A high-speed MPPT based horse herd optimization algorithm with dynamic linear active disturbance rejection control for PV battery charging system
AL-Wesabi Ibrahim,
No information about this author
Jiazhu Xu,
No information about this author
Imad Aboudrar
No information about this author
et al.
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: Jan. 25, 2025
This
study
first
proposes
an
innovative
method
for
optimizing
the
maximum
power
extraction
from
photovoltaic
(PV)
systems
during
dynamic
and
static
environmental
conditions
(DSEC)
by
applying
horse
herd
optimization
algorithm
(HHOA).
The
HHOA
is
a
bio-inspired
technique
that
mimics
motion
cycles
of
entire
horses.
Next,
linear
active
disturbance
rejection
control
(LADRC)
was
applied
to
monitor
HHOA's
reference
voltage
output.
LADRC,
known
managing
uncertainties
disturbances,
improves
anti-interference
capacity
point
tracking
(MPPT)
speeds
up
system's
response
rate.
Then,
in
comparison
traditional
(perturb
&
observe;
P&O)
metaheuristic
algorithms
(conventional
particle
swarm
optimization;
CPSO,
grasshopper
GHO,
deterministic
PSO;
DPSO)
through
DSEC,
simulations
results
demonstrate
combination
HHOA-LADRC
can
successfully
track
global
peak
(GMP)
with
less
fluctuations
quicker
convergence
time.
Finally,
experimental
investigation
proposed
accomplished
NI
PXIE-1071
Hardware-In-Loop
(HIL)
prototype.
output
findings
show
effectiveness
provided
may
approach
value
higher
than
99%,
showed
rate
converging
oscillations
detection
mechanism.
Language: Английский
Chaotic self-adaptive sine cosine multi-objective optimization algorithm to solve microgrid optimal energy scheduling problems
Karthik Nagarajan,
No information about this author
Arul Rajagopalan,
No information about this author
Mohit Bajaj
No information about this author
et al.
Scientific Reports,
Journal Year:
2024,
Volume and Issue:
14(1)
Published: Aug. 16, 2024
Researchers
are
increasingly
focusing
on
renewable
energy
due
to
its
high
reliability,
independence,
efficiency,
and
environmental
benefits.
This
paper
introduces
a
novel
multi-objective
framework
for
the
short-term
scheduling
of
microgrids
(MGs),
which
addresses
conflicting
objectives
minimizing
operating
expenses
reducing
pollution
emissions.
The
core
contribution
is
development
Chaotic
Self-Adaptive
Sine
Cosine
Algorithm
(CSASCA).
algorithm
generates
Pareto
optimal
solutions
simultaneously,
effectively
balancing
cost
reduction
emission
mitigation.
problem
formulated
as
complex
optimization
task
with
goals
protection.
To
enhance
decision-making
within
algorithm,
fuzzy
logic
incorporated.
performance
CSASCA
evaluated
across
three
scenarios:
(1)
PV
wind
units
at
full
power,
(2)
all
specified
limits
unrestricted
utility
power
exchange,
(3)
microgrid
operation
using
only
non-zero-emission
sources.
third
scenario
highlights
algorithm's
efficacy
in
challenging
context
not
covered
prior
research.
Simulation
results
from
these
scenarios
compared
traditional
(SCA)
other
recent
methods
test
examples.
innovation
lies
chaotic
self-adaptive
mechanisms,
significantly
performance.
integration
mechanisms
superior
cost,
emissions,
execution
time.
Specifically,
achieves
values
590.45
€ct
337.28
kg
emissions
first
scenario,
98.203
406.204
second
95.38
982.173
scenario.
Overall,
outperforms
SCA
by
offering
enhanced
exploration,
improved
convergence,
effective
constraint
handling,
reduced
parameter
sensitivity,
making
it
powerful
tool
solving
problems
like
scheduling.
Language: Английский
Experimental validation of effective zebra optimization algorithm-based MPPT under partial shading conditions in photovoltaic systems
Feriel Abdelmalek,
No information about this author
Hamza Afghoul,
No information about this author
Fateh Krim
No information about this author
et al.
Scientific Reports,
Journal Year:
2024,
Volume and Issue:
14(1)
Published: Oct. 30, 2024
Language: Английский
A novel adaptive FOCV algorithm with robust IMRAC control for sustainable and high-efficiency MPPT in standalone PV systems: experimental validation and performance assessment
Scientific Reports,
Journal Year:
2024,
Volume and Issue:
14(1)
Published: Dec. 30, 2024
This
paper
introduces
an
innovative,
adaptive
Fractional
Open-Circuit
Voltage
(FOCV)
algorithm
combined
with
a
robust
Improved
Model
Reference
Adaptive
Controller
(IMRAC)
for
Maximum
Power
Point
Tracking
(MPPT)
in
standalone
photovoltaic
(PV)
systems.
The
proposed
two-stage
control
strategy
enhances
energy
efficiency,
simplifies
system
operation,
and
addresses
limitations
conventional
MPPT
methods,
such
as
slow
convergence,
high
oscillations,
susceptibility
to
environmental
fluctuations.
first
stage
dynamically
estimates
the
(MPP)
voltage
using
novel
FOCV
method,
which
eliminates
need
irradiance
sensors
or
physical
disconnection
of
PV
modules.
incorporates
real-time
adjustment
kv
factor
based
on
variations
power,
ensuring
precise
estimation.
In
second
stage,
IMRAC
controller
ensures
accurate
tracking
MPP
by
adapting
swiftly
changes
temperature,
while
minimizing
ripple
power
loss.
Validation
was
carried
out
Processor-in-the-Loop
(PIL)
testing
Arduino
Due
microcontroller,
showcasing
real-world
applicability.
Comparative
analysis
state-of-the-art
controllers,
including
P&O-PI,
InC-SMC,
FLC,
VS
P&O
Backstepping,
demonstrates
superior
efficiency
exceeding
99.49%
under
EN
50,530
standard
test
conditions.
also
maintains
exceptional
performance
minimal
loss
across
wide
range
temperature
variations.
By
combining
simplicity,
robustness,
sustainability,
this
work
establishes
cutting-edge
solution
systems,
paving
way
more
efficient
reliable
renewable
applications.
Language: Английский
An enhanced maximum power point tracking and voltage control for proton exchange membrane fuel cell using predictive model control techniques
Jye Yun Fam,
No information about this author
Shen Yuong Wong,
No information about this author
Hazrul Bin Mohamed Basri
No information about this author
et al.
Energy Reports,
Journal Year:
2024,
Volume and Issue:
12, P. 2958 - 2970
Published: Sept. 6, 2024
Language: Английский
A fuzzy-predictive current control with real-time hardware for PEM fuel cell systems
Scientific Reports,
Journal Year:
2024,
Volume and Issue:
14(1)
Published: Nov. 8, 2024
This
research
study
presents
the
application
of
FC-PCC
(Fuzzy
Logic
Predictive
Current
Control)
algorithm
in
context
maximum
power
point
tracking
(MPPT)
for
a
proton
exchange
membrane
fuel
cell
system
employing
three-level
boost
converter
(TLBC).
The
proposed
approach
involves
integration
an
intelligent
fuzzy
controller
with
predictive
current
control
strategy
order
to
improve
performance
MPP
tracking.
Initially,
utilization
logic
data
values
obtained
from
PEMFC.
(P-I)
PEMFC
polarization
curve
is
determined,
followed
by
selection
reference
current.
A
technique
employs
ensure
voltage
balance
output
capacitor
converter.
hardware-in-the-loop
utilizes
real-time
and
high-speed
simulator,
specifically
PLECS
RT
Box
1,
obtain
findings.
computational
cost
overall
rather
low,
making
it
feasible
construct
using
1.
new
MPPT
quickly
finds
(MPP)
balances
capacitors
number
different
cells.
suggested
has
been
verified
demonstrate
rapid
location,
as
well
precise
balancing
robustness
environmental
variations.
was
tested
found
outperform
conventional
methods
like
Perturb
Observe
(P&O)
Incremental
Conductance
(IC)
terms
duration,
precision,
balancing,
achieving
15%
reduction
5%
deviation
value
voltage,
superior
stability
under
changing
temperature
pressure.
Language: Английский