The
chapter
explores
the
dynamic
realm
of
AI
technologies
in
wellness
management,
addressing
critical
facets
such
as
data
privacy,
security,
fairness
machine
learning
models,
and
overall
system
performance.
Commencing
with
a
comprehensive
overview
AI's
role
personalized
wellness,
emphasizing
leverage
personal
health
data,
then
navigates
intricate
landscape
privacy.
Examining
evolving
regulations
ethical
considerations,
work
delves
into
consequences
breaches
healthcare,
advocating
for
robust
security
measures,
including
encryption
access
controls.
Ethical
within
domain
are
thoroughly
explored,
biases,
identification
techniques,
crucial
diverse
datasets
fostering
equitable
outcomes.
Navigating
legal
landscape,
scrutinizes
frameworks
related
to
non-discrimination,
ensuring
compliance
privacy
laws
GDPR.
Crucially,
integrates
detailed
performance
evaluation,
assessing
model
accuracy,
preservation,
fairness,
efficiency.
Metrics
differential
parameters,
indistinguishability
contributions,
scalability
rigorously
evaluated,
system's
optimal
resource
utilization
real-time
adaptability.
abstract
concludes
by
summarizing
key
points
on
AI-driven
management.
A
resounding
call
action
urges
collaboration
among
practitioners,
researchers,
policymakers
forge
responsible,
framework,
where
well-being
individuals
is
championed
through
conscientious
integration
technologies,
both
efficacy
Deleted Journal,
Journal Year:
2024,
Volume and Issue:
20(3s), P. 12 - 27
Published: April 4, 2024
The
rapid
integration
of
machine
learning
methodologies
in
healthcare
has
ignited
innovative
strategies
for
disease
prediction,
particularly
with
the
vast
repositories
Electronic
Health
Records
(EHR)
data.
This
article
delves
into
realm
multi-disease
presenting
a
comprehensive
study
that
introduces
pioneering
ensemble
feature
selection
model.
model,
designed
to
optimize
systems,
combines
statistical,
deep,
and
optimally
selected
features
through
Stabilized
Energy
Valley
Optimization
Enhanced
Bounds
(SEV-EB)
algorithm.
objective
is
achieve
unparalleled
accuracy
stability
predicting
various
disorders.
work
proposes
an
advanced
model
synergistically
integrates
features.
combination
aims
enhance
predictive
power
by
capturing
diverse
aspects
health
At
heart
proposed
lies
SEV-EB
algorithm,
novel
approach
optimal
selection.
algorithm
enhanced
bounds
stabilization
techniques,
contributing
robustness
overall
prediction
To
further
elevate
capabilities,
HSC-AttentionNet
introduced.
network
architecture
deep
temporal
convolution
capabilities
LSTM,
allowing
capture
both
short-term
patterns
long-term
dependencies
Rigorous
evaluations
showcase
remarkable
performance
Achieving
95%
94%
F1-score
disorders,
surpasses
traditional
methods,
signifying
significant
advancement
accuracy.
implications
this
research
extend
beyond
confines
academia.
By
harnessing
wealth
information
embedded
EHR
data,
presents
paradigm
shift
interventions.
optimized
diagnosis
treatment
pathways
facilitated
hold
promise
more
accurate
personalized
healthcare,
potentially
revolutionizing
patient
outcomes
International journal of intelligent engineering and systems,
Journal Year:
2024,
Volume and Issue:
17(3), P. 527 - 538
Published: May 3, 2024
This
paper
presents
Dynamic
Gait
Signature
Analysis
(DGSA),
an
innovative
approach
to
gait
analysis
that
leverages
deep
graph
learning
techniques.Unlike
conventional
methods,
DGSA
multifaceted
parameters
and
advanced
techniques,
such
as
Graph
Convolutional
Networks
(GCNs)
Attention
(GATs).These
techniques
enable
a
comprehensive
of
dynamics,
including
the
use
dynamic
representation
methods
like
Cycle
Joint
Angles
Power
Graph.DGSA's
unique
framework
allows
for
simultaneous
prediction
neurological
diseases,
classification,
early
detection
cognitive
impairments.By
modeling
structures,
captures
intricate
relationships
between
body
movements
foot
positions,
ultimately
enhancing
accuracy
in
classification
tasks.Comprehensive
experiments
on
real-world
datasets
demonstrate
DGSA's
robustness,
generalization,
superiority
accuracy.Our
achieves
notable
metrics:
velocity
(1.6
m/s),
stability
margin
(5.6
cm),
variability
(2.4%),
joint
range
motion
(56
degrees),
balance
index
(0.4),
minimum
toe
clearance
(2.3
progression
angle
(8.6
stiffness
(172).This
study
includes
comparative
approaches
based
these
key
performance
metrics,
demonstrating
significant
advancement
methodology.
The
chapter
explores
the
dynamic
realm
of
AI
technologies
in
wellness
management,
addressing
critical
facets
such
as
data
privacy,
security,
fairness
machine
learning
models,
and
overall
system
performance.
Commencing
with
a
comprehensive
overview
AI's
role
personalized
wellness,
emphasizing
leverage
personal
health
data,
then
navigates
intricate
landscape
privacy.
Examining
evolving
regulations
ethical
considerations,
work
delves
into
consequences
breaches
healthcare,
advocating
for
robust
security
measures,
including
encryption
access
controls.
Ethical
within
domain
are
thoroughly
explored,
biases,
identification
techniques,
crucial
diverse
datasets
fostering
equitable
outcomes.
Navigating
legal
landscape,
scrutinizes
frameworks
related
to
non-discrimination,
ensuring
compliance
privacy
laws
GDPR.
Crucially,
integrates
detailed
performance
evaluation,
assessing
model
accuracy,
preservation,
fairness,
efficiency.
Metrics
differential
parameters,
indistinguishability
contributions,
scalability
rigorously
evaluated,
system's
optimal
resource
utilization
real-time
adaptability.
abstract
concludes
by
summarizing
key
points
on
AI-driven
management.
A
resounding
call
action
urges
collaboration
among
practitioners,
researchers,
policymakers
forge
responsible,
framework,
where
well-being
individuals
is
championed
through
conscientious
integration
technologies,
both
efficacy