Advanced Adaptive Rule-Based Energy Management for Hybrid Energy Storage Systems (HESSs) to Enhance the Driving Range of Electric Vehicles
Kuew Wai Chew,
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Taha Sadeq,
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Lee Cheun Hau
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et al.
Vehicles,
Journal Year:
2025,
Volume and Issue:
7(1), P. 6 - 6
Published: Jan. 18, 2025
The
energy
storage
system
(ESS)
plays
a
crucial
role
in
electric
vehicles
(EVs),
impacting
their
performance
and
efficiency.
While
batteries
are
the
standard
choice
for
storage,
they
come
with
drawbacks
like
low
power
density
limited
life
cycles,
which
can
hinder
pure
battery
(PBEVs).
To
address
these
issues,
hybrid
(HESS)
that
combines
supercapacitor
provides
more
effective
solution.
delivers
consistent
power,
while
manages
peak
demands
regenerative
braking
energy.
This
study
proposes
new
management
strategy
HESS,
an
advanced
adaptive
rule-based
algorithm.
results
of
algorithms
used
to
verify
proposed
control
was
modeled
MATLAB/Simulink
evaluated
across
three
driving
cycles—UDDS,
NYCC,
Japan1015—while
varying
states
charge
supercapacitors.
findings
indicate
HESS
significantly
alleviates
stress
compared
system,
enhancing
both
efficiency
lifespan.
Among
tested,
algorithm
yielded
best
results,
increasing
number
viable
drive
cycles.
Language: Английский
An optimized informer model design for electric vehicle SOC prediction
Xie Xin,
No information about this author
Feng Huang,
No information about this author
Yong Long
No information about this author
et al.
PLoS ONE,
Journal Year:
2025,
Volume and Issue:
20(3), P. e0314255 - e0314255
Published: March 11, 2025
SOC
prediction
is
of
great
value
to
electric
vehicle
status
assessment.
Informer
model
better
than
other
models
in
prediction,
but
there
still
a
gap
practical
application.
Therefore,
based
on
the
health
assessment
algorithm,
new
optimized
proposed
predict
SOC.
Firstly,
carried
out
through
historical
running
data
obtain
matrix.
Then,
matrix
used
improve
Encoder
and
Decoder
modules
accuracy
speed
model.
Subsequently,
utilized
optimize
logic,
reduce
influence
truncation
error,
further
accuracy.
Finally,
using
before
after
optimization,
performed
four
different
datasets.
The
results
indicate
that
optimizing
En-De
module
Informer,
improved
by
approximately
15%,
with
increasing
about
100%.
Furthermore,
logic
error
enhanced
Informer's
around
20%.
Language: Английский
Lithium Battery Enhancement Through Electrical Characterization and Optimization Using Deep Learning
World Electric Vehicle Journal,
Journal Year:
2025,
Volume and Issue:
16(3), P. 167 - 167
Published: March 13, 2025
Research
on
lithium-ion
batteries
has
been
driven
by
the
growing
demand
for
electric
vehicles
to
mitigate
greenhouse
gas
emissions.
Despite
advances,
still
face
significant
challenges
in
efficiency,
lifetime,
safety,
and
material
optimization.
In
this
context,
objective
of
research
is
develop
a
predictive
model
based
Deep
deep-Learning
learning
techniques.
Based
Learning
techniques
that
combine
Transformer
Physicsphysics-Informed
informed
approaches
optimization
design
electrochemical
parameters
improve
performance
lithium
batteries.
Also,
we
present
training
database
consisting
three
key
components:
numerical
simulation
using
Doyle–Fuller–Newman
(DFN)
mathematical
model,
experimentation
with
half-cell
configured
zinc
oxide
anode,
set
commercial
battery
discharge
curves
electronic
monitoring.
The
results
show
developed
Transformer–Physics
physics-Informed
can
effectively
integrate
deep
deep-learning
DNF
make
predictions
behavior
estimate
battery-charge
capacity
an
average
error
2.5%
concerning
experimental
data.
addition,
it
was
observed
could
explore
new
allow
evaluation
without
requiring
invasive
analysis
their
internal
structure.
This
suggests
assess
optimize
various
applications,
which
significantly
impact
industry
its
use
Electric
Vehicles
(EVs).
Language: Английский
Experimental investigation on electric vehicle braking system using fuzzy rule-based control strategy
World Journal of Engineering,
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 10, 2025
Purpose
Brake
blending
in
electric
vehicles
is
highly
critical
for
enhancing
the
overall
driving
experience,
energy
recovery
and
safety.
In
this
paper,
a
control
strategy
based
on
fuzzy
rules
proposed
brake
EVs
to
integrate
regenerative
braking
with
conventional
friction
braking.
Existing
approaches,
such
as
machine
learning
(ML)
model
predictive
(MPC),
have
several
limitations
compared
rule-based
(FRBC).
ML-based
systems
require
extensive
datasets
training
are
computationally
intensive.
Their
performance
heavily
depends
data
quality,
making
real-time
adaptation
difficult.
Therefore,
FRBC
proposed.
Design/methodology/approach
Simulations
hardware-in-the-loop
experiments
validate
of
system
by
indicating
higher
efficiency
better
lesser
wear
components.
Findings
The
shows
steeper
activation
curve
between
1
3
s
reaches
85%
within
third
second.
This
study,
therefore,
introduces
novel
directions
flexible
adaptive
frameworks
optimize
supports
development
sustainable
efficient
vehicle
operation.
Originality/value
work
aimed
at
pushing
state-of-the-art
EV
through
rigorous
simulations
experimental
validation,
view
improving
recovery,
safety
experience.
Language: Английский
Adaptive neuro fuzzy inference system based optimized energy management strategy for the power integration of battery and supercapacitor in electric vehicle
N. Kumaresan,
No information about this author
A. Rammohan
No information about this author
Journal of Energy Storage,
Journal Year:
2025,
Volume and Issue:
126, P. 117073 - 117073
Published: May 16, 2025
Language: Английский
A Novel Optimal Control Strategy of Four Drive Motors for an Electric Vehicle
Applied Sciences,
Journal Year:
2025,
Volume and Issue:
15(7), P. 3505 - 3505
Published: March 23, 2025
Based
on
the
mobility
requirements
of
electric
vehicles,
four-wheel
drive
(4WD)
can
significantly
enhance
driving
capability
and
increase
operational
flexibility
in
handling.
If
output
different
motors
be
effectively
controlled,
energy
losses
during
distribution
process
reduced,
thereby
greatly
improving
overall
efficiency.
This
study
presents
a
simulation
platform
for
an
vehicle
with
four
as
power
sources.
also
consists
cycle,
driver,
lithium-ion
battery,
dynamics,
management
system
models.
Two
rapid-prototyping
controllers
integrated
required
circuit
to
analog-to-digital
signal
conversion
input
are
utilized
carry
out
hardware-in-the-loop
(HIL)
simulation.
The
called
NEDC
(New
European
Driving
Cycle),
FTP-75
(Federal
Test
Procedure
75)
used
evaluating
performance
characteristics
response
relationship
among
subsystems.
A
control
strategy,
ECMS
(Equivalent
Consumption
Minimization
Strategy),
is
simulated
compared
average
torque
mode.
method
considers
demanded
powers
motor
speeds,
various
combinations
search
consumption
find
minimum
value.
As
result,
it
identify
global
optimal
solution.
Simulation
results
indicate
that,
mode
rule-based
control,
pure
environment
HIL
UDDS
maximum
improvement
rates
efficiency
45
kW
95
systems
6.1%
6.0%,
respectively.
In
5.1%
4.8%,
Language: Английский
The Effect of Energy Management in Heating–Cooling Systems of Electric Vehicles on Charging and Range
Applied Sciences,
Journal Year:
2024,
Volume and Issue:
14(15), P. 6406 - 6406
Published: July 23, 2024
In
this
study,
an
energy
management
model
for
electric
vehicles
including
the
entire
vehicle
such
as
cabin,
motors,
battery,
and
heating–cooling
system
was
prepared.
The
heating
cooling
processes
were
run
according
to
internationally
recognized
driving
cycles
well
at
constant
speeds
investigate
them
under
different
ambient
conditions.
managed
in
line
with
cabin
temperature
target
determined
by
considering
comfort
consumption
of
each
elements
process
analyzed.
Under
operating
conditions,
variation
time,
instantaneous
power,
cumulative
calculated.
effect
on
consumption,
charging
rate,
range
analyzed
interpreted.
results
showed
that
consumed
more
when
decreased,
charge
ratio
deformation
rate
increased
about
30%
–10
°C.
Similarly,
increased,
reached
up
40%
40
When
outdoor
conditions
close
thermal
23
°C
inside
total
rates
reduced
less
than
10%.
Language: Английский