International Journal of Advanced Computer Science and Applications,
Journal Year:
2024,
Volume and Issue:
15(3)
Published: Jan. 1, 2024
The
warning
of
fire
and
smoke
provides
security
for
people's
lives
properties.
utilization
deep
learning
has
been
an
active
area
research,
especially
the
use
target
detection
algorithms
achieved
significant
results.
For
improving
performance
model
in
different
scenarios,
a
high-precision
lightweight
improvement
based
on
You
Only
Look
Once
(YOLO),
is
developed.
It
utilizes
partial
convolutions
to
reduce
complexity
model,
add
attention
block
acquire
cross-space
capability.
In
addition,
neck
network
redesigned
realize
bidirectional
feature
fusion.
Experiments
show
that
it
significantly
improved
results
all
metrics
public
Fire-Smoke
dataset,
size
also
widely
reduced.
Comparisons
with
other
popular
models
under
same
conditions
indicate
best
as
well.
order
have
more
visual
comparison
detectability
original
heatmap
experiments
are
established,
which
demonstrate
characterized
by
less
leakage
rate
focused
attention.
Electronics,
Journal Year:
2023,
Volume and Issue:
12(24), P. 4970 - 4970
Published: Dec. 12, 2023
Intelligent
traffic
systems
represent
one
of
the
crucial
domains
in
today’s
world,
aiming
to
enhance
management
efficiency
and
road
safety.
However,
current
intelligent
still
face
various
challenges,
particularly
realm
target
detection.
These
challenges
include
adapting
complex
scenarios
lack
precise
detection
for
multiple
objects.
To
address
these
issues,
we
propose
an
innovative
approach
known
as
YOLOv8-SnakeVision.
This
method
introduces
Dynamic
Snake
Convolution,
Context
Aggregation
Attention
Mechanisms,
Wise-IoU
strategy
within
YOLOv8
framework
performance.
Convolution
assists
accurately
capturing
object
shapes
features,
especially
cases
occlusion
or
overlap.
The
Mechanisms
allow
model
better
focus
on
critical
image
regions
effectively
integrate
information,
thus
improving
its
ability
recognize
obscured
targets,
small
objects,
patterns.
combines
dynamic
non-monotonic
focusing
mechanisms,
more
precisely
regress
bounding
boxes,
low-quality
examples.
We
validate
our
BDD100K
NEXET
datasets.
Experimental
results
demonstrate
that
YOLOv8-SnakeVision
excels
scenarios.
It
not
only
enhances
but
also
strengthens
targets.
provides
robust
support
development
holds
promise
achieving
further
breakthroughs
future
applications.
This
review
systematically
examines
the
progression
of
You
Only
Look
Once
(YOLO)
object
detection
algorithms
from
YOLOv1
to
recently
unveiled
YOLOv10.
Employing
a
reverse
chronological
analysis,
this
study
advancements
introduced
by
YOLO
algorithms,
beginning
with
YOLOv10
and
progressing
through
YOLOv9,
YOLOv8,
subsequent
versions
explore
each
version's
contributions
enhancing
speed,
accuracy,
computational
efficiency
in
real-time
detection.
The
highlights
transformative
impact
across
five
critical
application
areas:
automotive
safety,
healthcare,
industrial
manufacturing,
surveillance,
agriculture.
By
detailing
incremental
technological
that
iteration
brought,
not
only
chronicles
evolution
but
also
discusses
challenges
limitations
observed
earlier
versions.
signifies
path
towards
integrating
multimodal,
context-aware,
General
Artificial
Intelligence
(AGI)
systems
for
next
decade,
promising
significant
implications
future
developments
AI-driven
applications.
Vehicles,
Journal Year:
2024,
Volume and Issue:
6(3), P. 1364 - 1382
Published: Aug. 10, 2024
Accurate
vehicle
detection
is
crucial
for
the
advancement
of
intelligent
transportation
systems,
including
autonomous
driving
and
traffic
monitoring.
This
paper
presents
a
comparative
analysis
two
advanced
deep
learning
models—YOLOv8
YOLOv10—focusing
on
their
efficacy
in
across
multiple
classes
such
as
bicycles,
buses,
cars,
motorcycles,
trucks.
Using
range
performance
metrics,
precision,
recall,
F1
score,
detailed
confusion
matrices,
we
evaluate
characteristics
each
model.The
findings
reveal
that
YOLOv10
generally
outperformed
YOLOv8,
particularly
detecting
smaller
more
complex
vehicles
like
bicycles
trucks,
which
can
be
attributed
to
its
architectural
enhancements.
Conversely,
YOLOv8
showed
slight
advantage
car
detection,
underscoring
subtle
differences
feature
processing
between
models.
The
buses
motorcycles
was
comparable,
indicating
robust
features
both
YOLO
versions.
research
contributes
field
by
delineating
strengths
limitations
these
models
providing
insights
into
practical
applications
real-world
scenarios.
It
enhances
understanding
how
different
architectures
optimized
specific
tasks,
thus
supporting
development
efficient
precise
systems.
MethodsX,
Journal Year:
2025,
Volume and Issue:
14, P. 103178 - 103178
Published: Jan. 20, 2025
Accurate
and
precise
detection
of
lanes
traffic
signs
is
predominant
for
the
safety
efficiency
autonomous
vehicles
these
two
significant
tasks
should
be
addressed
to
handle
Indian
conditions.
There
are
several
state-of-art
You
Only
Live
Once
(YOLO)
models
trained
on
benchmark
datasets
which
fails
cater
challenges
roads.
To
address
issues,
need
with
a
wide
variety
data
samples
perform
better
in
India.
YOLOv8
algorithm
has
its
but
gives
precision
results
nano
variant
widely
used
as
it
computationally
less
complex
comparatively.
Through
rigorous
evaluations
diverseness
datasets,
proposed
YOLOv8n
transfer
learning
exhibits
remarkable
performance
mean
Average
Precision
(mAP)
90.6
%
inference
speed
117
frames
per
second
(fps)
lane
whereas,
notable
mAP
81.3
sign
model
processing
56
fps.•YOLOv8n
Transfer
Learning
approach
by
adjusting
architecture
diverse
Urban,
Suburban,
Highway
scenarios.•Dataset
22,400
images
normal
scenarios
include
crude
weathering
roads,
conditions,
tropical
weather
partially
occluded
erased
lanes,
signs.•The
frame
wise
inference.
With
the
rapid
development
of
autonomous
driving
technology,
demand
for
real-time
and
efficient
object
detection
systems
has
been
increasing
to
ensure
vehicles
can
accurately
perceive
respond
surrounding
environment.
Traditional
models
often
suffer
from
issues
such
as
large
parameter
sizes
high
computational
resource
consumption,
limiting
their
applicability
on
edge
devices.
To
address
this
issue,
we
propose
a
lightweight
model
called
YOLOv8-Lite,
based
YOLOv8
framework,
improved
through
various
enhancements
including
adoption
FastDet
structure,
TFPN
pyramid
CBAM
attention
mechanism.
These
improvements
effectively
enhance
performance
efficiency
model.
Experimental
results
demonstrate
significant
our
NEXET
KITTI
datasets.
Compared
traditional
methods,
exhibits
higher
accuracy
robustness
in
tasks,
better
addressing
challenges
fields
driving,
contributing
advancement
intelligent
transportation
systems.
IEEE Access,
Journal Year:
2024,
Volume and Issue:
12, P. 77831 - 77851
Published: Jan. 1, 2024
Ensuring
the
safe
and
reliable
operation
of
underground
oil
pipelines
is
crucial
to
prevent
environmental
disasters
maintain
uninterrupted
energy
supply.
Yet,
this
vast
network
faces
threats
from
third-party
activities,
natural
disasters,
aging
infrastructure,
posing
risks
catastrophic
consequences
if
left
unaddressed.
In
response
need,
paper
presents
a
computer
vision
system
for
detecting
(vehicular
movement)
near
pipelines.
Our
primary
objective
showcase
practical
application
cutting-edge
models
in
real-world
operational
environments.
For
this,
we
construct
dataset
comprising
1,003
aerial
images,
covering
seven
classes
vehicles
commonly
encountered
pipelines,
including
trucks,
forklifts,
machinery,
pickups,
tractors,
vehicles,
buses.
This
serves
as
foundation
training
hyperparameter
optimization
YOLOv8x-based
detection
model,
used
work.
The
optimized
model
exhibits
strong
performance
across
precision,
recall,
F1-score,
mean
average
precision
metrics
compared
baseline
model.
Additionally,
graphical
tests
illustrated
that
demonstrates
higher
confidence
scores
reduction
false
positives.
addition,
platform
has
been
developed
seamlessly
integrate
offers
range
functionalities,
enabling
users
access
alert
history,
prioritize
alerts,
track
actions
taken
on
each
alert,
visualize
alerts
geographically,
receive
notifications
identified
risks,
generate
detailed
reports
comprehensive
analysis
decision-making.