Applied Sciences,
Journal Year:
2024,
Volume and Issue:
15(1), P. 149 - 149
Published: Dec. 27, 2024
In
textile
manufacturing,
ensuring
high-quality
yarn
is
crucial,
as
it
directly
influences
the
overall
quality
of
end
product.
However,
imperfections
like
protruding
and
loop
fibers,
known
‘hairiness’,
can
significantly
impact
quality,
leading
to
defects
in
final
fabrics.
Controlling
spinning
process
essential,
but
current
commercial
equipment
expensive
limited
analyzing
only
a
few
parameters.
The
advent
artificial
intelligence
(AI)
offers
promising
solution
this
challenge.
By
utilizing
deep
learning
algorithms,
model
detect
various
irregularities,
including
thick
places,
thin
neps,
while
characterizing
hairiness
by
distinguishing
between
fibers
digital
images.
This
paper
proposes
novel
approach
using
learning,
specifically,
an
enhanced
algorithm
based
on
YOLOv5s6,
characterize
different
types
hairiness.
Key
performance
indicators
include
precision,
recall,
F1-score,
mAP0.5:0.95,
mAP0.5.
experimental
results
show
significant
improvements,
with
proposed
increasing
mAP0.5
5%
6%
mAP0.5:0.95
11%
12%
compared
standard
YOLOv5s6
model.
A
10k-fold
cross-validation
method
applied,
providing
accurate
estimate
unseen
data
facilitating
unbiased
comparisons
other
approaches.
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: Jan. 28, 2025
Bananas
(Musa
spp.)
are
a
critical
global
food
crop,
providing
primary
source
of
nutrition
for
millions
people.
Traditional
methods
disease
monitoring
and
detection
often
time-consuming,
labor-intensive,
prone
to
inaccuracies.
This
study
introduces
an
AI-powered
multiplatform
georeferenced
surveillance
system
designed
enhance
the
management
banana
wilt
diseases.
We
developed
evaluated
several
deep
learning
foundation
models,
including
YOLO-NAS,
YOLOv8,
YOLOv9,
Faster-RCNN
perform
accurate
on
both
platforms.
Our
results
demonstrate
superior
performance
YOLOv9
in
detecting
healthy,
Fusarium
Wilt
Xanthomonas
diseased
plants
aerial
images,
achieving
high
mAP@50,
precision
recall
metrics
ranging
from
55
86%.
In
terms
ground
level
we
organized
dataset
based
occurrence
Africa,
Latin
America,
India,
Asia
Australia.
For
this
platform,
YOLOv8
outperforms
rest
achieves
between
65
99%
depending
plant
part
region.
Additionally,
incorporated
Explainable
AI
techniques,
such
as
Gradient-weighted
Class
Activation
Mapping,
model
transparency
trustworthiness.
Human
Loop
Artificial
Intelligence
was
also
utilized
model's
predictions.
Standards,
Journal Year:
2025,
Volume and Issue:
5(1), P. 9 - 9
Published: March 17, 2025
This
study
investigates
the
optimization
of
tree
detection
in
static
images
using
YOLOv5,
YOLOv8,
and
YOLOv11
models,
leveraging
a
custom
non-standard
image
bank
created
exclusively
for
this
research.
Objectives:
To
enhance
by
comparing
performance
models.
The
comparison
involved
hyperparameter
tuning
application
various
optimizers,
aiming
to
improve
model
terms
precision,
recall,
F1,
mean
average
precision
(mAP).
Design/Methodology/Approach:
A
was
utilized
train
During
training,
hyperparameters’
learning
rate
momentum
were
tuned
combination
with
optimizers
SGD,
Adam,
AdamW.
Performance
metrics,
including
mAP,
analyzed
each
configuration.
Key
Results:
process
achieved
values
100%
Adam
YOLOv8
SGD
YOLOv11,
recall
91.5%
AdamW
on
YOLOv8.
Additionally,
mAP
reached
95.6%
95.2%
YOLOv11.
Convergence
times
also
significantly
reduced,
demonstrating
faster
training
enhanced
overall
performance.
Originality/Research
gap:
addresses
gap
YOLO
models
trained
banks,
topic
that
is
less
commonly
explored
literature.
exclusive
development
further
adds
novelty
Practical
Implications:
findings
underscore
effectiveness
tasks
datasets.
methodology
could
be
extended
other
applications
requiring
object
banks.
Limitations
investigation:
limited
within
single
dataset
does
not
evaluate
generalizability
these
optimizations
datasets
or
tasks.
IEEE Access,
Journal Year:
2023,
Volume and Issue:
11, P. 134846 - 134865
Published: Jan. 1, 2023
Railway
track
malfunctions
can
lead
to
severe
consequences
such
as
train
derailments
and
collisions.
Traditional
manual
inspection
methods
suffer
from
inaccuracies
low
efficiency.
Contemporary
deep
learning-based
detection
techniques
have
challenges
in
model
accuracy,
inference
speed,
are
often
associated
with
expensive
computational
costs
high
power
consumption
when
deployed
on
devices.
We
propose
an
optimized
lightweight
network
based
YOLOv5-lite.
which
employs
enhanced
Fused
Mobile
Inverted
Bottleneck
Convolution
(BF_MBConv)
reduce
the
number
of
parameters
floating-point
operations
(FLOP)
during
backbone
feature
extraction.
The
Squeeze-and-Excitation
(SE)
mechanism
is
adopted,
emphasizing
more
critical
features
by
assigning
different
weights
a
channel-wise
perspective.
Utilizing
DropBlock
holistic
dropping
substitute
for
Dropout
random
offers
efficient
means
discarding
redundant
features.
In
neck
section,
Shuffle
convolution
replaces
conventional
one,
significantly
reducing
parameter
count
while
better
integrating
information
post-group
convolution.
Lastly,
incorporation
Focal-EIoU
Loss
augments
regression,
application
incremental
dataset
processing
techniques,
it
addresses
accuracy
sample
imbalance
issues.
refined
algorithm
achieves
mean
Average
Precision
(mAP)@0.5
94.4%,
marking
8.13%
improvement
over
original
Moreover,
leveraging
embedded
platform
integrated
Intel®
Movidius™
Neural
Compute
Stick
cluster
portable
device
deployment,
Achieved
frame
rate
18.7
FPS.
Our
findings
indicate
that
this
approach
efficiently
accurately
detect
railway
damages.
Additionally,
previously
overlooked
issues
performance-cost
trade-offs,
countering
past
trend
prioritizing
performance
at
expense
elevated
costs,
proposing
harmonized
prioritizes
efficiency
affordability.
Electronics,
Journal Year:
2024,
Volume and Issue:
13(4), P. 773 - 773
Published: Feb. 16, 2024
Millimeter
wave
(MMW)
imaging
systems
have
been
widely
used
for
security
screening
in
public
places
due
to
their
advantages
of
being
able
detect
a
variety
suspicious
objects,
non-contact
operation,
and
harmlessness
the
human
body.
In
this
study,
we
propose
an
innovative,
multi-dimensional
information
fusion
YOLO
network
that
can
aggregate
capture
multimodal
cope
with
challenges
low
resolution
susceptibility
noise
MMW
images.
particular,
data
aggregation
module
is
developed
adaptively
synthesize
novel
type
image,
which
simultaneously
contains
pixel,
depth,
phase,
diverse
signal-to-noise
overcome
limitations
current
images
containing
consistent
pixel
all
three
channels.
Furthermore,
capable
differentiable
enhancements
take
into
account
adverse
conditions
real
application
scenarios.
order
fully
acquire
augmented
contextual
mentioned
above,
asymptotic
path
combine
it
YOLOv8.
The
proposed
method
bidirectionally
fuse
deep
shallow
features
while
avoiding
semantic
gaps.
addition,
multi-view,
multi-parameter
mapping
technique
designed
enhance
detection
ability.
experiments
on
measured
datasets
validate
improvement
object
using
model.
International Journal of Imaging Systems and Technology,
Journal Year:
2024,
Volume and Issue:
34(4)
Published: June 21, 2024
ABSTRACT
In
the
field
of
medical
image
analysis,
object
detection
plays
a
crucial
role
by
providing
interpretable
diagnostic
information
to
healthcare
professionals.
Although
current
models
have
achieved
remarkable
success
in
conventional
images,
their
performance
detecting
abnormalities
images
has
not
been
as
satisfactory.
This
is
primarily
due
complexity
anatomical
structures
and
fact
that
some
lesions
may
subtle
features,
particularly
case
early‐stage,
small‐scale
abnormalities.
To
address
this
challenge,
we
introduce
SOCR‐YOLO,
novel
lesion
model
with
online
convolutional
reparameterization
based
on
channel
shuffling.
First,
it
employs
SOCR
(Shuffled
Channel
Online
Convolutional
Re‐parameterization)
module
establish
connection
between
feature
concatenation
computational
efficiency,
aiming
extract
more
comprehensive
while
reducing
time
consumption.
Second,
incorporates
Bi‐FPN
structure
achieve
multiscale
fusion.
Lastly,
loss
function
optimized
improve
training
process.
We
evaluated
two
datasets,
chest
x‐ray
(Vindr‐CXR)
brain
tumor
(Br35H),
provided
Kaggle
competition.
Experimental
results
show
proposed
method
outperformed
several
state‐of‐the‐art
models,
including
YOLOv8,
YOLO‐NAS,
RT‐DETR,
both
speed
accuracy.
Notably,
context
anomaly
detection,
SOCR‐YOLO
exhibits
1.8%
enhancement
accuracy
over
YOLOv8
simultaneously
floating‐point
operations
26.3%.
Additionally,
similar
improvement
observed
tumors.
The
indicate
superior
ability
our
detect
variations
small
lesions.
Scientific Reports,
Journal Year:
2024,
Volume and Issue:
14(1)
Published: July 6, 2024
Abstract
Common
beans
(CB),
a
vital
source
for
high
protein
content,
plays
crucial
role
in
ensuring
both
nutrition
and
economic
stability
diverse
communities,
particularly
Africa
Latin
America.
However,
CB
cultivation
poses
significant
threat
to
diseases
that
can
drastically
reduce
yield
quality.
Detecting
these
solely
based
on
visual
symptoms
is
challenging,
due
the
variability
across
different
pathogens
similar
caused
by
distinct
pathogens,
further
complicating
detection
process.
Traditional
methods
relying
farmers’
ability
detect
inadequate,
while
engaging
expert
pathologists
advanced
laboratories
necessary,
it
also
be
resource
intensive.
To
address
this
challenge,
we
present
AI-driven
system
rapid
cost-effective
disease
detection,
leveraging
state-of-the-art
deep
learning
object
technologies.
We
utilized
an
extensive
image
dataset
collected
from
hotspots
Colombia,
focusing
five
major
diseases:
Angular
Leaf
Spot
(ALS),
Bacterial
Blight
(CBB),
Bean
Mosaic
Virus
(CBMV),
Rust,
Anthracnose,
covering
leaf
pod
samples
real-field
settings.
images
are
only
available
disease.
The
study
employed
data
augmentation
techniques
annotation
at
whole
micro
levels
comprehensive
analysis.
train
model,
three
YOLO
architectures:
YOLOv7,
YOLOv8,
YOLO-NAS.
Particularly
annotations,
YOLO-NAS
model
achieves
highest
mAP
value
of
up
97.9%
recall
98.8%,
indicating
superior
accuracy.
In
contrast,
YOLOv7
YOLOv8
outperformed
YOLO-NAS,
with
values
exceeding
95%
93%
recall.
consistently
yields
lower
performance
than
all
classes
plant
parts,
as
examined
models,
highlighting
unexpected
discrepancy
Furthermore,
successfully
deployed
models
into
Android
app,
validating
their
effectiveness
unseen
classification
accuracy
(90%).
This
accomplishment
showcases
integration
our
production
pipeline,
process
known
DLOps.
innovative
approach
significantly
reduces
diagnosis
time,
enabling
farmers
take
prompt
management
interventions.
potential
benefits
extend
beyond
serving
early
warning
enhance
common
bean
productivity
Drones,
Journal Year:
2024,
Volume and Issue:
8(9), P. 454 - 454
Published: Sept. 2, 2024
Wildfires,
which
are
distinguished
by
their
destructive
nature
and
challenging
suppression,
present
a
significant
threat
to
ecological
environments
socioeconomic
systems.
In
order
address
this
issue,
the
development
of
efficient
accurate
fire
detection
technologies
for
early
warning
timely
response
is
essential.
This
paper
addresses
complexity
forest
mountain
proposing
YOLO-CSQ,
drone-based
method
built
upon
an
improved
YOLOv8
algorithm.
Firstly,
we
introduce
CBAM
attention
mechanism,
enhances
model’s
multi-scale
feature
extraction
capabilities
adaptively
adjusting
weights
in
both
channel
spatial
dimensions
maps,
thereby
improving
accuracy.
Secondly,
propose
ShuffleNetV2
backbone
network
structure,
significantly
reduces
parameter
count
computational
while
maintaining
capabilities.
results
more
lightweight
model.
Thirdly,
challenges
varying
scales
numerous
weak
emission
targets
fires,
Quadrupled-ASFF
head
weighted
fusion.
robustness
detecting
different
scales.
Finally,
WIoU
loss
function
replace
traditional
CIoU
object
function,
enhancing
localization
The
experimental
demonstrate
that
model
achieves
mAP@50
96.87%,
superior
original
YOLOV8,
YOLOV9,
YOLOV10
10.9,
11.66,
13.33
percentage
points,
respectively.
Moreover,
it
exhibits
advantages
over
other
classic
algorithms
key
evaluation
metrics
such
as
precision,
recall,
F1
score.
These
findings
validate
effectiveness
scenarios,
offering
novel
solution
intelligent
monitoring
wildfires.