Motivators and Environmental Awareness for Electric Vehicle Adoption in Thailand
Chanwit Prabpayak,
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Thanaporn Boonchoo,
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Suttinee Jingjit
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et al.
World Electric Vehicle Journal,
Journal Year:
2025,
Volume and Issue:
16(3), P. 132 - 132
Published: Feb. 27, 2025
Global
emissions
from
the
transportation
sector
were
nearly
7.7
GtCO2
in
2021.
In
Thailand,
emitted
69
MtCO2
and
consumed
27,460
ktoe
of
final
energy
same
year.
Transitioning
internal
combustion
engine
vehicles
(ICEVs)
to
electric
(EVs)
can
help
reduce
greenhouse
gas
air
pollution,
particularly
PM2.5,
major
metropolitan
areas.
However,
early
stages,
adoption
EVs
may
affect
consumer
considerations.
This
study
aimed
investigate
motivators
environmental
awareness
regarding
EV
Thailand.
It
also
analyzed
CO2
covering
period
1987
2023,
understand
long-term
trends
recent
changes.
An
online
questionnaire
was
conducted,
a
total
459
respondents
participated.
The
results
revealed
that
top
three
for
consider
potential
tax
refund
purchasing
an
EV,
lower
charging
costs
compared
fuel
ICEVs,
operating
ICEVs.
terms
awareness,
expressed
concerns
about
adapting
global
warming,
environment
general.
Based
on
findings,
individuals
aged
between
26
35
years
old
could
be
key
target
group
adoption.
Language: Английский
Smart Electric Vehicle Charging Management Using Reinforcement Learning on FPGA Platforms
Udhaya Mugil Damodarin,
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G.C. Cardarilli,
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Luca Di Nunzio
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et al.
Sensors,
Journal Year:
2025,
Volume and Issue:
25(8), P. 2585 - 2585
Published: April 19, 2025
This
paper
presents
a
smart
electric
vehicle
(EV)
charging
management
system
that
integrates
Reinforcement
Learning
intelligence
on
Field-Programmable
Gate
Array
(FPGA)
platform.
The
is
based
the
Q-learning
algorithm,
where
RL
agent
perceives
environmental
conditions,
captured
through
hardware
sensors
such
as
current,
voltage,
and
priority
indicators,
makes
optimal
decisions
to
address
grid
stress
prioritize
needs.
FPGA
implementation
leverages
design
strategies
ensure
efficient
operation
real-time
response
within
limited
amount
of
required
energy,
allowing
for
its
in
embedded
applications
possibly
enabling
use
an
energy
harvesting
power
source,
like
small
solar
panel.
proposed
effectively
manages
multiple
EV
chargers
by
dynamically
allocating
current
prioritizing
tasks
maintain
service
quality.
Through
intelligent
decision
making,
informed
continuous
sensor
feedback,
adapts
fluctuating
conditions
optimizes
distribution.
Key
findings
highlight
system’s
ability
stable
under
varying
demand
improving
efficiency,
safety,
reliability.
Moreover,
scalable,
seamless
expansion
larger
installations
following
consistent
architectural
guidelines.
FPGA-based
solution
combines
intelligence,
sensor-based
perception,
robust
design,
offering
practical
framework
infrastructure
modern
environments.
Language: Английский