Mathematical Biosciences & Engineering,
Journal Year:
2024,
Volume and Issue:
22(1), P. 23 - 51
Published: Jan. 1, 2024
<p>Forecasting
wind
speed
plays
an
increasingly
essential
role
in
the
energy
industry.
However,
is
uncertain
with
high
changeability
and
dependency
on
weather
conditions.
Variability
of
directly
influenced
by
fluctuation
unpredictability
speed.
Traditional
prediction
methods
provide
deterministic
forecasting
that
fails
to
estimate
uncertainties
associated
predictions.
Modeling
those
important
reliable
information
when
uncertainty
level
increases.
Models
for
estimating
intervals
do
not
differentiate
between
daytime
nighttime
shifts,
which
can
affect
performance
probabilistic
forecasting.
In
this
paper,
we
introduce
a
framework
short-term
The
designed
incorporates
independent
machine
learning
(ML)
models
point
interval
during
respectively.
First,
feature
selection
techniques
were
applied
maintain
most
relevant
parameters
datasets
Second,
support
vector
regressors
(SVRs)
used
predict
10
minutes
ahead.
After
that,
incorporated
non-parametric
kernel
density
estimation
(KDE)
method
statistically
synthesize
errors
(PI)
several
confidence
levels.
simulation
results
validated
effectiveness
our
demonstrated
it
generate
are
satisfactory
all
evaluation
criteria.
This
verifies
validity
feasibility
hypothesis
separating
data
sets
these
types
predictions.</p>
Journal of Forecasting,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 2, 2025
ABSTRACT
Global
forecasting
models
(GFMs)
have
become
essential
in
time
series
prediction,
as
they
enable
cross‐learning
across
multiple
series.
Although
GFMs
consistently
outperformed
univariate
approaches,
their
performance
decreases
when
applied
to
heterogeneous
datasets,
such
those
found
economic
and
financial
applications.
Clustering
techniques
been
used
create
homogeneous
clusters.
However,
the
main
limitations
of
current
clustering‐based
are
follows:
(1)
employing
handcrafted
features
instead
deep
learning
(2)
there
is
no
guarantee
that
resulting
clusters
optimal
terms
prediction
accuracy.
To
address
these
limitations,
we
propose
a
novel
clustering
model
jointly
optimizes
The
proposed
method
simultaneously
reconstruction,
clustering,
losses
ensure
optimized
for
accurate
forecasting.
In
addition,
it
employs
neighbor‐aided
autoencoder
capture
cluster‐oriented
representations,
leveraging
neighboring
improve
feature
learning.
Furthermore,
incorporate
an
evolutionary
component,
which
iteratively
refines
through
crossover
mutation
find
We
evaluate
our
on
eight
publicly
available
datasets
considering
various
state‐of‐the‐art
benchmarks.
Results
indicate
all
with
2620
series,
obtains
lowest
mean
symmetric
absolute
percentage
error
(sMAPE)
14.90,
surpassing
baseline
(15.15).
It
exhibits
enhancements
1.28,
0.70,
2.29
sMAPE
relative
DeepAR,
N‐BEATS,
transformer,
respectively.
demonstrates
improvements
compared
existing
global
models.
source
code
made
at
https://github.com/alinowshad/Evolutionary‐Neighbor‐Aided‐Deep‐Clustering‐DEEPEN
.
Cogent Engineering,
Journal Year:
2024,
Volume and Issue:
11(1)
Published: Dec. 6, 2024
This
article
uses
a
random
forest
regression
(RFR)
model
to
analyze
wind
speed
forecasting.
Wind
energy
is
one
of
the
more
critical
potentials
in
renewable
sources
for
producing
clean
and
safe
environment.
Accurate
stable
forecasting
essential
improving
efficiency
turbines,
guaranteeing
power
balance,
economic
dispatch
systems
ensuring
equipment
safety.
Previous
researchers
have
attempted
address
these
issues
less
prediction
performance
lack
interpretable
analysis.
study
aims
develop
machine
learning
(ML)
models,
such
as
neural
networks
(NNs),
linear
(LR),
support
vector
(SVR),
decision
tree
(DTR),
K-nearest
neighbors
(K-NN),
extreme
gradient
boosting
RFR.
Six
evaluation
criteria
are
applied
estimate
ML
model:
mean
squared
error,
root
absolute
error
(MAE),
percentage
normalized
average
squares
coefficient
determination.
The
experimental
results
show
RFR
achieves
better
accuracy
than
other
models.
from
was
NMSE
=
0.003,
MAE
0.049,
MSE
0.033,
RMSE
0.182,
MAPE
1.180
R2
0.996.
Precise
predictions
various
industries,
aviation,
shipping
generation.