Research on an Apple Recognition and Yield Estimation Model Based on the Fusion of Improved YOLOv11 and DeepSORT
Agriculture,
Journal Year:
2025,
Volume and Issue:
15(7), P. 765 - 765
Published: April 2, 2025
Accurate
apple
yield
estimation
is
essential
for
effective
orchard
management,
market
planning,
and
ensuring
growers’
income.
However,
complex
conditions,
such
as
dense
foliage
occlusion
overlapping
fruits,
present
challenges
to
large-scale
estimation.
This
study
introduces
APYOLO,
an
enhanced
detection
algorithm
based
on
improved
YOLOv11,
integrated
with
the
DeepSORT
tracking
improve
both
accuracy
operational
speed.
APYOLO
incorporates
a
multi-scale
channel
attention
(MSCA)
mechanism
prior
distribution
intersection
over
union
(EnMPDIoU)
loss
function
enhance
target
localization
recognition
under
environments.
Experimental
results
demonstrate
that
outperforms
original
YOLOv11
by
improving
[email protected],
[email protected]–0.95,
accuracy,
recall
2.2%,
2.1%,
0.8%,
2.3%,
respectively.
Additionally,
combination
of
unique
ID
region
line
(ROL)
strategy
in
further
boosts
84.45%,
surpassing
performance
method
alone.
provides
more
precise
efficient
system
estimation,
offering
strong
technical
support
intelligent
refined
management.
Language: Английский
Intelligent Vision System for Real-Time Pallet Detection, Counting and Efficient Warehouse Management
Kunal G. Borase,
No information about this author
R Sowmiya,
No information about this author
Bharani Kumar Depuru
No information about this author
et al.
Published: April 1, 2025
Nowadays,
keeping
track
of
inventory
accurately
is
a
big
challenge
in
warehouses,
especially
when
dealing
with
large-scale
pallet
production.
Traditional
methods
like
manual
counting
can
lead
to
errors,
such
as
incorrect
counts,
causing
inefficiencies
and
delays
order
fulfillment.
These
issues
not
only
slow
down
operations
but
also
increase
costs
impact
the
entire
supply
chain.
This
paper
implements
an
high
level
solution
deploying
AI-powered
system
using
deep
learning
computer
vision
count
stacked
pallets
real-time,
improving
management
operational
efficiency
develop
reliable
detection
system,
extensive
data
collection
was
carried
out
warehouse
settings
capturing
images
under
different
conditions
dataset
carefully
labeled
polygon-based
annotations
via
open
source
annotation
tool
roboflow
facilities
for
augmentations.
To
ensure
precise
object
various
augmentation
techniques
shear,
exposure,
noise,
blur,
grayscale,
horizontal
flip,
saturation,
rotation
brightness
adjustments
were
applied
improve
model
robustness
against
real-world
variations
For
real-time
high-accuracy
,
YOLO
(You
Only
Look
Once)
models
YOLOv8,
YOLOv9,
YOLO11
used
training
optimization.
offered
fast
inference
speeds,
ensuring
low
latency
while
maintaining
precision.
A
comparative
analysis
versions
provided
insights
into
performance,
accuracy,
efficiency.
The
optimized
implemented
setting
connected
monitoring
enabling
automatic
reducing
effort
errors.
research
highlights
Switching
from
traditional
presenting
how
enhance
precision,
minimize
human
mistakes,
cut
expenses.
By
implementing
AI-driven
Businesses
optimize
chain
processes,
implement
scalable
automation.
Language: Английский
DEEP LEARNING FRAMEWORK FOR FRUIT COUNTING AND YIELD MAPPING IN TART CHERRY USING YOLOv8 and YOLO11
Smart Agricultural Technology,
Journal Year:
2025,
Volume and Issue:
unknown, P. 100948 - 100948
Published: April 1, 2025
Language: Английский
YOLOv11n for precision agriculture: lightweight and efficient detection of guava defects across diverse conditions
G. Madasamy Raja,
No information about this author
P. Selvaraju,
No information about this author
P. Pathmanaban
No information about this author
et al.
Journal of the Science of Food and Agriculture,
Journal Year:
2025,
Volume and Issue:
unknown
Published: May 5, 2025
Abstract
BACKGROUND
Automated
fruit
defect
detection
plays
a
critical
role
in
improving
postharvest
quality
assessment
and
supporting
decision‐making
agricultural
supply
chains.
Guava
presents
specific
challenges
because
of
diverse
disease
types,
varying
maturity
levels
inconsistent
environmental
conditions.
Although
existing
you
only
look
once
(YOLO)‐based
models
have
shown
promise
tasks,
they
often
face
limitations
balancing
accuracy,
inference
speed
computational
efficiency,
particularly
resource‐constrained
settings.
This
study
addresses
this
gap
by
evaluating
four
YOLO
(YOLOv8s,
YOLOv5s,
YOLOv9s
YOLOv11n)
for
detecting
defective
guava
fruits
across
five
diseases
(scab,
canker,
chilling
injury,
mechanical
damage
rot),
three
(mature,
half‐mature
immature)
healthy
fruits.
RESULTS
Diverse
datasets
facilitated
robust
training
evaluation.
YOLOv11n
achieved
the
highest
mAP50‐95
(98.0%)
exhibited
bounding
box
loss
(0.0565),
classification
(0.2787),
time
(3.9
milliseconds)
(255
FPS).
YOLOv5s
had
precision
(94.9%),
while
excelled
recall
(96.2%).
YOLOv8s
offered
balanced
performance
metrics.
outperformed
all
with
lightweight
architecture
(2.6
million
parameters)
low
cost
(6.3
giga
floating‐point
operations
per
second),
making
it
suitable
applications.
CONCLUSION
These
results
highlight
YOLOv11n's
potential
applications,
such
as
automated
control,
which
require
high
accuracy
real‐time
analysis
provides
insights
into
deploying
to
enhance
efficiency
reliability
management.
©
2025
Society
Chemical
Industry.
Language: Английский
You Only Look Once–Aluminum: A Detection Model for Complex Aluminum Surface Defects Based on Improved YOLOv8
Jiashu Han,
No information about this author
H. Y. Chen,
No information about this author
Yongkun Ding
No information about this author
et al.
Symmetry,
Journal Year:
2025,
Volume and Issue:
17(5), P. 724 - 724
Published: May 9, 2025
Detecting
aluminum
defects
in
industrial
environments
presents
significant
challenges
related
to
low-resolution
images,
subtle
damage
features,
and
an
imbalance
between
easy
difficult
samples.
The
You
Only
Look
Once–Aluminum
(YOLO-AL)
algorithm
proposed
this
paper
addresses
these
challenges.
Firstly,
enhance
the
model’s
performance
on
images
small
object
detection,
as
well
improve
its
flexibility
adaptability,
C2f-US
replaces
first
two
CSP
bottleneck
with
2
Convolutions
(C2f)
layers
original
Backbone
network.
Secondly,
boost
multi-scale
context
capture
strip
defect
a
CPMSCA
mechanism
class-symmetric
structure
is
integrated
at
end
of
Thirdly,
efficiently
both
high-level
semantics
low-level
spatial
details,
detection
complex
surface
defects,
ODE-RepGFPN
introduced
replace
entire
Neck
Finally,
address
hard
samples,
Focaler-WIoU
proposed.
Extensive
experiments
conducted
publicly
available
AliCloud
dataset
(APDDD)
demonstrate
that
YOLO-AL
achieves
86.5%,
77.8%,
81.5%
for
Precision,
Recall,
[email protected],
respectively,
surpassing
baseline
model
other
state-of-the-art
methods.
can
be
camera
system
automated
inspection
profiles
production
environment.
Language: Английский