing
wireless
acquisition
system
using
edge-cloud
platforms.
Smart
wearable
devices
are
used
collect
multiple
sources,
like
temperature,
heart
rate,
pressure.
These
comprehensive
provide
insights
into
workers’
within
closed
space
manufacturing
factory.
Next,
hybrid
model
combining
support
vector
(SVM)
constructed
anomaly
detection.
LSTM-based
specifically
designed
learn
discriminative
features
time-series
reconstructing
input
thus
generating
fused
features.
then
fed
one-class
SVM,
enabling
recognition
status.
effectiveness
superiority
demonstrated
through
comparisons
other
existing
approaches.