Unsupervised Learning in Precision Medicine: Unlocking Personalized Healthcare through AI
Applied Sciences,
Journal Year:
2024,
Volume and Issue:
14(20), P. 9305 - 9305
Published: Oct. 12, 2024
Integrating
Artificial
Intelligence
(AI)
into
Precision
Medicine
(PM)
is
redefining
healthcare,
enabling
personalized
treatments
tailored
to
individual
patients
based
on
their
genetic
code,
environment,
and
lifestyle.
AI’s
ability
analyze
vast
complex
datasets,
including
genomics
medical
records,
facilitates
the
identification
of
hidden
patterns
correlations,
which
are
critical
for
developing
treatment
plans.
Unsupervised
Learning
(UL)
particularly
valuable
in
PM
as
it
can
unstructured
unlabeled
data
uncover
novel
disease
subtypes,
biomarkers,
patient
stratifications.
By
revealing
that
not
explicitly
labeled,
unsupervised
algorithms
enable
discovery
new
insights
mechanisms
variability,
advancing
our
understanding
responses
treatment.
However,
integration
AI
presents
some
challenges,
concerns
about
privacy
rigorous
validation
models
clinical
practice.
Despite
these
holds
immense
potential
revolutionize
PM,
offering
a
more
personalized,
efficient,
effective
approach
healthcare.
Collaboration
among
developers
clinicians
essential
fully
realize
this
ensure
ethical
reliable
implementation
This
review
will
explore
latest
emerging
UL
technologies
biomedical
field
with
particular
focus
applications
impact
human
health
well-being.
Language: Английский
SHASI-ML: a machine learning-based approach for immunogenicity prediction in Salmonella vaccine development
Frontiers in Cellular and Infection Microbiology,
Journal Year:
2025,
Volume and Issue:
15
Published: Feb. 11, 2025
Introduction
Accurate
prediction
of
immunogenic
proteins
is
crucial
for
vaccine
development
and
understanding
host-pathogen
interactions
in
bacterial
diseases,
particularly
Salmonella
infections
which
remain
a
significant
global
health
challenge.
Methods
We
developed
SHASI-ML,
machine
learning-based
framework
predicting
species.
The
model
was
trained
validated
using
curated
dataset
experimentally
verified
non-immunogenic
proteins.
Three
distinct
feature
groups
were
extracted
from
protein
sequences:
properties,
sequence-derived
features,
structural
information.
Extreme
Gradient
Boosting
(XGBoost)
algorithm
employed
optimization.
Results
SHASI-ML
demonstrated
robust
performance
identifying
immunogens,
achieving
89.3%
precision
91.2%
specificity.
When
applied
to
the
enterica
serovar
Typhimurium
proteome,
identified
292
novel
candidates.
Global
properties
emerged
as
most
influential
group
accuracy,
followed
by
sequence
showed
superior
recall
F1-scores
compared
existing
computational
approaches.
Discussion
These
findings
establish
an
efficient
tool
prioritizing
candidates
development.
By
streamlining
identification
early
process,
this
approach
significantly
reduces
experimental
burden
associated
costs.
methodology
can
be
guide
optimize
both
research
industrial-scale
production
vaccines,
potentially
accelerating
more
effective
immunization
strategies.
Language: Английский
Predicting therapy dropout in chronic pain management: a machine learning approach to cannabis treatment
Anna Visibelli,
No information about this author
Rebecca Finetti,
No information about this author
Bianca Roncaglia
No information about this author
et al.
Frontiers in Artificial Intelligence,
Journal Year:
2025,
Volume and Issue:
8
Published: Feb. 20, 2025
Chronic
pain
affects
approximately
30%
of
the
global
population,
posing
a
significant
public
health
challenge.
Despite
their
widespread
use,
traditional
pharmacological
treatments,
such
as
opioids
and
NSAIDs,
often
fail
to
deliver
adequate,
long-term
relief
while
exposing
patients
risks
addiction
adverse
side
effects.
Given
these
limitations,
medical
cannabis
has
emerged
promising
therapeutic
alternative
with
both
analgesic
anti-inflammatory
properties.
However,
its
clinical
efficacy
is
hindered
by
high
interindividual
variability
in
treatment
response
elevated
dropout
rates.
A
comprehensive
dataset
integrating
genetic,
clinical,
information
was
compiled
from
542
Caucasian
undergoing
cannabis-based
for
chronic
pain.
machine
learning
(ML)
model
developed
validated
predict
therapy
dropout.
To
identify
most
influential
factors
driving
dropout,
SHapley
Additive
exPlanations
(SHAP)
analysis
performed.
The
random
forest
classifier
demonstrated
robust
performance,
achieving
mean
accuracy
80%
maximum
86%,
an
AUC
0.86.
SHAP
revealed
that
final
VAS
scores
THC
dosages
were
predictors
strongly
correlated
increased
likelihood
discontinuation.
In
contrast,
baseline
benefits,
CBD
dosages,
CC
genotype
rs1049353
polymorphism
CNR1
gene
associated
improved
adherence.
Our
findings
highlight
potential
ML
pharmacogenetics
personalize
therapies,
improving
adherence
enabling
more
precise
management
This
research
paves
way
development
tailored
strategies
maximize
benefits
minimizing
Language: Английский
Moving towards the use of artificial intelligence in pain management
Ryan Antel,
No information about this author
Sera Whitelaw,
No information about this author
Geneviève Gore
No information about this author
et al.
European Journal of Pain,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Nov. 10, 2024
While
the
development
of
artificial
intelligence
(AI)
technologies
in
medicine
has
been
significant,
their
application
to
acute
and
chronic
pain
management
not
well
characterized.
This
systematic
review
aims
provide
an
overview
current
state
AI
management.
Language: Английский
Exploring the Potential of Nonpsychoactive Cannabinoids in the Development of Materials for Biomedical and Sports Applications
Dulexy Solano-Orrala,
No information about this author
Dennis A. Silva-Cullishpuma,
No information about this author
Eliana Díaz-Cruces
No information about this author
et al.
ACS Applied Bio Materials,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Nov. 20, 2024
This
Perspective
explores
the
potential
of
nonpsychoactive
cannabinoids
(NPCs)
such
as
CBD,
CBG,
CBC,
and
CBN
in
developing
innovative
biomaterials
for
biomedical
sports
applications.
It
examines
their
physicochemical
properties,
anti-inflammatory,
analgesic,
neuroprotective
effects,
integration
into
various
hydrogels,
sponges,
films,
scaffolds.
also
discusses
current
challenges
standardizing
formulations,
understanding
long-term
intrinsical
regulatory
landscapes.
Further,
it
promising
applications
NPC-loaded
materials
bone
regeneration,
wound
management,
drug
delivery
systems,
emphasizing
improved
biocompatibility,
mechanical
therapeutic
efficacy
demonstrated
Language: Английский
Three-Dimensional Quantitative Structure–Activity Relationship Study of Transient Receptor Potential Vanilloid 1 Channel Antagonists Reveals Potential for Drug Design Purposes
International Journal of Molecular Sciences,
Journal Year:
2024,
Volume and Issue:
25(14), P. 7951 - 7951
Published: July 21, 2024
Transient
receptor
potential
vanilloid
1
(TRPV1)
was
reported
to
be
a
putative
target
for
recovery
from
chronic
pain,
producing
analgesic
effects
after
its
inhibition.
A
series
of
drug
candidates
were
previously
developed,
without
the
ability
ameliorate
therapeutic
outcome.
Starting
designed
compounds,
derived
hybridization
antagonist
SB-705498
and
partial
agonist
MDR-652,
we
performed
virtual
screening
on
pharmacophore
model
built
by
exploiting
Cryo-EM
3D
structure
nanomolar
in
complex
with
human
TRPV1
channel.
The
described
three
pharmacophoric
features,
taking
advantage
both
bioactive
pose
exclusion
spheres.
results
implemented
inside
3D-QSAR
model,
correlating
negative
decadic
logarithm
inhibition
rate
ligands.
After
validation
obtained
new
compounds
introducing
key
modifications
original
scaffold.
Again,
determined
compounds'
binding
poses
alignment
predicted
their
rates
validated
model.
values
resulted
being
even
more
promising
than
parent
demonstrating
that
ongoing
research
still
leaves
much
room
improvement.
Language: Английский