Healthcare,
Journal Year:
2023,
Volume and Issue:
11(3), P. 330 - 330
Published: Jan. 22, 2023
ECG
provides
critical
information
in
a
waveform
about
the
heart's
condition.
This
is
crucial
to
physicians
as
it
first
thing
be
performed
by
cardiologists.
When
COVID-19
spread
globally
and
became
pandemic,
government
of
Saudi
Arabia
placed
various
restrictions
guidelines
protect
save
citizens
residents.
One
these
was
preventing
individuals
from
touching
any
surface
public
private
places.
In
addition,
authorities
mandatory
rule
all
facilities
sector
evaluate
temperature
before
entering.
Thus,
idea
this
study
stems
need
have
touchless
technique
determine
heartbeat
rate.
article
proposes
viable
dependable
method
estimate
an
average
rate
based
on
reflected
light
skin.
model
uses
deep
learning
tools,
including
AlexNet,
Convolutional
Neural
Networks
(CNNs),
Long
Short-Term
Memory
(LSTMs),
ResNet50V2.
Three
scenarios
been
conducted
validate
presented
model.
proposed
approach
takes
its
inputs
video
streams
converts
into
frames
images.
Numerous
trials
volunteers
assess
outputs
terms
accuracy,
mean
absolute
error
(MAE),
squared
(MSE).
The
achieves
99.78%
MAE
0.142
when
combing
LSTMs
ResNet50V2,
while
MSE
1.82.
Moreover,
comparative
measurement
between
algorithm
some
studies
literature
utilized
methods,
MAE,
are
performed.
achieved
outcomes
reveal
that
developed
surpasses
other
methods.
findings
show
can
applied
healthcare
aid
physicians.
Electronics,
Journal Year:
2022,
Volume and Issue:
11(15), P. 2292 - 2292
Published: July 22, 2022
The
Internet
of
Things
confers
seamless
connectivity
between
people
and
objects,
its
confluence
with
the
Cloud
improves
our
lives.
Predictive
analytics
in
medical
domain
can
help
turn
a
reactive
healthcare
strategy
into
proactive
one,
advanced
artificial
intelligence
machine
learning
approaches
permeating
industry.
As
subfield
ML,
deep
possesses
transformative
potential
for
accurately
analysing
vast
data
at
exceptional
speeds,
eliciting
intelligent
insights,
efficiently
solving
intricate
issues.
accurate
timely
prediction
diseases
is
crucial
ensuring
preventive
care
alongside
early
intervention
risk.
With
widespread
adoption
electronic
clinical
records,
creating
models
enhanced
accuracy
key
to
harnessing
recurrent
neural
network
variants
possessing
ability
manage
sequential
time-series
data.
proposed
system
acquires
from
IoT
devices,
stored
on
cloud
pertaining
patient
history
are
subjected
predictive
analytics.
smart
monitoring
predicting
heart
disease
risk
built
around
Bi-LSTM
(bidirectional
long
short-term
memory)
showcases
an
98.86%,
precision
98.9%,
sensitivity
98.8%,
specificity
98.89%,
F-measure
which
much
better
than
existing
systems.
Science Journal of University of Zakho,
Journal Year:
2024,
Volume and Issue:
12(3), P. 285 - 293
Published: July 14, 2024
Heart
disease
threatens
the
lives
of
around
one
individual
per
minute,
establishing
it
as
foremost
cause
mortality
in
contemporary
era.
A
wide
range
individuals
over
globe
has
encountered
intricacies
associated
with
cardiovascular
illness.
Various
factors,
such
hypertension,
elevated
levels
cholesterol,
and
an
irregular
pulse
rhythm
hinder
early
identification
a
disease.
In
cardiology,
similar
to
other
branches
Medicine,
timely
precise
cardiac
diseases
is
utmost
importance.
Anticipating
onset
heart
failure
at
appropriate
moment
can
provide
challenges,
particularly
for
cardiologists
surgeons.
Fortunately,
categorisation
forecasting
models
assist
medical
business
real
applications
data.
Regarding
this,
Machine
Learning
(ML)
algorithms
techniques
have
benefited
from
automated
analysis
several
datasets
complex
data
aid
community
diagnosing
heart-related
diseases.
Predicting
if
patient
early-stage
primary
goal
this
paper.
prior
study
that
worked
on
Erbil
Disease
dataset
proved
Naïve
Bayes
(NB)
got
accuracy
65%,
which
worst
classifier,
while
Decision
Tree
(DT)
obtained
highest
98%.
article,
comparison
been
applied
using
same
(i.e.,
dataset)
between
multiple
ML
algorithms,
instance,
LR
(Logistic
Regression),
KNN
(K-Nearest
Neighbours),
SVM
(Support
Vector
Machine),
DT
(Decision
Tree),
MLP
(Multi-Layer
Perceptron),
NB
(Naïve
Bayes)
RF
(Random
Forest).
Surprisingly,
we
98%
after
applying
LR,
MLP,
RF,
was
best
outcome.
Furthermore,
by
classifier
differed
incredibly
received
work.
Diagnostics,
Journal Year:
2022,
Volume and Issue:
12(9), P. 2110 - 2110
Published: Aug. 31, 2022
The
increasing
usage
of
smart
wearable
devices
has
made
an
impact
not
only
on
the
lifestyle
users,
but
also
biological
research
and
personalized
healthcare
services.
These
devices,
which
carry
different
types
sensors,
have
emerged
as
digital
diagnostic
tools.
Data
from
such
enabled
prediction
detection
various
physiological
well
psychological
conditions
diseases.
In
this
review,
we
focused
applications
wrist-worn
wearables
to
detect
multiple
diseases
cardiovascular
diseases,
neurological
disorders,
fatty
liver
metabolic
including
diabetes,
sleep
quality,
illnesses.
fruitful
requires
fast
insightful
data
analysis,
is
feasible
through
machine
learning.
discussed
machine-learning
outcomes
for
analyses.
Finally,
current
challenges
with
data,
future
perspectives
tools
domains.
Healthcare,
Journal Year:
2023,
Volume and Issue:
11(16), P. 2240 - 2240
Published: Aug. 9, 2023
According
to
the
Pan
American
Health
Organization,
cardiovascular
disease
is
leading
cause
of
death
worldwide,
claiming
an
estimated
17.9
million
lives
each
year.
This
paper
presents
a
systematic
review
highlight
use
IoT,
IoMT,
and
machine
learning
detect,
predict,
or
monitor
disease.
We
had
final
sample
164
high-impact
journal
papers,
focusing
on
two
categories:
detection
using
IoT/IoMT
technologies
techniques.
For
first
category,
we
found
82
proposals,
while
for
second,
85
proposals.
The
research
highlights
list
technologies,
techniques,
datasets,
most
discussed
diseases.
Neural
networks
have
been
popularly
used,
achieving
accuracy
over
90%,
followed
by
random
forest,
XGBoost,
k-NN,
SVM.
Based
results,
conclude
that
can
predict
diseases
in
real
time,
ensemble
techniques
obtained
one
best
performances
metric,
hypertension
arrhythmia
were
Finally,
identified
lack
public
data
as
main
obstacles
approaches
prediction.
Diagnostics,
Journal Year:
2022,
Volume and Issue:
12(4), P. 795 - 795
Published: March 24, 2022
This
paper
presents
an
automatic
ECG
signal
classification
system
that
applied
the
Deep
Learning
(DL)
model
to
classify
four
types
of
signals.
In
first
part
our
work,
we
present
development.
Four
different
classes
signals
from
PhysioNet
open-source
database
were
selected
and
used.
preliminary
study
used
a
technique
namely
Convolutional
Neural
Network
(CNN)
predict
classes:
normal,
sudden
death,
arrhythmia,
supraventricular
arrhythmia.
The
prediction
process
includes
pulse
extraction,
image
reshaping,
training
dataset,
testing
process.
general,
accuracy
achieved
up
95%
after
100
epochs.
However,
each
single
type
shows
differentiation.
Among
classes,
results
show
predictions
for
death
waveforms
are
highest,
i.e.,
80
out
samples
correct
(100%
accuracy).
contrast,
lowest
is
normal
sinus
waveforms,
74
(92.5%
due
features
being
almost
similar
arrhythmia
waveforms.
has
been
tuned
achieve
optimal
prediction.
second
part,
presented
hardware
implementation
with
predictive
embedded
in
NVIDIA
Jetson
Nanoprocessor
online
real-time
Frontiers in Artificial Intelligence,
Journal Year:
2024,
Volume and Issue:
6
Published: Jan. 12, 2024
Background
As
global
demographics
shift
toward
an
aging
population,
monitoring
their
heart
rate
becomes
essential,
a
key
physiological
metric
for
cardiovascular
health.
Traditional
methods
of
are
often
invasive,
while
recent
advancements
in
Active
Assisted
Living
provide
non-invasive
alternatives.
This
study
aims
to
evaluate
novel
prediction
method
that
utilizes
contactless
smart
home
technology
coupled
with
machine
learning
techniques
older
adults.
Methods
The
was
conducted
residential
environment
equipped
various
sensors.
We
recruited
40
participants,
each
whom
instructed
perform
23
types
predefined
daily
living
activities
across
five
phases.
Concurrently,
data
were
collected
through
Empatica
E4
wristband
as
the
benchmark.
Analysis
involved
prominent
models:
Support
Vector
Regression,
K-nearest
neighbor,
Random
Forest,
Decision
Tree,
and
Multilayer
Perceptron.
Results
All
models
achieved
commendable
performance,
average
Mean
Absolute
Error
7.329.
Particularly,
Forest
model
outperformed
other
models,
achieving
6.023
Scatter
Index
value
9.72%.
also
showed
robust
capabilities
capturing
relationship
between
individuals'
corresponding
responses,
highest
R
2
0.782
observed
during
morning
exercise
activities.
Environmental
factors
contribute
most
performance.
Conclusions
utilization
proposed
non-intrusive
approach
enabled
innovative
observe
fluctuations
different
findings
this
research
have
significant
implications
public
By
predicting
based
on
technologies
activities,
healthcare
providers
health
agencies
can
gain
comprehensive
understanding
individual's
profile.
valuable
information
inform
implementation
personalized
interventions,
preventive
measures,
lifestyle
modifications
mitigate
risk
diseases
improve
overall
outcomes.
Healthcare Analytics,
Journal Year:
2024,
Volume and Issue:
5, P. 100329 - 100329
Published: April 4, 2024
In
this
study,
we
propose
a
computationally-light
and
robust
neural
network
for
estimating
heart
rate
in
remote
healthcare
systems.
We
develop
model
that
can
be
trained
on
consumer-grade
graphics
processing
units
(GPUs),
deployed
edge
devices
swift
inference.
hybrid
based
convolutional
(CNN)
bidirectional
long
short-term
memory
(BiLSTM)
architectures
from
Electrocardiogram
(ECG)
Photoplethysmography
(PPG)
signals.
Considering
the
sensitive
nature
of
ECG
signals,
ensure
formal
privacy
guarantee,
differential
privacy,
training.
perform
tight
accounting
overall
budget
our
training
algorithm
using
Rényi
Differential
Privacy
technique.
demonstrate
outperforms
state-of-the-art
networks
benchmark
dataset
both
PPG
signals
despite
having
much
smaller
number
trainable
parameters
and,
consequently,
inference
times.
Our
CNN-BiLSTM
architecture
also
provide
excellent
estimation
performance
even
under
strict
constraints.
prototype
Arduino-based
data
collection
system
is
low-cost,
efficient,
useful
providing
access
to
modern
services
people
living
areas.
The
Internet
of
Things
(IoT)
facilitates
effortless
communication
between
humans
and
inanimate
objects.
With
the
widespread
adoption
cutting-edge
learning
techniques,
predictive
analytics
in
medical
domain
has
latent
ability
to
transform
healthcare
industry
from
a
responsive
practical
one.
Yet,
cardiovascular
disease
is
leading
killer
worldwide.
Forecasting
cardiac
difficult
since
it
takes
both
specialists
heart
relatively
new
application
IoT
technology
systems.
Although
several
studies
have
focused
on
diagnosing
disease,
outcomes
been
unreliable.
In
order
better
assess
illness,
suggested
system
employs
an
enhanced
Sparse
Auto-Encoder
(ISAE)
model.
Additionally,
classification
accuracy
through
use
Artificial
Fish
Swarm
Optimisation
(AFO)
pick
features
dataset.
smartwatch/heart
monitor
device
worn
by
patient
keeps
track
their
BP
ECG
readings.
ISAE
employed
categorise
incoming
sensor
data
as
normal
or
abnormal,
with
SAE's
hyper-parameter
tuning
optimally
set
SRO.
associated
algorithms
scheme's
efficiency.
show
that
projected
ISAE-based
forecast
scheme
outperforms
alternatives.
method
demonstrates
preexisting
classifiers
reaching
98%
largest
possible
records.