2022 International Conference on Innovative Computing, Intelligent Communication and Smart Electrical Systems (ICSES),
Journal Year:
2023,
Volume and Issue:
unknown, P. 1 - 8
Published: Dec. 14, 2023
In
this
study,
we
present
a
novel
Road
Curve
and
Lane
Identification
Scheme
that
harnesses
the
power
of
an
Effective
Hybrid
Learning
Methodology
(EHLM).
This
advanced
approach
combines
Convolutional
Neural
Networks
(CNN),
Mask
R-CNN,
ResNet,
creating
formidable
framework
for
road
curve
detection
lane
identification
in
complex
driving
scenarios.
The
EHLM
offers
versatile
solution
excels
detecting
curves
accurately
identifying
lanes,
crucial
components
autonomous
systems
driver
assistance.
It
leverages
strengths
each
architecture,
from
CNN's
feature
extraction
capabilities
to
R-CNN's
precise
instance
segmentation
ResNet's
deep
learning
prowess.
study
provides
comprehensive
overview
approach,
showcasing
its
efficacy
real-world
Through
extensive
experimentation
evaluation,
demonstrate
superiority
our
methodology,
achieving
identification.
Our
research
contributes
development
safer
more
efficient
vehicles,
ultimately
enhancing
safety
transportation
systems.In
have
considered
several
models,
including
CNN,
DCNN,
MRCNN,
CNN-LSTM,
ANN,
Proposed
Model.
Among
these
contenders,
Model
stands
out
prominently
terms
accuracy,
impressive
97.23%.
indicates
remarkable
ability
correctly
classify
recognize
target
elements
within
dataset.
Electronics,
Journal Year:
2023,
Volume and Issue:
12(5), P. 1079 - 1079
Published: Feb. 21, 2023
An
Otsu-threshold-
and
Canny-edge-detection-based
fast
Hough
transform
(FHT)
approach
to
lane
detection
was
proposed
improve
the
accuracy
of
for
autonomous
vehicle
driving.
During
last
two
decades,
vehicles
have
become
very
popular,
it
is
constructive
avoid
traffic
accidents
due
human
mistakes.
The
new
generation
needs
automatic
intelligence.
One
essential
functions
a
cutting-edge
automobile
system
detection.
This
study
recommended
idea
through
improved
(extended)
Canny
edge
using
transform.
Gaussian
blur
filter
used
smooth
out
image
reduce
noise,
which
could
help
accuracy.
operator
known
as
Sobel
calculated
gradient
intensity
identify
edges
in
an
convolutional
kernel.
These
techniques
were
applied
initial
module
enhance
characteristics
road
lanes,
making
easier
detect
them
image.
then
routes
based
on
mathematical
relationship
between
lanes
vehicle.
It
did
this
by
converting
into
polar
coordinate
looking
lines
within
specific
range
contrasting
points.
allowed
algorithm
distinguish
other
features
After
this,
detection,
possible
left
right
marking
extraction;
region
interest
(ROI)
must
be
extracted
traditional
approaches
work
effectively
easily.
methodology
tested
several
sequences.
least-squares
fitting
track
lane.
demonstrated
high
experiments,
demonstrating
that
identification
method
performed
well
regarding
reasoning
speed
accuracy,
considered
both
real-time
processing
satisfy
requirements
recognition
lightweight
driving
systems.
Sensors,
Journal Year:
2023,
Volume and Issue:
24(1), P. 249 - 249
Published: Dec. 31, 2023
Advanced
driver
assistance
systems
(ADASs)
are
becoming
increasingly
common
in
modern-day
vehicles,
as
they
not
only
improve
safety
and
reduce
accidents
but
also
aid
smoother
easier
driving.
ADASs
rely
on
a
variety
of
sensors
such
cameras,
radars,
lidars,
combination
sensors,
to
perceive
their
surroundings
identify
track
objects
the
road.
The
key
components
object
detection,
recognition,
tracking
algorithms
that
allow
vehicles
other
road,
pedestrians,
cyclists,
obstacles,
traffic
signs,
lights,
etc.
This
information
is
then
used
warn
potential
hazards
or
by
ADAS
itself
take
corrective
actions
avoid
an
accident.
paper
provides
review
prominent
state-of-the-art
different
functionalities
ADASs.
begins
introducing
history
fundamentals
followed
reviewing
recent
trends
various
functionalities,
along
with
datasets
employed.
concludes
discussing
future
for
discusses
need
more
research
challenging
environments,
those
low
visibility
high
density.
International Journal of Automotive Science And Technology,
Journal Year:
2025,
Volume and Issue:
9(1), P. 71 - 80
Published: Jan. 17, 2025
Autonomous
vehicle
technology
has
advanced
in
the
automobile
sector.
aims
to
make
driving
safer
and
reduce
driver-caused
traffic
accidents.
work
toward
this.
Lane
detection
tracking
are
crucial
autonomous
systems.
Mostly
image
processing
techniques
mainly
utilized
for
lane
literature.
But,
while
performing
tracking,
two
basic
problems
encountered.
First
one
is
also
needs
with
a
specific
area
on
load
correct
area.
The
region
of
interest
(ROI)
process
often
used
filter
be
worked
from
image.
However,
since
fixed
coordinates
provided
this
operation,
restricts
oper-ation
areas
where
it
must
rotated.
Second
weather
conditions
very
effective
lanes
by
utilizing
techniques.
There
serious
cloudy,
sunny
or
momentary
changes
air.
This
study
uses
deep
learning
methods
against
these
problems.
Using
Mask
R-CNN
faster
algorithms
together,
eliminated
successfully
implemented.
problem
solved
been
tested
experimentally
developed
tool.
Both
originally
da-taset
KITTI
dataset
were
separately
model
training
carried
out
experimental
tests.
systems
well
according
IEEE Access,
Journal Year:
2024,
Volume and Issue:
12, P. 40075 - 40091
Published: Jan. 1, 2024
Accurate
and
timely
lane
detection
is
imperative
for
the
seamless
operation
of
autonomous
driving
systems.
In
this
study,
leveraging
gradual
variation
features
within
a
defined
range
width
length,
we
introduce
an
enhanced
Spatial-Temporal
Recurrent
Neural
Network
(SCNN)
framework.
This
framework
serves
as
cornerstone
innovative
hybrid
spatial-temporal
model
detection,
which
tailored
to
address
prevalent
issues
substandard
performance
insufficient
real-time
processing
in
intricate
scenarios,
such
those
involving
erosion
inconsistent
lighting
conditions,
often
challenge
conventional
models.
With
foundational
understanding
that
lanes
manifest
continuous
lines,
employ
temporal
sequence
imagery
input
our
model,
thereby
ensuring
rich
provision
feature
information.
The
adopts
encoder-decoder
structure
integrates
module
extraction
interrelated
information
from
image
sequence.
culminates
output
results
terminal
frame.
proposed
exhibits
commendable
synthesis
accuracy
efficiency,
attaining
Accuracy
97.87%,
xmlns:xlink="http://www.w3.org/1999/xlink">F
1
-score
0.943,
xmlns:xlink="http://www.w3.org/1999/xlink">FPS
19.342
on
tvtLANE
dataset
98.21%,
0.957
Tusimple
dataset.
These
metrics
signify
superior
over
majority
current
methods.
Sensors,
Journal Year:
2022,
Volume and Issue:
22(17), P. 6335 - 6335
Published: Aug. 23, 2022
The
analysis
and
segmentation
of
articular
cartilage
magnetic
resonance
(MR)
images
belongs
to
one
the
most
commonly
routine
tasks
in
diagnostics
musculoskeletal
system
knee
area.
Conventional
regional
methods,
which
are
based
either
on
histogram
partitioning
(e.g.,
Otsu
method)
or
clustering
methods
K-means),
have
been
frequently
used
for
task
segmentation.
Such
well
known
as
fast
working
environment,
where
image
features
reliably
recognizable.
well-known
fact
is
that
performance
these
prone
noise
artefacts.
In
this
context,
strategies,
driven
by
genetic
algorithms
selected
evolutionary
computing
potential
overcome
traditional
such
thresholding
K-means
context
their
performance.
These
optimization
strategies
consecutively
generate
a
pyramid
possible
set
thresholds,
quality
evaluated
using
fitness
function
Kapur's
entropy
maximization
find
optimal
combination
thresholds
On
other
hand,
often
computationally
demanding,
limitation
stack
MR
images.
study,
we
publish
comprehensive
fuzzy
soft
segmentation,
artificial
bee
colony
(ABC),
particle
swarm
(PSO),
Darwinian
(DPSO),
algorithm
an
selection
against
segmentations
extraction
from
This
study
objectively
analyzes
upon
variable
with
dynamic
intensities
report
segmentation's
robustness
various
conditions
number
classes
(4,
7,
10),
(area,
perimeter,
skeleton)
preciseness
lastly
time,
represents
important
factor
We
use
same
settings
individual
strategies:
100
iterations
50
population.
suggests
ABC
gives
best
comparison
view
influence
additive
influence,
also
extraction.
some
cases
does
not
give
good
cases,
analyzed
significantly
except
normally
lower
algorithms.
statistical
tests
significance,
showing
differences
method.
Lastly,
part
software
integrating
all
study.
Typically,
road
lanes
are
solid
or
dashed
line
formations
that
continuous
on
the
surface.
As
driving
sceneries
as
well
substantially
overlap,
placement
of
in
one
frame
is
highly
correlated
with
their
position
next
frame.
Computer
vision-related
machine
learning
algorithms
have
also
advanced
rapidly
recent
years,
becoming
both
more
efficient
&
effective
high-precision
optical
and
electronic
sensors
become
commonplace,
real-time
scene
recognition
feasible.
Recent
years
seen
several
technical
breakthroughs
field
safety,
number
accidents
has
risen
at
an
alarming
pace,
driver
inattention
being
primary
causes.
To
minimize
incidence
maintain
technological
advances
required.
Lane
Detection
Systems,
which
operate
to
recognize
lane
boundaries
alert
if
he
changes
goes
incorrect
markings,
method
achieving
this
goal.
A
detection
system
a
crucial
element
many
technologically
transportation
systems.
This
research
uses
Hough
Transform
technique
for
identification.
In
the
rapidly
advancing
domain
of
autonomous
vehicles,
ensuring
robust
and
realtime
lane
detection
is
pivotal
for
safe
navigation.
This
paper
addresses
challenges
existing
methods,
marked
by
computational
inefficiencies
limited
adaptability
to
changing
configurations.
Our
innovative
approach
treats
as
an
instance
segmentation
problem,
utilizing
LaneNet
architecture
incorporating
metric
learning
enhance
model's
understanding
features.
A
crucial
contribution
lies
in
integrating
H-Net
homography
prediction
during
forward
pass,
dynamically
adjusting
changes
road
plane
geometry,
fitting.
overcomes
limitations
fixed
matrices
traditional
methods.
DBSCAN
clustering
facilitate
effective
grouping,
particularly
scenarios
with
variable
numbers
complex
changes.
Tested
on
TuSimple
dataset
comprising
6,408
images,
our
results
demonstrate
superior
performance
compared
conventional
approaches.
The
approach's
diverse
scenarios,
including
curved
lanes
ground
variations,
positions
it
a
significant
advancement
open
literature.
As
automotive
industry
leans
towards
solutions,
methodology
stands
poised
contribute
evolution
precise
efficient
systems.
Sensors,
Journal Year:
2023,
Volume and Issue:
23(15), P. 6661 - 6661
Published: July 25, 2023
Lane
detection
is
one
of
the
most
fundamental
problems
in
rapidly
developing
field
autonomous
vehicles.
With
dramatic
growth
deep
learning
recent
years,
many
models
have
achieved
a
high
accuracy
for
this
task.
However,
existing
deep-learning
methods
lane
face
two
main
problems.
First,
early
studies
usually
follow
segmentation
approach,
which
requires
much
post-processing
to
extract
necessary
geometric
information
about
lines.
Second,
fail
reach
real-time
speed
due
complexity
model
architecture.
To
offer
solution
these
problems,
paper
proposes
lightweight
convolutional
neural
network
that
only
small
arrays
minimum
post-processing,
instead
maps
task
detection.
This
proposed
utilizes
simple
representation
format
its
output.
The
can
achieve
93.53%
on
TuSimple
dataset.
A
hardware
accelerator
and
implemented
Virtex-7
VC707
FPGA
platform
optimize
processing
time
power
consumption.
Several
techniques,
including
data
quantization
reduce
width
down
8-bit,
exploring
various
loop-unrolling
strategies
different
convolution
layers,
pipelined
computation
across
are
optimized
implementation
process
at
640
FPS
while
consuming
10.309
W,
equating
throughput
345.6
GOPS
energy
efficiency
33.52
GOPS/W.
This
paper
presents
a
machine
learning-based
method
for
detecting
lanes
on
roads.
The
proposed
approach
includes
several
processing
steps
such
as
preprocessing
of
the
original
image
frames,
application
Hough
Line
Transform
an
initial
detection
lanes,
computation
vanishing
point
to
determine
horizon
line,
and
region
interest
(ROI)
determination.
Additionally,
compensates
unknown
position
camera
facing
road
by
cropping
triangle-shaped
perspective
area.
To
correct
errors
caused
discoloration
cracks,
color
mask
white
yellow
pixels
is
used.
orientation
determined
analyzing
slope
lines,
lane
coordinates
are
linked
center.
uses
U-Net
neural
network
implementation
based
Python
programming
language
OpenCV
library.
In
final
section
we
also
present
comparison
with
convolutional
networks
discuss
results.