This
study
leverages
the
capabilities
of
Long
Short-Term
Memory
(LSTM)
models
in
forecasting
global
Monkeypox
infections,
thereby
demonstrating
significant
potential
advanced
machine
learning
techniques
epidemiological
forecasting.
Our
LSTM
model
effectively
navigates
challenges
posed
by
non-stationary
time-series
data,
a
common
issue
studies.
It
successfully
captures
underlying
patterns
producing
reliable
forecasts.
The
model's
performance
was
evaluated
using
several
metrics,
including
RMSE,
MSE,
MAE,
and
R
2
,
all
which
pointed
to
its
robust
satisfactory
predictive
capabilities.
findings
underscore
role
can
play
informing
development
timely
effective
disease
control
prevention
strategies.
They
contribute
enhancing
public
health
responses
emerging
infectious
diseases
such
as
Monkeypox.
However,
despite
promising
results,
highlights
ongoing
challenge
interpretability
models,
an
area
that
warrants
further
research.
As
future
direction,
efforts
should
focus
on
refining
bolster
their
interpretability,
ensuring
broader
adoption
utility
practice.
Monkeypox
is
a
medical
skin
problem
that
can
be
transferred
from
animals
to
humans
and
then
one
person
other.
Its
species
Otho
poxvirus.
The
manifestations
of
monkeypox
smallpox
are
virtually
identical
thus,
antiviral
medication
developed
prevent
the
virus
may
used
for
despite
absence
effective
therapy.
Infected
individuals,
vaccination,
prevention
infection,
use
personal
Protective
Equipment
(PPE)
kits
all
part
control
monkey
pox.
In
this
study,
deep
learning-based
convolution
neural
network
(CNN)
detect
monkeypoxes.
research,
three
optimizers
namely
SGD,
RMSProp
Adam
employed
predict
monkeypox.
From
optimizers,
best
optimizer
selected
based
on
accuracy.
SGD
achieves
highest
accuracy
93.39%
in
100
epochs.
Other
were
Adam,
with
scores
91.30%
93.22%,
respectively.
Using
single
image
an
infected
person,
CNN
model
easily
predicts
virus.
This
as
second
source
opinion
practitioners
identify
This
study
leverages
the
capabilities
of
Long
Short-Term
Memory
(LSTM)
models
in
forecasting
global
Monkeypox
infections,
thereby
demonstrating
significant
potential
advanced
machine
learning
techniques
epidemiological
forecasting.
Our
LSTM
model
effectively
navigates
challenges
posed
by
non-stationary
time-series
data,
a
common
issue
studies.
It
successfully
captures
underlying
patterns
producing
reliable
forecasts.
The
model's
performance
was
evaluated
using
several
metrics,
including
RMSE,
MSE,
MAE,
and
R
2
,
all
which
pointed
to
its
robust
satisfactory
predictive
capabilities.
findings
underscore
role
can
play
informing
development
timely
effective
disease
control
prevention
strategies.
They
contribute
enhancing
public
health
responses
emerging
infectious
diseases
such
as
Monkeypox.
However,
despite
promising
results,
highlights
ongoing
challenge
interpretability
models,
an
area
that
warrants
further
research.
As
future
direction,
efforts
should
focus
on
refining
bolster
their
interpretability,
ensuring
broader
adoption
utility
practice.