Enhancing Solar Forecasting Accuracy with Sequential Deep Artificial Neural Network and Hybrid Random Forest and Gradient Boosting Models across Varied Terrains
Muhammad Farhan Hanif,
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Muhammad Umar Siddique,
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Jicang Si
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et al.
Advanced Theory and Simulations,
Journal Year:
2024,
Volume and Issue:
7(7)
Published: April 30, 2024
Abstract
Effective
solar
energy
utilization
demands
improvements
in
forecasting
due
to
the
unpredictable
nature
of
irradiance
(SI).
This
study
introduces
and
rigorously
tests
two
innovative
models
across
different
locations:
Sequential
Deep
Artificial
Neural
Network
(SDANN)
Hybrid
Random
Forest
Gradient
Boosting
(RFGB).
SDANN,
leveraging
deep
learning,
aims
identify
complex
patterns
weather
data,
while
RFGB,
combining
Boosting,
proves
more
effective
by
offering
a
superior
balance
efficiency
accuracy.
The
research
highlights
SDANN
model's
learning
capabilities
along
with
RFGB
unique
blend
their
comparative
success
over
existing
such
as
eXtreme
(XGBOOST),
Categorical
(CatBOOST),
Gated
Recurrent
Unit
(GRU),
K‐Nearest
Neighbors
(KNN)
XGBOOST
hybrid.
With
lowest
Mean
Squared
Error
(147.22),
Absolute
(8.77),
high
R
2
value
(0.80)
studied
region,
stands
out.
Additionally,
detailed
ablation
studies
on
meteorological
feature
impacts
model
performance
further
enhance
accuracy
adaptability.
By
integrating
cutting‐edge
AI
SI
forecasting,
this
not
only
advances
field
but
also
sets
stage
for
future
renewable
strategies
global
policy‐making.
Language: Английский
AI-Driven precision in solar forecasting: Breakthroughs in machine learning and deep learning
AIMS Geosciences,
Journal Year:
2024,
Volume and Issue:
10(4), P. 684 - 734
Published: Jan. 1, 2024
<p>The
need
for
accurate
solar
energy
forecasting
is
paramount
as
the
global
push
towards
renewable
intensifies.
We
aimed
to
provide
a
comprehensive
analysis
of
latest
advancements
in
forecasting,
focusing
on
Machine
Learning
(ML)
and
Deep
(DL)
techniques.
The
novelty
this
review
lies
its
detailed
examination
ML
DL
models,
highlighting
their
ability
handle
complex
nonlinear
patterns
Solar
Irradiance
(SI)
data.
systematically
explored
evolution
from
traditional
empirical,
including
machine
learning
(ML),
physical
approaches
these
advanced
delved
into
real-world
applications,
discussing
economic
policy
implications.
Additionally,
we
covered
variety
image-based,
statistical,
ML,
DL,
foundation,
hybrid
models.
Our
revealed
that
models
significantly
enhance
accuracy,
operational
efficiency,
grid
reliability,
contributing
benefits
supporting
sustainable
policies.
By
addressing
challenges
related
data
quality
model
interpretability,
underscores
importance
continuous
innovation
techniques
fully
realize
potential.
findings
suggest
integrating
with
offers
most
promising
path
forward
improving
forecasting.</p>
Language: Английский
Enhanced accuracy in solar irradiance forecasting through machine learning stack-based ensemble approach
International Journal of Green Energy,
Journal Year:
2025,
Volume and Issue:
unknown, P. 1 - 24
Published: Jan. 10, 2025
Accurate
solar
irradiance
(SI)
prediction
is
vital
for
optimizing
photovoltaic
systems.
This
study
addresses
shortcomings
in
existing
forecasting
methods
by
exploring
advanced
machine-learning
techniques
using
meteorological
satellite
data.
We
develop
three
novel
models
SI
forecasting:
Stack-based
Ensemble
Fusion
with
Meta-Neural
Network
(SEFMNN),
Extreme
Gradient
Boosting-Squared
Error
(XGB-SE),
and
Learning
Machine
(ELM).
These
predict
All-sky
Clear-sky
shortwave
across
Chinese
provinces
(Guangdong,
Shandong,
Zhejiang)
one
Saudi
Arabian
province
(Najran).
The
SEFMNN
model
combines
Artificial
Neural
(ANN),
Random
Forest
(RF),
Support
Vector
(SVM)
to
improve
accuracy.
XGB-SE
employs
a
specialized
loss
function
manage
extreme
values
historical
are
designed
mitigate
overfitting
data
inconsistency
while
balancing
computational
efficiency
predictive
Comparative
analysis
reveals
that
outperform
the
ELM
model,
achieving
an
R2
of
0.9979,
MAE
0.0231,
MSE
0.0020
Najran.
demonstrates
significantly
enhances
forecasting,
aiding
efficient
system
planning
operation.
Language: Английский
Explainable deep learning hybrid modeling framework for total suspended particles concentrations prediction
Atmospheric Environment,
Journal Year:
2025,
Volume and Issue:
unknown, P. 121079 - 121079
Published: Feb. 1, 2025
Language: Английский
Enhancing solar radiation forecasting accuracy with a hybrid SA-Bi-LSTM-Bi-GRU model
Girijapati Sharma,
No information about this author
Subhash Chandra,
No information about this author
Arvind Yadav
No information about this author
et al.
Earth Science Informatics,
Journal Year:
2025,
Volume and Issue:
18(3)
Published: Feb. 19, 2025
Language: Английский
Ensemble-Empirical-Mode-Decomposition (EEMD) on SWH prediction: The effect of decomposed IMFs, continuous prediction duration, and data-driven models
Yuanye Guo,
No information about this author
Jicang Si,
No information about this author
Yulian Wang
No information about this author
et al.
Ocean Engineering,
Journal Year:
2025,
Volume and Issue:
324, P. 120755 - 120755
Published: Feb. 24, 2025
Language: Английский
Leveraging advanced AI algorithms with transformer-infused recurrent neural networks to optimize solar irradiance forecasting
Frontiers in Energy Research,
Journal Year:
2024,
Volume and Issue:
12
Published: Oct. 8, 2024
Solar
energy
(SE)
is
vital
for
renewable
generation,
but
its
natural
fluctuations
present
difficulties
in
maintaining
grid
stability
and
planning.
Accurate
forecasting
of
solar
irradiance
(SI)
essential
to
address
these
challenges.
The
current
research
presents
an
innovative
approach
named
as
Transformer-Infused
Recurrent
Neural
Network
(TIR)
model.
This
model
integrates
a
Bi-Directional
Long
Short-Term
Memory
(BiLSTM)
network
encoding
Gated
Unit
(GRU)
decoding,
incorporating
attention
mechanisms
positional
encoding.
proposed
enhance
SI
accuracy
by
effectively
utilizing
meteorological
weather
data,
handling
overfitting,
managing
data
outliers
complexity.
To
evaluate
the
model’s
performance,
comprehensive
comparative
analysis
conducted,
involving
five
algorithms:
Artificial
(ANN),
BiLSTM,
GRU,
hybrid
BiLSTM-GRU,
Transformer
models.
findings
indicate
that
employing
TIR
leads
superior
analyzed
area,
achieving
R
2
value
0.9983,
RMSE
0.0140,
MAE
0.0092.
performance
surpasses
those
alternative
models
studied.
integration
BiLSTM
GRU
algorithms
with
mechanism
has
been
optimized
SI.
mitigates
computational
dependencies
minimizes
error
terms
within
Language: Английский