E3S Web of Conferences,
Год журнала:
2024,
Номер
591, С. 05002 - 05002
Опубликована: Янв. 1, 2024
The
rapid
expansion
of
hybrid
renewable
energy
microgrid
systems
presents
new
challenges
in
maintaining
system
reliability
and
performance.
This
paper
explores
the
application
machine
learning
algorithms
for
predictive
maintenance
such
systems,
focusing
on
early
detection
potential
failures
to
optimize
operational
efficiency
reduce
downtime.
By
integrating
real-time
data
from
solar,
wind,
storage
components,
proposed
models
predict
remaining
useful
life
(RUL)
critical
components.
results
demonstrate
significant
improvements
accuracy,
offering
a
robust
solution
enhancing
longevity
microgrids.
Scientific Reports,
Год журнала:
2024,
Номер
14(1)
Опубликована: Июнь 20, 2024
Abstract
This
study
explores
the
feasibility
of
utilizing
bedded
salt
deposits
as
sites
for
underground
hydrogen
storage.
We
introduce
an
innovative
artificial
intelligence
framework
that
applies
multi-criteria
decision-making
and
spatial
data
analysis
to
identify
most
suitable
locations
storing
in
caverns.
Our
approach
integrates
a
unified
platform
with
eight
distinct
machine-learning
algorithms—KNN,
SVM,
LightGBM,
XGBoost,
MLP,
CatBoost,
GBR,
MLR—creating
rock
deposit
suitability
maps
The
performance
these
algorithms
was
evaluated
using
various
metrics,
including
Mean
Squared
Error
(MSE),
Absolute
(MAE),
Percentage
(MAPE),
Root
Square
(RMSE),
Correlation
Coefficient
(R
2
),
compared
against
actual
dataset.
CatBoost
model
demonstrated
exceptional
performance,
achieving
R
0.88,
MSE
0.0816,
MAE
0.1994,
RMSE
0.2833,
MAPE
0.0163.
novel
methodology,
leveraging
advanced
machine
learning
techniques,
offers
unique
perspective
assessing
potential
is
valuable
asset
stakeholders,
government
bodies,
geological
services,
renewable
energy
facilities,
chemical/petrochemical
industry,
aiding
them
identifying
optimal
Results in Engineering,
Год журнала:
2024,
Номер
23, С. 102532 - 102532
Опубликована: Июль 11, 2024
This
study
investigates
the
challenge
of
cell
balancing
in
battery
management
systems
(BMS)
for
lithium-ion
batteries.
Effective
is
crucial
maximizing
usable
capacity
and
lifespan
packs,
which
essential
widespread
adoption
electric
vehicles
reduction
greenhouse
gas
emissions.
A
novel
deep
reinforcement
learning
(deep
RL)
approach
proposed
passive
with
switched
shunt
resistors.
Notable
RL
algorithms
capable
handling
discrete
actions,
such
as
Trust
Region
Policy
Optimization
(TRPO),
Proximal
(PPO),
Deep
Q-Network
(DQN),
Augmented
Random
Search
(ARS),
Asynchronous
Advantage
Actor
Critic
(A3C),
are
investigated.
TRPO
demonstrates
superior
performance
compared
to
other
rule-based
methods
both
charging
discharging
scenarios
without
requiring
fine-tuning,
optimizing
balance
between
switch
changes.
It
achieves
up
16.8%
improvement
pack
capacity,
69.4%
state-of-charge
variance
among
cells,
40.4%
decrease
number
switching
operations
simulation
results
five
li-ion
cells
connected
series.
The
introduces
an
innovative
application
balancing,
a
comprehensive
modeling
technique,
tailored
multi-objective
reward
function
that
balances
costs.
work
represents
significant
advancement
applying
systems,
providing
framework
further
research
practical
implementation
energy
storage
systems.
Energy Conversion and Economics,
Год журнала:
2024,
Номер
5(4), С. 259 - 279
Опубликована: Авг. 1, 2024
Abstract
Renewable
energy‐based
microgrids
(MGs)
strongly
depend
on
the
implementation
of
energy
storage
technologies
to
optimize
their
functionality.
Traditionally,
electrochemical
batteries
have
been
predominant
means
storage.
However,
technological
advancements
led
recognition
hydrogen
as
a
promising
solution
address
long‐term
requirements
microgrid
systems.
This
study
conducted
comprehensive
literature
review
aimed
at
analysing
and
synthesizing
principal
optimization
control
methodologies
employed
in
hydrogen‐based
within
context
building
infrastructures.
A
comparative
assessment
was
evaluate
merits
disadvantages
different
approaches.
The
techniques
for
management
are
categorized
based
predictability,
deployment
feasibility,
computational
complexity.
In
addition,
proposed
ranking
system
facilitates
an
understanding
its
suitability
diverse
applications.
encompasses
deterministic,
stochastic,
cutting‐edge
methodologies,
such
machine
learning‐based
approaches,
compares
discusses
respective
merits.
key
outcome
this
research
is
classification
various
strategy
MG,
along
with
mechanism
identify
which
will
be
suitable
under
what
conditions.
Finally,
detailed
examination
advantages
strategies
controlling
optimizing
hybrid
systems
emphasis
utilization
provided.
Advances in computational intelligence and robotics book series,
Год журнала:
2025,
Номер
unknown, С. 69 - 80
Опубликована: Фев. 28, 2025
This
study
evaluates
the
effectiveness
of
various
machine
learning
strategies
in
managing
energy
Fuel
Cell
Electric
Vehicles
(FCEVs),
focusing
on
fuel
cell
and
battery
inverter
behaviour.
The
analysis
compares
four
methods
Gaussian
Naive
Bayes
(NB),
Random
Forest,
k-NN,
AdaBoost
using
key
metrics:
Recall,
f1-score,
precision.
NB
Forest
achieve
identical
performance
for
(Recall:
0.87,
f1-score:
0.82,
precision:
0.89)
0.66,
0.57,
0.5).
In
contrast,
k-NN
achieves
a
precision
0.74,
while
excels
with
0.98
0.94.
also
outperforms
other
f1-score
(0.98
cell,
0.90
battery)
recall
(0.95
0.84
battery),
highlighting
its
superior
behaviour
control.
Advances in computational intelligence and robotics book series,
Год журнала:
2025,
Номер
unknown, С. 127 - 156
Опубликована: Фев. 28, 2025
Fault
detection
in
photovoltaic
(PV)
systems
is
vital
for
maintaining
optimal
performance.
Early
of
faults
can
prevent
downtime
and
minimize
energy
loss.
In
this
study,
An
approach
fault
PV
proposed.
The
method
integrates
a
hybrid
support
vector
machine
(SVM)
with
optimization
algorithms
such
as
particle
swarm
(PSO),
genetic
algorithm
(GA),
Bayesian
(BO),
Randomized
Search
CV
(RS).
Experimental
results
demonstrate
the
effectiveness
approach,
notably
SVM-PSO
variant
achieving
significant
precision
accuracy.
Specifically,
employing
RBF
kernel,
model
exhibits
an
accuracy
98.24%,
98.29%,
recall
98.25%,
F1
score
98.08%.
contrast,
utilizing
linear
kernel
yields
slightly
lower
performance,
89.47%,
89.82%,
89.51%.
proposed
system
enhances
performance
reliability,
ultimately
leading
to
increased
generation
reduced
maintenance
costs.
Results in Engineering,
Год журнала:
2024,
Номер
23, С. 102445 - 102445
Опубликована: Июнь 18, 2024
In
the
electronic
era,
demand
for
efficient
storage
systems
has
rapidly
increased,
making
health
and
durability
of
batteries
crucial.
This
research
investigates
performance
distinct
Machine
Learning
(ML)
techniques—namely,
Logistic
Regression
(LR),
Convolutional
Neural
Network
(CNN),
CNN
tuning
using
Particle
Swarm
Optimization
(PSO)—for
Battery
Health
Analysis
(BHA).
The
dataset
comprises
various
parameters
related
to
battery
health,
with
Remaining
Useful
Time
(RUL)
as
target
variable.
proposed
work
is
evaluated
Root
Mean
Squared
Error
(RMSE),
Absolute
(MAE),
R-squared
(R2)
scores.
Initially,
basic
LR
Model
employed
BHA,
followed
by
capture
complex
data
patterns.
Subsequently,
Model's
optimized
PSO
algorithm,
aiming
improved
performance.
Experimental
results
demonstrate
that
significantly
outperforms
approach
in
terms
accuracy,
lower
RMSE
MAE,
higher
R2
conventional
model
outperformed
approach,
resulting
a
20.11,
MAE
15.26,
score
0.996;
whereas,
PSO-Optimized-CNN
further
enhanced
metrics
14.97,
8.03
0.998.
Henceforth,
PSO-optimized
exhibits
compared
standalone
Model.
findings
offer
valuable
insights
into
ML
approaches
BHA
suggest
methods
optimizing
management
applications,
including
renewable
energy
systems,
electric
vehicles,
portable
electronics.