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
MethodsX,
Journal Year:
2025,
Volume and Issue:
14, P. 103210 - 103210
Published: Feb. 6, 2025
Recent
trendy
applications
of
Artificial
Intelligence
are
Machine
Learning
(ML)
algorithms,
which
have
been
extensively
utilized
for
processes
like
pattern
recognition,
object
classification,
effective
prediction
disease
etc.
However,
ML
techniques
reasonable
solutions
to
computation
methods
and
modeling,
especially
when
the
data
size
is
enormous.
These
facts
established
due
reason
that
big
field
has
received
considerable
attention
from
both
industrial
experts
academicians.
The
process
must
be
accelerated
achieve
early
in
order
accomplish
prospects
applications.
In
this
paper,
a
method
named
"Associative
Kruskal
Wallis
MapReduce
Poly
Kernel
(AKW-MRPK)"
presented
prediction.
Initially,
significant
attributes
selected
by
applying
Associative
Feature
Selection
model.
This
study
parallelizes
polynomial
kernel
vector
using
based
on
qualities
gained,
will
become
computing
model
facilitate
prognosis
disease.
proposed
AKW-MRPK
framework
achieves
up
92
%
accuracy,
reduces
computational
time
as
low
0.875
ms
25
patients,
demonstrates
superior
speedup
efficiency
with
value
1.9
two
nodes,
consistently
outperforming
supervised
machine
learning
algorithms
Hadoop-based
clusters
across
these
critical
metrics.•The
selects
accelerates
computations
predictions.•Parallelizing
kernels
improves
accuracy
speed
healthcare
analysis.
MethodsX,
Journal Year:
2025,
Volume and Issue:
14, P. 103219 - 103219
Published: Feb. 13, 2025
Feature
selection
and
classification
efficiency
accuracy
are
key
to
improving
decision-making
regarding
medical
data
analysis.
Since
the
datasets
large
complex,
they
give
rise
certain
problematic
issues
such
as
computational
complexity,
limited
memory
space,
a
lesser
number
of
correct
classifications.
In
order
overcome
these
drawbacks,
new
integrated
algorithm
is
presented
here:
Synergistic
Kruskal-RFE
Selector
Distributed
Multi-Kernel
Classification
Framework
(SKR-DMKCF).
The
innovative
architecture
SKR-DMKCF
results
in
reduction
dimensionality
while
preserving
useful
characteristics
image
utilizing
recursive
feature
elimination
multi-kernel
distributed
environment.
Detailed
evaluations
were
performed
on
four
broad
established
our
performance
advantage.
average
ratio
was
89
%
for
proposed
method,
SKR-DMKCF,
which
can
outperform
all
methods
by
achieving
best
85.3
%,
precision
81.5
recall
84.7
%.
On
calculations,
it
seen
that
usage
25
compared
existing
speed-up
time
significant
improvement
well
assure
scalability
resource-limited
environments.•Innovative
efficient
datasets.•Distributed
superior
efficiency.
MethodsX,
Journal Year:
2025,
Volume and Issue:
unknown, P. 103276 - 103276
Published: March 1, 2025
The
task
of
predicting
liver
tumors
is
critical
as
part
medical
image
analysis
and
genomics
area
since
diagnosis
prognosis
are
important
in
making
correct
decisions.
Silent
characteristics
interactions
between
genomic
imaging
features
also
the
main
sources
challenges
toward
reliable
predictions.
To
overcome
these
hurdles,
this
study
presents
two
integrated
approaches
namely,
-
Attention-Guided
Convolutional
Neural
Networks
(AG-CNNs),
Genomic
Feature
Analysis
Module
(GFAM).
Spatial
channel
attention
mechanisms
AG-CNN
enable
accurate
tumor
segmentation
from
CT
images
while
providing
detailed
morphological
profiling.
Evaluation
with
three
control
databases
TCIA,
LiTS,
CRLM
shows
that
our
model
produces
more
output
than
relevant
literature
an
accuracy
94.5%,
a
Dice
Similarity
Coefficient
91.9%,
F1-Score
96.2%
for
Dataset
3.
More
considerably,
proposed
methods
outperform
all
other
different
datasets
terms
recall,
precision,
Specificity
by
up
to
10
percent
including
CELM,
CAGS,
DM-ML,
so
on.•Utilization
(AG-CNN)
enhances
region
focus
accuracy.•Integration
(GFAM)
identifies
molecular
markers
subtype-specific
classification.
Research Square (Research Square),
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 10, 2025
Abstract
Early
and
accurate
detection
is
crucial
for
treating
liver
cancer,
the
main
cause
of
cancer
deaths.
Despite
its
widespread
use,
Computed
Tomography
(CT)
imaging
generally
struggles
with
tumors'
low
contrast,
uneven
borders,
overlapping
features.
The
variety
in
tumor
forms,
sizes,
complicated
anatomical
aspects
makes
CT
image
segmentation
categorization
difficult.
Variability
size
shape,
structures,
complex
anatomy
are
some
difficulties
that
this
method
aims
to
address
when
using
images
diagnose
cancer.
Multi-Scale
Cascaded
Spatial
Segmentation
Transformer
(M-SCSST)
an
innovative
approach
developed
Classification
Liver
Cancer
from
Images
introduced
research.
M-SCSST
uses
a
cascaded
processing
include
multi-scale
spatial
information
into
transformer-based
architecture.
Accurate
classification
heterogeneous
cancers
made
possible
by
enhancing
subtle
features
utilizing
advanced
attention
mechanisms
(AAM).
Improved
diagnostic
accuracy
achieved
employing
suggested
on
large
dataset
Its
use
helps
radiologists
identify
cancerous
benign
areas,
which
leads
earlier
diagnosis
better
treatment
choices.
effectiveness
scans
assessed
through
comprehensive
simulation
Research
measures
precision,
recall,
computational
efficiency,
noise
resilience,
accuracy.
With
improved
reliability,
detects
more
effectively
than
conventional
approaches.
Advances in computational intelligence and robotics book series,
Journal Year:
2025,
Volume and Issue:
unknown, P. 203 - 230
Published: Feb. 28, 2025
Radiopharmaceutical
therapy
represents
a
growing
treatment
modality
in
prostate
cancer,
and
this
chapter
will
focus
on
how
Artificial
Intelligence
(AI)
can
be
applied
to
preclinical
development
of
paradigm.
The
study,
presents
Multi-Modal
Attention
Enhanced
Neural
Network
(MAENN)
integrate
disparate
data
types—imaging,
molecular
pharmacokinetics—to
improve
predictions
efficacy,
determination
optimal
dose
the
identification
specific
biomarkers.
Compared
number
conventional
models
such
as
SVMs
CNNs,
MAENN
maintains
highest
accuracy
prediction,
sensitivity
integration
capabilities.
Although
issues
like
quality
computational
complexity
remain,
also
describes
scalability,
potential
for
real-time
applications,
future
applications
other
cancer
therapies,
contributing
towards
personalizing
strategies
order
pave
way
precision
oncology.
Advances in computational intelligence and robotics book series,
Journal Year:
2025,
Volume and Issue:
unknown, P. 247 - 270
Published: Feb. 28, 2025
The
development
of
AI
models
in
hybrid
imaging
systems
like
PET-CT,
PET-MRI,
SPECT-CT
mark
the
future
nuclear
medicine.
Advances
such
as
deep
learning,
machine
and
explainable
(XAI)
have
similarly
revolutionized
by
improving
image
quality
achieving
increased
efficiency
segmenting
images
well
data
acquisition
reconstruction
real
time.
Such
improvements
enhance
diagnostic
certainty,
minimize
exposure
to
radiation
with
low
dose
scan
methods,
enable
improved
identification
measurement
lesions.
Additionally,
enables
multi-modal
fusion,
where
fMRI
structural
MRI
plus
functional
MRI,
molecular
imaging,
genomics
or
clinical
all
come
together
progress
coup
approach
personalization
This
chapter
discusses
how
plays
a
significant
role
extent
highlight
on
its
current
usage,
elucidate
challenges
that
are
noted
exist
prospects
MethodsX,
Journal Year:
2025,
Volume and Issue:
14, P. 103338 - 103338
Published: April 25, 2025
Classification
and
segmentation
play
a
pivotal
role
in
transforming
decision-making
processes
healthcare,
IoT,
edge
computing.
However,
existing
methodologies
often
struggle
with
accuracy,
precision,
specificity
when
applied
to
large,
heterogeneous
datasets,
particularly
minimizing
false
positives
negatives.
To
address
these
challenges,
we
propose
robust
hybrid
framework
comprising
three
key
phases:
feature
extraction
using
Hybrid
Deep
Belief
Network
(HDBN),
dynamic
prediction
aggregation
via
Custom
Adaptive
Ensemble
(CAEN),
an
optimization
mechanism
ensuring
adaptability
robustness.
Extensive
evaluations
on
four
diverse
datasets
demonstrate
the
framework's
superior
performance,
achieving
93
%
87
95
specificity,
91
recall.
Advanced
metrics,
including
Matthews
Correlation
Coefficient
of
0.8932,
validate
its
reliability.
The
proposed
establishes
new
benchmark
for
scalable,
high-performance
classification
segmentation,
offering
solutions
real-world
applications
paving
way
future
integration
explainable
AI
real-time
systems.•Designed
novel
integrating
HDBN
CAEN
adaptive
prediction.•Proposed
strategies
enhancing
robustness
across
data
scenarios.