Hearts,
Journal Year:
2021,
Volume and Issue:
2(4), P. 514 - 542
Published: Nov. 5, 2021
Body
surface
potential
mapping
(BSPM)
is
a
noninvasive
modality
to
assess
cardiac
bioelectric
activity
with
rich
history
of
practical
applications
for
both
research
and
clinical
investigation.
BSPM
provides
comprehensive
acquisition
signals
across
the
entire
thorax,
allowing
more
complex
extensive
analysis
than
standard
electrocardiogram
(ECG).
Despite
its
advantages,
not
common
tool.
does,
however,
serve
as
valuable
tool
an
input
other
modes
such
electrocardiographic
imaging
and,
recently,
machine
learning
artificial
intelligence.
In
this
report,
we
examine
contemporary
uses
BSPM,
provide
assessment
future
prospects
in
environments.
We
state
art
implementations
explore
modern
advanced
modeling
statistical
data.
predict
that
will
continue
be
tool,
find
utility
at
intersection
computational
approaches
International Journal of Environmental Research and Public Health,
Journal Year:
2021,
Volume and Issue:
18(11), P. 5780 - 5780
Published: May 27, 2021
A
variety
of
screening
approaches
have
been
proposed
to
diagnose
epileptic
seizures,
using
electroencephalography
(EEG)
and
magnetic
resonance
imaging
(MRI)
modalities.
Artificial
intelligence
encompasses
a
areas,
one
its
branches
is
deep
learning
(DL).
Before
the
rise
DL,
conventional
machine
algorithms
involving
feature
extraction
were
performed.
This
limited
their
performance
ability
those
handcrafting
features.
However,
in
features
classification
are
entirely
automated.
The
advent
these
techniques
many
areas
medicine,
such
as
diagnosis
has
made
significant
advances.
In
this
study,
comprehensive
overview
works
focused
on
automated
seizure
detection
DL
neuroimaging
modalities
presented.
Various
methods
seizures
automatically
EEG
MRI
described.
addition,
rehabilitation
systems
developed
for
analyzed,
summary
provided.
tools
include
cloud
computing
hardware
required
implementation
algorithms.
important
challenges
accurate
with
discussed.
advantages
limitations
employing
DL-based
Finally,
most
promising
models
possible
future
delineated.
Bioengineering,
Journal Year:
2024,
Volume and Issue:
11(4), P. 337 - 337
Published: March 29, 2024
As
healthcare
systems
around
the
world
face
challenges
such
as
escalating
costs,
limited
access,
and
growing
demand
for
personalized
care,
artificial
intelligence
(AI)
is
emerging
a
key
force
transformation.
This
review
motivated
by
urgent
need
to
harness
AI’s
potential
mitigate
these
issues
aims
critically
assess
integration
in
different
domains.
We
explore
how
AI
empowers
clinical
decision-making,
optimizes
hospital
operation
management,
refines
medical
image
analysis,
revolutionizes
patient
care
monitoring
through
AI-powered
wearables.
Through
several
case
studies,
we
has
transformed
specific
domains
discuss
remaining
possible
solutions.
Additionally,
will
methodologies
assessing
solutions,
ethical
of
deployment,
importance
data
privacy
bias
mitigation
responsible
technology
use.
By
presenting
critical
assessment
transformative
potential,
this
equips
researchers
with
deeper
understanding
current
future
impact
on
healthcare.
It
encourages
an
interdisciplinary
dialogue
between
researchers,
clinicians,
technologists
navigate
complexities
implementation,
fostering
development
AI-driven
solutions
that
prioritize
standards,
equity,
patient-centered
approach.
EP Europace,
Journal Year:
2020,
Volume and Issue:
23(8), P. 1179 - 1191
Published: Nov. 26, 2020
Abstract
In
the
recent
decade,
deep
learning,
a
subset
of
artificial
intelligence
and
machine
has
been
used
to
identify
patterns
in
big
healthcare
datasets
for
disease
phenotyping,
event
predictions,
complex
decision
making.
Public
electrocardiograms
(ECGs)
have
existed
since
1980s
very
specific
tasks
cardiology,
such
as
arrhythmia,
ischemia,
cardiomyopathy
detection.
Recently,
private
institutions
begun
curating
large
ECG
databases
that
are
orders
magnitude
larger
than
public
ingestion
by
learning
models.
These
efforts
demonstrated
not
only
improved
performance
generalizability
these
aforementioned
but
also
application
novel
clinical
scenarios.
This
review
focuses
on
orienting
clinician
towards
fundamental
tenets
state-of-the-art
prior
its
use
analysis,
current
applications
ECGs,
well
their
limitations
future
areas
improvement.
Sensors,
Journal Year:
2021,
Volume and Issue:
21(17), P. 5746 - 5746
Published: Aug. 26, 2021
Brain-Computer
Interface
(BCI)
is
an
advanced
and
multidisciplinary
active
research
domain
based
on
neuroscience,
signal
processing,
biomedical
sensors,
hardware,
etc.
Since
the
last
decades,
several
groundbreaking
has
been
conducted
in
this
domain.
Still,
no
comprehensive
review
that
covers
BCI
completely
yet.
Hence,
a
overview
of
presented
study.
This
study
applications
upholds
significance
Then,
each
element
systems,
including
techniques,
datasets,
feature
extraction
methods,
evaluation
measurement
matrices,
existing
algorithms,
classifiers,
are
explained
concisely.
In
addition,
brief
technologies
or
mostly
sensors
used
BCI,
appended.
Finally,
paper
investigates
unsolved
challenges
explains
them
with
possible
solutions.
Information Fusion,
Journal Year:
2023,
Volume and Issue:
99, P. 101898 - 101898
Published: June 25, 2023
Mental
health
is
a
basic
need
for
sustainable
and
developing
society.
The
prevalence
financial
burden
of
mental
illness
have
increased
globally,
especially
in
response
to
community
worldwide
pandemic
events.
Children
suffering
from
such
disorders
find
it
difficult
cope
with
educational,
occupational,
personal,
societal
developments,
treatments
are
not
accessible
all.
Advancements
technology
resulted
much
research
examining
the
use
artificial
intelligence
detect
or
identify
characteristics
illness.
Therefore,
this
paper
presents
systematic
review
nine
developmental
(Autism
spectrum
disorder,
Attention
deficit
hyperactivity
Schizophrenia,
Anxiety,
Depression,
Dyslexia,
Post-traumatic
stress
Tourette
syndrome,
Obsessive-compulsive
disorder)
prominent
children
adolescents.
Our
focuses
on
automated
detection
these
using
physiological
signals.
This
also
detailed
discussion
signal
analysis,
feature
engineering,
decision-making
their
advantages,
future
directions
challenges
papers
published
children.
We
presented
details
dataset
description,
validation
techniques,
features
extracted
models.
present
open
questions
availability,
uncertainty,
explainability,
hardware
implementation
resources
analysis
machine
deep
learning
Finally,
main
findings
study
conclusion
section.
Diagnostics,
Journal Year:
2022,
Volume and Issue:
12(4), P. 915 - 915
Published: April 6, 2022
Chest
X-ray
radiographic
(CXR)
imagery
enables
earlier
and
easier
lung
disease
diagnosis.
Therefore,
in
this
paper,
we
propose
a
deep
learning
method
using
transfer
technique
to
classify
diseases
on
CXR
images
improve
the
efficiency
accuracy
of
computer-aided
diagnostic
systems'
(CADs')
performance.
Our
proposed
is
one-step,
end-to-end
learning,
which
means
that
raw
are
directly
inputted
into
model
(EfficientNet
v2-M)
extract
their
meaningful
features
identifying
categories.
We
experimented
our
three
classes
normal,
pneumonia,
pneumothorax
U.S.
National
Institutes
Health
(NIH)
data
set,
achieved
validation
performances
loss
=
0.6933,
82.15%,
sensitivity
81.40%,
specificity
91.65%.
also
Cheonan
Soonchunhyang
University
Hospital
(SCH)
set
four
pneumothorax,
tuberculosis,
0.7658,
82.20%,
94.48%;
testing
tuberculosis
was
63.60%,
82.30%,
82.80%,
89.90%,
respectively.
Artificial
intelligence
(AI)
is
being
utilized
to
analyze
and
distinguish
diseases
within
the
rapidly
evolving
healthcare
sector.
With
potential
significantly
improve
patient
outcomes
in
real-world
clinical
settings,
this
unique
approach
offers
fresh
perspectives
innovative
modeling
techniques
for
disease
diagnosis.
Utilizing
cutting-edge
approaches
strategies
boost
demonstrative
productivity
precision,
we
present
groundbreaking
improvements
AI
detection
models
as
they
are
currently
used.
Our
have
gone
through
a
thorough
approval
strategy,
when
assessed
them
across
various
groups
circumstances,
found
that
novel
primary
calculations
performed
especially
well.
examination
highlights
few
key
advancements
greatly
affected
field
of
AI-driven
health
technologies.
These
include
enhanced
increasing
synthesizing
training
data,
well
adaptive
learning
algorithms
can
adjust
shifting
therapeutic
trends.
Also,
successfully
applied
ensemble
combine
qualities
models.
essential
objective
ponder
make
straightforward
reasonable
utilize
settings.
By
providing
real-time
decision
support,
clinicians
educated
choices
based
on
latest
available
eventually
improving
expanding
productivity.
Looking
ahead,
think
future
will
depend
collaboration
interdisciplinary
endeavors.
This
incorporates
coordinating
multimodal
creating
new
algorithms,
building
up
common
conventions,
giving
preparing
openings
over
distinctive
areas.
In
general,
our
investigate
demonstrates
noteworthy
revolutionize
delivery
improved
outcomes.
continued
focus
development,
collaboration,
learning,
able
pave
way
toward
healthier
more
prosperous
future.