Journal of Sensor and Actuator Networks,
Journal Year:
2024,
Volume and Issue:
14(1), P. 3 - 3
Published: Dec. 27, 2024
The
reliance
on
fossil
fuels
as
a
primary
global
energy
source
has
significantly
impacted
the
environment,
contributing
to
pollution
and
climate
change.
A
shift
towards
renewable
sources,
particularly
solar
power,
is
underway,
though
these
sources
face
challenges
due
their
inherent
intermittency.
Battery
storage
systems
(BESS)
play
crucial
role
in
mitigating
this
intermittency,
ensuring
reliable
power
supply
when
generation
insufficient.
objective
of
paper
accurately
predict
irradiance
for
battery
operation
optimization
microgrids.
Using
satellite
data
from
weather
sensors,
we
trained
machine
learning
models
enhance
predictions.
We
evaluated
five
popular
algorithms
applied
ensemble
methods,
achieving
substantial
improvement
predictive
accuracy.
Our
model
outperforms
previous
works
using
same
dataset
been
validated
generalize
across
diverse
geographical
locations
Florida.
This
work
demonstrates
potential
AI-assisted
data-driven
approaches
support
sustainable
management
solar-powered
IoT-based
Scientific Reports,
Journal Year:
2024,
Volume and Issue:
14(1)
Published: Aug. 19, 2024
The
growing
integration
of
renewable
energy
sources
into
grid-connected
microgrids
has
created
new
challenges
in
power
generation
forecasting
and
management.
This
paper
explores
the
use
advanced
machine
learning
algorithms,
specifically
Support
Vector
Regression
(SVR),
to
enhance
efficiency
reliability
these
systems.
proposed
SVR
algorithm
leverages
comprehensive
historical
production
data,
detailed
weather
patterns,
dynamic
grid
conditions
accurately
forecast
generation.
Our
model
demonstrated
significantly
lower
error
metrics
compared
traditional
linear
regression
models,
achieving
a
Mean
Squared
Error
2.002
for
solar
PV
3.059
wind
forecasting.
Absolute
was
reduced
0.547
0.825
scenarios,
Root
(RMSE)
1.415
1.749
power,
showcasing
model's
superior
accuracy.
Enhanced
predictive
accuracy
directly
contributes
optimized
resource
allocation,
enabling
more
precise
control
schedules
reducing
reliance
on
external
sources.
application
our
resulted
an
8.4%
reduction
overall
operating
costs,
highlighting
its
effectiveness
improving
management
efficiency.
Furthermore,
system's
ability
predict
fluctuations
output
allowed
adaptive
real-time
management,
stress
enhancing
system
stability.
approach
led
10%
improvement
balance
between
supply
demand,
15%
peak
load
12%
increase
utilization
enhances
stability
by
better
balancing
mitigating
variability
intermittency
These
advancements
promote
sustainable
microgrid,
contributing
cleaner,
resilient,
efficient
infrastructure.
findings
this
research
provide
valuable
insights
development
intelligent
systems
capable
adapting
changing
conditions,
paving
way
future
innovations
Additionally,
work
underscores
potential
revolutionize
practices
providing
accurate,
reliable,
cost-effective
solutions
integrating
existing
infrastructures.
Applied Sciences,
Journal Year:
2025,
Volume and Issue:
15(3), P. 1275 - 1275
Published: Jan. 26, 2025
In
recent
years,
the
adverse
effects
of
climate
change
have
increased
rapidly
worldwide,
driving
countries
to
transition
clean
energy
sources
such
as
solar
and
wind.
However,
these
energies
face
challenges
cloud
cover,
precipitation,
wind
speed,
temperature,
which
introduce
variability
intermittency
in
power
generation,
making
integration
into
interconnected
grid
difficult.
To
achieve
this,
we
present
a
novel
hybrid
deep
learning
model,
CEEMDAN-CNN-ATT-LSTM,
for
short-
medium-term
irradiance
prediction.
The
model
utilizes
complete
empirical
ensemble
modal
decomposition
with
adaptive
noise
(CEEMDAN)
extract
intrinsic
seasonal
patterns
irradiance.
addition,
it
employs
encoder-decoder
framework
that
combines
convolutional
neural
networks
(CNN)
capture
spatial
relationships
between
variables,
an
attention
mechanism
(ATT)
identify
long-term
patterns,
long
short-term
memory
(LSTM)
network
dependencies
time
series
data.
This
has
been
validated
using
meteorological
data
more
than
2400
masl
region
characterized
by
complex
climatic
conditions
south
Ecuador.
It
was
able
predict
at
1,
6,
12
h
horizons,
mean
absolute
error
(MAE)
99.89
W/m2
winter
110.13
summer,
outperforming
reference
methods
this
study.
These
results
demonstrate
our
represents
progress
contributing
scientific
community
field
environments
high
its
applicability
real
scenarios.
Results in Engineering,
Journal Year:
2024,
Volume and Issue:
23, P. 102817 - 102817
Published: Sept. 1, 2024
The
need
for
energy
is
increasing
globally
due
to
a
several
factors,
including
population
growth
and
economic
development.
Achieving
this
demand
in
the
face
of
global
warming
depletion
fossil
fuels
requires
use
renewable
energy.
Photovoltaic
one
sources
that
widely
used
many
nations
across
world.
(PV)
integration
into
grid
has
significant
benefits
environment
economy,
but
at
high
penetration
levels,
its
intermittent
nature
makes
system
stability
difficult
maintain.
Accurate
ultra-short-term
horizontal
irradiance
forecasting
necessary
order
guarantee
most
optimal
photovoltaic
power
production
sources.
For
GHI
forecasting,
novel
GRU-TCN-based
model
proposed
paper.
It
composed
two
neural
networks:
temporal
convolutional
network
gated
recurrent
unit.
After
extracting
features
from
time-series
solar
data
using
GRU,
spatial
are
obtained
correlation
matrix
different
meteorological
variables
target
neighbor
position
TCN.
Univariate
multivariate
GRU-TCN
models
have
been
ultra
short-term
forecasting.
This
paper
compares
univariate
with
TCN,
LSTM,
GRU
based
on
three
evaluation
metrics
investigate
how
combinations
affect
accuracy
one-step
findings
indicate
adoption
historical
suitable
obtain
reliable
23.02
(W/m2)
MAE
as
opposed
best
achieved
25.67
MAE.
According
results,
outperforms
other
assessed
offers
practical
alternative