Sustainability,
Год журнала:
2024,
Номер
16(23), С. 10731 - 10731
Опубликована: Дек. 6, 2024
Sustainable
forestry
for
the
management
of
forest
resources
is
more
important
today
than
ever
before
because
keeping
forests
healthy
has
an
impact
on
human
health.
Recent
advances
in
Unmanned
Aerial
Vehicles
(UAVs),
computer
vision,
and
Deep
Learning
(DL)
models
make
remote
sensing
Forest
Insect
Pest
Disease
(FIPD)
possible.
In
this
work,
a
UAV-based
process,
framework
are
used
to
automatically
efficiently
detect
map
areas
damaged
by
bark
beetles
Mexican
located
Hidalgo
State.
First,
image
dataset
region
interest
(ROI)
acquired
UAV
open
hardware
platform.
To
determine
trees,
we
use
tree
crown
detection
prebuilt
Deepforest
model,
trees
diseased
pests
recognized
using
YOLOv5.
area
region,
propose
method
based
morphological
operations.
The
system
generates
comprehensive
report
detailing
location
affected
zones,
total
regions,
GPS
co-ordinates,
both
locations.
overall
accuracy
rates
were
88%
90%,
respectively.
results
obtained
from
8.2743
ha
revealed
that
16.8%
surface
was
and,
455
evaluated,
34.95%
damaged.
These
findings
provide
evidence
fast
reliable
tool
early
evaluation
beetle
impact,
which
could
be
expanded
other
insect
species.
Agronomy,
Год журнала:
2024,
Номер
14(9), С. 1895 - 1895
Опубликована: Авг. 24, 2024
Aiming
to
accurately
identify
apple
targets
and
achieve
segmentation
the
extraction
of
branch
trunk
areas
trees,
providing
visual
guidance
for
a
picking
robot
actively
adjust
its
posture
avoid
trunks
obstacle
avoidance
fruit
picking,
spindle-shaped
which
are
widely
planted
in
standard
modern
orchards,
were
focused
on,
an
algorithm
tree
detection
robots
was
proposed
based
on
improved
YOLOv8s
model
design.
Firstly,
image
data
trees
orchards
collected,
annotations
object
pixel-level
conducted
data.
Training
set
then
augmented
improve
generalization
performance
algorithm.
Secondly,
original
network
architecture’s
design
by
embedding
SE
module
attention
mechanism
after
C2f
Backbone
architecture.
Finally,
dynamic
snake
convolution
embedded
into
Neck
structure
architecture
better
extract
feature
information
different
branches.
The
experimental
results
showed
that
can
effectively
recognize
images
segment
branches
trunks.
For
recognition,
precision
99.6%,
recall
96.8%,
mAP
value
98.3%.
81.6%.
compared
with
YOLOv8s,
YOLOv8n,
YOLOv5s
algorithms
recognition
test
images.
other
three
algorithms,
increased
1.5%,
2.3%,
6%,
respectively.
3.7%,
15.4%,
24.4%,
fruits,
branches,
is
great
significance
ensuring
success
rate
harvesting,
provide
technical
support
development
intelligent
harvesting
robot.
Forests,
Год журнала:
2025,
Номер
16(3), С. 431 - 431
Опубликована: Фев. 27, 2025
Forests
are
critical
ecosystems,
supporting
biodiversity,
economic
resources,
and
climate
regulation.
The
traditional
techniques
applied
in
forestry
segmentation
based
on
RGB
photos
struggle
challenging
circumstances,
such
as
fluctuating
lighting,
occlusions,
densely
overlapping
structures,
which
results
imprecise
tree
detection
categorization.
Despite
their
effectiveness,
semantic
models
have
trouble
recognizing
trees
apart
from
background
objects
cluttered
surroundings.
In
order
to
overcome
these
restrictions,
this
study
advances
management
by
integrating
depth
information
into
the
YOLOv8
model
using
FinnForest
dataset.
Results
show
significant
improvements
accuracy,
particularly
for
spruce
trees,
where
mAP50
increased
0.778
0.848
mAP50-95
0.472
0.523.
These
findings
demonstrate
potential
of
depth-enhanced
limitations
RGB-based
segmentation,
complex
forest
environments
with
structures.
Depth-enhanced
enables
precise
mapping
species,
health,
spatial
arrangements,
habitat
analysis,
wildfire
risk
assessment,
sustainable
resource
management.
By
addressing
challenges
size,
distance,
lighting
variations,
approach
supports
accurate
monitoring,
improved
conservation,
automated
decision-making
forestry.
This
research
highlights
transformative
integration
models,
laying
a
foundation
broader
applications
environmental
conservation.
Future
studies
could
expand
dataset
diversity,
explore
alternative
technologies
like
LiDAR,
benchmark
against
other
architectures
enhance
performance
adaptability
further.
Forests,
Год журнала:
2025,
Номер
16(4), С. 707 - 707
Опубликована: Апрель 21, 2025
Distinguishing
vegetation
types
from
satellite
images
has
long
been
a
goal
of
remote
sensing,
and
the
combination
multi-source
multi-temporal
sensing
for
classification
is
currently
hot
topic
in
field.
In
species-rich
mountainous
environments,
this
study
selected
four
different
seasons
(two
aerial
images,
one
WorldView-2
image,
UAV
image)
proposed
method
integrating
hierarchical
extraction
object-oriented
approaches
11
types.
This
innovatively
combines
Random
Forest
algorithm
with
decision
tree
model,
constructing
strategy
based
on
feature
combinations
to
progressively
address
challenge
distinguishing
similar
spectral
characteristics.
Compared
traditional
single-temporal
methods,
our
approach
significantly
enhances
accuracy
through
fusion
comparative
experimental
validation,
offering
novel
technical
framework
fine-grained
under
complex
land
cover
conditions.
To
validate
effectiveness
features,
we
additionally
performed
classifications
individual
images.
The
results
indicate
that
(1)
classification,
best
performance
was
achieved
autumn
reaching
an
overall
72.36%,
while
spring
had
worst
performance,
only
58.79%;
(2)
features
reached
89.10%,
which
improvement
16.74%
compared
(autumn).
Notably,
producer
species
such
as
Quercus
acutissima
Carr.,
Tea
plantations,
Camellia
sinensis
(L.)
Kuntze,
Pinus
taeda
L.,
Phyllostachys
spectabilis
C.D.Chu
et
C.S.Chao,
thunbergii
Parl.,
Castanea
mollissima
Blume
all
exceeded
90%,
indicating
relatively
ideal
outcome.
Comprehensive
reviews
of
continuously
vegetated
areas
to
determine
dispersed
locations
invasive
species
require
intensive
use
computational
resources.
Furthermore,
effective
mechanisms
aiding
identification
specific
approaches
relying
on
geospatial
indicators
and
ancillary
images.
This
study
develops
a
two-stage
data
workflow
for
the
Kudzu
vine
(Pueraria
montana)
often
found
in
small
along
roadsides.
The
INHABIT
database
from
United
States
Geological
Survey
(USGS)
provided
vines
Google
Street
View
(GSV)
set
Stage
one
built
up
images
be
implemented
an
object
detection
technique,
You
Only
Look
Once
(YOLO
v8s),
training,
validating,
testing.
two
defined
dataset
confirmed
which
was
followed
retrieve
GSV
analyzed
with
YOLO
v8s.
effectiveness
v8s
model
assessed
identified
georeferenced
demonstrated
that
field
observations
can
virtually
conducted
by
integrating
images;
however,
its
potential
is
confined
updated
periodicity
or
similar
services.
Remote Sensing,
Год журнала:
2025,
Номер
17(11), С. 1811 - 1811
Опубликована: Май 22, 2025
The
precise
identification
and
classification
of
tree
species
in
young
forests
during
their
early
development
stages
are
vital
for
forest
management
silvicultural
efforts
that
support
growth
renewal.
However,
achieving
accurate
geolocation
through
field-based
surveys
is
often
a
labor-intensive
complicated
task.
Remote
sensing
technologies
combined
with
machine
learning
techniques
present
an
encouraging
solution,
offering
more
efficient
alternative
to
conventional
methods.
This
study
aimed
detect
classify
using
remote
imagery
techniques.
mainly
involved
two
different
objectives:
first,
detection
the
latest
version
You
Only
Look
Once
(YOLOv12),
second,
semantic
segmentation
(classification)
random
forest,
Categorical
Boosting
(CatBoost),
Convolutional
Neural
Network
(CNN).
To
best
our
knowledge,
this
marks
first
exploration
utilizing
YOLOv12
identification,
along
integrates
digital
aerial
photogrammetry
Planet
achieve
forests.
used
datasets:
RGB
from
unmanned
vehicle
(UAV)
ortho
photography
RGB-NIR
PlanetScope.
For
YOLOv12-based
detection,
only
was
used,
while
performed
three
sets
data:
(1)
Ortho
(3
bands),
(2)
+
canopy
height
model
(CHM)
(8
(3)
CHM
12
vegetation
indices
(20
bands).
With
models
applied
these
datasets,
nine
were
trained
tested
57
images
(1024
×
1024
pixels)
corresponding
mask
tiles.
achieved
79%
overall
accuracy,
Scots
pine
performing
(precision:
97%,
recall:
92%,
mAP50:
mAP75:
80%)
Norway
spruce
showing
slightly
lower
accuracy
94%,
82%,
90%,
71%).
segmentation,
CatBoost
20
bands
outperformed
other
models,
85%
80%
Kappa,
81%
MCC,
CHM,
EVI,
NIRPlanet,
GreenPlanet,
NDGI,
GNDVI,
NDVI
being
most
influential
variables.
These
results
indicate
simple
boosting
like
can
outperform
complex
CNNs
Remote Sensing,
Год журнала:
2025,
Номер
17(11), С. 1897 - 1897
Опубликована: Май 30, 2025
Accurate
estimation
of
forest
canopy
height
and
understory
terrain
in
mountainous
regions
is
crucial
for
carbon
stock
assessment
under
the
Paris
Agreement
but
remains
challenging.
This
study
aimed
to
evaluate
ICESat-2’s
performance
these
complex
environments.
To
achieve
this,
ICESat-2
ATL03
Version
6
photon
data
were
processed
using
a
novel
adaptive
DBSCAN
algorithm
(BDT-ADBSCAN)
Pu’er
City,
China,
biodiversity
hotspot,
results
validated
against
airborne
LiDAR.
achieved
high
retrieval
accuracy
(R2
=
1.00,
RMSE
0.91
m),
primarily
affected
by
slope,
while
was
less
accurate
0.53,
6.45
m)
with
systematic
underestimation,
mainly
influenced
itself.
Nighttime
strong-beam
acquisitions
substantially
improved
accuracies
both
products.
research
demonstrates
viability
high-resolution
digital
modeling
provides
quality
control
thresholds
structure
challenging
regions,
addressing
validation
gaps
Asian
hotspots
supporting
monitoring
UN
Sustainable
Development
Goals.