Energy-optimizing machine learning-driven smart traffic control system for urban mobility and the implications for insurance and risk management
Information System and Smart City,
Год журнала:
2025,
Номер
5(1), С. 2253 - 2253
Опубликована: Фев. 27, 2025
Heavy
traffic
during
peak
hours,
such
as
early
mornings
and
late
evenings,
is
a
significant
cause
of
delays
for
commuters.
To
address
this
issue,
the
prototype
dual
smart
light
control
system
constructed,
capable
dynamically
adjusting
signal
duration
based
on
real-time
vehicle
density
at
intersections,
well
brightness
streetlights.
The
uses
pre-trained
Haar
Cascade
machine
learning
classifier
model
to
detect
count
vehicles
through
live
video
feed.
Detected
cars
are
highlighted
with
red
squares,
their
extracted.
data
then
transmitted
an
Arduino
microcontroller
via
serial
communication,
facilitated
by
pySerial
library.
processes
information
adjusts
timing
lights
accordingly,
optimizing
flow
current
road
conditions.
A
novel
approach
involves
energy
usage
integration
power
grid.
Street
lighting
adjusted
night
times—brightening
high-traffic
periods
dimming
low-traffic
times.
levels
set
30%,
50%,
75%,
100%
number
detected,
above
50%
indicating
presence
cars.
This
adaptive
enhances
efficiency
reducing
consumption
while
maintaining
safety.
simulated
experimental
results
provided.
former
demonstrated
lower
accuracy
compared
latter,
particularly
transition
green
light,
across
all
levels.
Additionally,
simulation
was
only
representing
discrete
lamp
0%,
100%,
in
contrast
results,
which
showed
clear
differentiation
between
Details
limitations
outlined
proposed
solutions.
implications
optimized
auto
insurance,
liability
coverage,
risk
management
explored.
These
areas
that
rarely
addressed
research.
Язык: Английский
Digital Reconstruction Method for Low-Illumination Road Traffic Accident Scenes Using UAV and Auxiliary Equipment
World Electric Vehicle Journal,
Год журнала:
2025,
Номер
16(3), С. 171 - 171
Опубликована: Март 14, 2025
In
low-illumination
environments,
traditional
traffic
accident
survey
methods
struggle
to
obtain
high-quality
data.
This
paper
proposes
a
reconstruction
method
utilizing
an
unmanned
aerial
vehicle
(UAV)
and
auxiliary
equipment.
Firstly,
methodological
framework
for
investigating
accidents
under
conditions
is
developed.
Accidents
are
classified
based
on
the
presence
of
obstructions,
corresponding
investigation
strategies
formulated.
As
unobstructed
scene,
UAV-mounted
LiDAR
scans
site
generate
comprehensive
point
cloud
model.
partially
obstructed
ground-based
mobile
laser
scanner
complements
areas
that
obscured
or
inaccessible
LiDAR.
Subsequently,
collected
data
processed
with
multiscale
voxel
iteration
down-sampling
determine
optimal
parameters.
Then,
improved
normal
distributions
transform
(NDT)
algorithm
different
filtering
algorithms
adopted
register
ground
air
clouds,
combination
selected,
thus,
reconstruct
high-precision
3D
model
scene.
Finally,
two
nighttime
scenarios
conducted.
DJI
Zenmuse
L1
UAV
system
EinScan
Pro
2X
selected
reconstruction.
both
experiments,
proposed
achieved
RMSE
values
0.0427
m
0.0451
m,
outperforming
photogrammetry-based
modeling
0.0466
0.0581
m.
The
results
demonstrate
this
can
efficiently
accurately
investigate
scenes
without
being
affected
by
providing
valuable
technical
support
refined
management
analysis.
Moreover,
challenges
future
research
directions
discussed.
Язык: Английский