Integrating artificial intelligence with mechanistic epidemiological modeling: a scoping review of opportunities and challenges
Yang Ye,
No information about this author
Abhishek Pandey,
No information about this author
Carolyn E. Bawden
No information about this author
et al.
Nature Communications,
Journal Year:
2025,
Volume and Issue:
16(1)
Published: Jan. 10, 2025
Integrating
prior
epidemiological
knowledge
embedded
within
mechanistic
models
with
the
data-mining
capabilities
of
artificial
intelligence
(AI)
offers
transformative
potential
for
modeling.
While
fusion
AI
and
traditional
approaches
is
rapidly
advancing,
efforts
remain
fragmented.
This
scoping
review
provides
a
comprehensive
overview
emerging
integrated
applied
across
spectrum
infectious
diseases.
Through
systematic
search
strategies,
we
identified
245
eligible
studies
from
15,460
records.
Our
highlights
practical
value
models,
including
advances
in
disease
forecasting,
model
parameterization,
calibration.
However,
key
research
gaps
remain.
These
include
need
better
incorporation
realistic
decision-making
considerations,
expanded
exploration
diverse
datasets,
further
investigation
into
biological
socio-behavioral
mechanisms.
Addressing
these
will
unlock
synergistic
modeling
to
enhance
understanding
dynamics
support
more
effective
public
health
planning
response.
Artificial
has
improve
diseases
by
incorporating
data
sources
complex
interactions.
Here,
authors
conduct
use
summarise
methodological
advancements
identify
gaps.
Language: Английский
Advancing epidemic modeling: The role of LLMs and generative agent-based models Comment on LLMs and generative agent-based models for complex systems research by Lu et al.
Gui-Quan Sun,
No information about this author
Li Li,
No information about this author
Y Pei
No information about this author
et al.
Physics of Life Reviews,
Journal Year:
2025,
Volume and Issue:
52, P. 175 - 177
Published: Jan. 5, 2025
Language: Английский
Artificial Neural Network-Based Approach for Dynamic Analysis and Modeling of Marburg Virus Epidemics for Health Care
Symmetry,
Journal Year:
2025,
Volume and Issue:
17(4), P. 578 - 578
Published: April 10, 2025
Artificial
intelligence
(AI)
plays
a
crucial
role
in
modern
healthcare
by
enhancing
disease
modeling
and
outbreak
prediction.
In
this
study,
we
develop
an
epidemiological
model
for
the
Marburg
virus,
integrating
vaccination
treatment
strategies
while
considering
vaccine
efficacy
failure.
The
exhibits
mathematical
symmetry
its
equilibrium
analysis,
ensuring
balanced
assessment
of
dynamics
across
human
bat
reservoir
populations.
We
compute
Marburg-free
endemic
points,
derive
secondary
infection
threshold,
conduct
sensitivity
analysis
using
PRCC
method
to
identify
key
transmission
parameters
that
are
important
control.
To
validate
theory,
optimized
deep
neural
network
(DNN)
via
grid
search
employed
it
dynamic
which
also
validates
cutting-edge
application
AI
healthcare.
compare
AI-based
predictions
with
traditional
numerical
solutions
reproduction
number
humans
R0h>1
R0h<1
validation
approach.
results
demonstrate
model’s
stability,
efficacy,
predictive
power,
emphasizing
synergy
between
epidemiology.
This
study
provides
valuable
insights
public
health
interventions
effective
control
leveraging
AI-driven
simulations,
highlighting
AI’s
potential
revolutionize
enhance
early
detection
tailor
strategies.
Language: Английский
Identifying and forecasting importation and asymptomatic spreaders of multi-drug resistant organisms in hospital settings
npj Digital Medicine,
Journal Year:
2025,
Volume and Issue:
8(1)
Published: March 7, 2025
Healthcare-associated
infections
(HAIs)
from
multi-drug
resistant
organisms
(MDROs)
pose
a
significant
challenge
for
healthcare
systems.
Patients
can
arrive
at
hospitals
already
infected
("importation")
or
acquire
during
their
stay
("nosocomial
infection").
Many
cases,
often
asymptomatic,
complicate
rapid
identification
due
to
testing
limitations
and
delays.
Although
recent
advancements
in
mathematical
modeling
machine
learning
have
aimed
identify
at-risk
patients,
these
methods
face
challenges:
transmission
models
overlook
valuable
electronic
health
record
(EHR)
data,
while
approaches
typically
lack
mechanistic
insights
into
underlying
processes.
To
address
issues,
we
propose
NeurABM,
novel
framework
that
integrates
neural
networks
agent-based
(ABM)
leverage
the
strengths
of
both
methods.
NeurABM
simultaneously
learns
network
patient-level
importation
predictions
an
ABM
infection
identification.
Our
findings
show
significantly
outperforms
existing
methods,
marking
breakthrough
accurately
identifying
cases
forecasting
future
nosocomial
clinical
practice.
Language: Английский