i-manager's Journal on Data Science & Big Data Analytics (JDS).,
Journal Year:
2024,
Volume and Issue:
2(2), P. 40 - 40
Published: Jan. 1, 2024
Forest
fires
pose
significant
threats
to
forest
ecosystems,
impacting
humans,
animals,
and
plants
reliant
on
these
environments.
Traditional
detection
methods
rely
handcrafted
features
like
color,
motion,
texture,
yet
achieving
accuracy
remains
challenging.
This
study
introduces
a
novel
approach
using
lightweight
fire
method
employing
Deep
Convolution
Neural
Networks
(DCNN),
considering
temporal
aspects
for
enhanced
accuracy.
By
leveraging
DCNN,
this
aims
improve
capabilities,
mitigating
the
devastating
effects
of
wildfires
both
natural
habitats
communities.
represents
promising
advancement
in
field,
offering
potential
solutions
ongoing
challenge
timely
accurate
detection.
Aerospace,
Journal Year:
2024,
Volume and Issue:
11(5), P. 393 - 393
Published: May 14, 2024
The
paper
proposes
an
anomaly
detection
method
for
UAVs
based
on
wavelet
decomposition
and
stacked
denoising
autoencoder.
This
takes
the
negative
impact
of
noisy
data
feature
extraction
capabilities
deep
learning
models
into
account.
It
aims
to
improve
accuracy
proposed
with
autoencoder
methods.
Anomaly
UAV
flight
is
important
condition
monitoring
potential
abnormal
state
mining,
which
means
reduce
risk
accidents.
However,
diversity
mission
scenarios
leads
a
complex
harsh
environment,
so
acquired
are
affected
by
noise,
brings
challenges
accurate
data.
Firstly,
we
use
denoise
original
data;
then,
used
achieve
extraction.
Finally,
softmax
classifier
realize
UAV.
experimental
results
demonstrate
that
still
has
good
performance
in
case
Specifically,
Accuracy
reaches
97.53%,
Precision
97.50%,
Recall
91.81%,
F1-score
94.57%.
Furthermore,
outperforms
four
comparison
more
outstanding
performance.
Therefore,
it
significant
reducing
accidents
enhancing
operational
safety.
Drones,
Journal Year:
2024,
Volume and Issue:
8(9), P. 483 - 483
Published: Sept. 13, 2024
Fire
accidents
are
life-threatening
catastrophes
leading
to
losses
of
life,
financial
damage,
climate
change,
and
ecological
destruction.
Promptly
efficiently
detecting
extinguishing
fires
is
essential
reduce
the
loss
lives
damage.
This
study
uses
drone,
edge
computing,
artificial
intelligence
(AI)
techniques,
presenting
novel
methods
for
real-time
fire
detection.
proposed
work
utilizes
a
comprehensive
dataset
7187
images
advanced
deep
learning
models,
e.g.,
Detection
Transformer
(DETR),
Detectron2,
You
Only
Look
Once
YOLOv8,
Autodistill-based
knowledge
distillation
techniques
improve
model
performance.
The
approach
has
been
implemented
with
YOLOv8m
(medium)
as
teacher
(base)
model.
distilled
(student)
frameworks
developed
employing
YOLOv8n
(Nano)
DETR
techniques.
attains
best
performance
95.21%
detection
accuracy
0.985
F1
score.
A
powerful
hardware
setup,
including
Raspberry
Pi
5
microcontroller,
camera
module
3,
DJI
F450
custom-built
constructed.
deployed
in
setup
identification.
achieves
89.23%
an
approximate
frame
rate
8
conducted
live
experiments.
Integrating
drone
devices
demonstrates
system’s
effectiveness
potential
practical
applications
hazard
mitigation.
Forests,
Journal Year:
2025,
Volume and Issue:
16(2), P. 201 - 201
Published: Jan. 22, 2025
Detecting
wildfires
and
smoke
is
essential
for
safeguarding
forest
ecosystems
offers
critical
information
the
early
evaluation
prevention
of
such
incidents.
The
advancement
unmanned
aerial
vehicle
(UAV)
remote
sensing
has
further
enhanced
detection
smoke,
which
enables
rapid
accurate
identification.
This
paper
presents
an
integrated
one-stage
object
framework
designed
simultaneous
identification
in
UAV
imagery.
By
leveraging
mixed
data
augmentation
techniques,
enriches
dataset
with
small
targets
to
enhance
its
performance
targets.
A
novel
backbone
enhancement
strategy,
integrating
region
convolution
feature
refinement
modules,
developed
facilitate
ability
localize
features
high
transparency
within
complex
backgrounds.
shape
aware
loss
function,
proposed
effective
capture
irregularly
shaped
fire
edges,
facilitating
localization
smoke.
Experiments
conducted
on
a
demonstrate
that
achieves
promising
terms
both
accuracy
speed.
attains
mean
Average
Precision
(mAP)
79.28%,
F1
score
76.14%,
processing
speed
8.98
frames
per
second
(FPS).
These
results
reflect
increases
4.27%,
1.96%,
0.16
FPS
compared
YOLOv10
model.
Ablation
studies
validate
incorporation
augmentation,
models,
substantial
improvements
over
findings
highlight
framework’s
capability
rapidly
effectively
identify
using
imagery,
thereby
providing
valuable
foundation
proactive
measures.
Fire,
Journal Year:
2025,
Volume and Issue:
8(4), P. 138 - 138
Published: March 31, 2025
Forest
fires
have
a
great
destructive
impact
on
the
Earth’s
ecosystem;
therefore,
top
priority
of
current
research
is
how
to
accurately
and
quickly
monitor
forest
fires.
Taking
into
account
efficiency
cost-effectiveness,
deep-learning-driven
UAV
remote
sensing
fire
detection
algorithms
emerged
as
favored
trend
seen
extensive
application.
However,
in
process
drone
monitoring,
often
appear
very
small
are
easily
obstructed
by
trees,
which
greatly
limits
amount
effective
information
that
can
extract.
Meanwhile,
considering
limitations
unmanned
aerial
vehicles,
algorithm
model
also
needs
lightweight
characteristics.
To
address
challenges
such
targets,
occlusions,
image
blurriness
UAV-captured
wildfire
images,
this
paper
proposes
an
improved
based
YOLOv8.
Firstly,
we
incorporate
SPDConv
modules,
enhancing
YOLOv8
architecture
boosting
its
efficacy
dealing
with
minor
objects
images
low
resolution.
Secondly,
introduce
C2f-PConv
module,
effectively
improves
computational
reducing
redundant
calculations
memory
access.
Thirdly,
boosts
classification
precision
through
integration
Mixed
Local
Channel
Attention
(MLCA)
strategy
preceding
three
outputs.
Finally,
W-IoU
loss
function
utilized,
adaptively
modifies
weights
for
different
target
boxes
within
computation,
efficiently
difficulties
associated
detecting
targets.
The
experimental
results
showed
accuracy
our
increased
2.17%,
recall
5.5%,
[email protected]
1.9%.
In
addition,
number
parameters
decreased
43.8%,
only
5.96M
parameters,
while
size
GFlops
43.3%
36.7%,
respectively.
Our
not
reduces
complexity,
but
exhibits
superior
effectiveness
recognition
tasks,
thereby
offering
robust
reliable
solution
monitoring.
Advances in Multimedia,
Journal Year:
2025,
Volume and Issue:
2025(1)
Published: Jan. 1, 2025
Forests
uniquely
deliver
different
vital
resources,
particularly
oxygen
and
carbon
dioxide
purification.
Wildfire
is
the
leading
cause
of
deforestation,
where
massive
forest
areas
are
annually
lost
due
to
failure
identify
predict
fires.
Accordingly,
early
detection
wildfires
crucial
inform
operational
firefighting
teams
prevent
fires
from
advancing.
This
study
analyzes
images
taken
by
unmanned
aerial
vehicles
for
wildfire
detection.
For
this
purpose,
two‐dimensional
discrete
wavelet
transform
was
first
performed
on
images.
Next,
its
superior
ability,
a
convolutional
neural
network
utilized
extract
deep
features
sub‐bands.
Then,
obtained
each
sub‐band
were
merged
create
final
feature
vector.
Afterward,
multidimensional
scaling
employed
reduce
extracted
non‐useful
features.
Ultimately,
presence
or
absence
locations
in
detected
using
proper
classifiers.
The
proposed
method
reaches
an
accuracy
F
1
score
0.9684
0.9672,
respectively,
FLAME
dataset,
indicating
efficiency
detecting
locations.
Thus,
can
significantly
contribute
on‐time
prompt
operations
extensive
damage
forests.
Drones,
Journal Year:
2025,
Volume and Issue:
9(5), P. 348 - 348
Published: May 3, 2025
This
study
aims
to
improve
the
accuracy
of
fire
source
detection,
efficiency
path
planning,
and
precision
firefighting
operations
in
drone
swarms
during
emergencies.
It
proposes
an
intelligent
technology
for
based
on
multi-sensor
integrated
planning.
The
integrates
You
Only
Look
Once
version
8
(YOLOv8)
algorithm
its
optimization
strategies
enhance
real-time
detection
capabilities.
Additionally,
this
employs
data
fusion
swarm
cooperative
path-planning
techniques
optimize
deployment
materials
flight
paths,
thereby
improving
precision.
First,
a
deformable
convolution
module
is
introduced
into
backbone
network
YOLOv8
enable
flexibly
adjust
receptive
field
when
processing
targets,
enhancing
accuracy.
Second,
attention
mechanism
incorporated
neck
portion
YOLOv8,
which
focuses
feature
regions,
significantly
reducing
interference
from
background
noise
further
recognition
complex
environments.
Finally,
new
High
Intersection
over
Union
(HIoU)
loss
function
proposed
address
challenge
computing
localization
classification
targets.
dynamically
adjusts
weight
various
components
training,
achieving
more
precise
classification.
In
terms
visual
sensors,
infrared
LiDAR
sensors
adopts
Information
Acquisition
Optimizer
(IAO)
Catch
Fish
Optimization
Algorithm
(CFOA)
plan
paths
coordinated
swarms.
By
adjusting
planning
locations,
can
reach
sources
shortest
possible
time
carry
out
operations.
Experimental
results
demonstrate
that
improves
by
optimizing
algorithm,
algorithms,
strategies.
optimized
achieved
94.6%
small
fires,
with
false
rate
reduced
5.4%.
wind
speed
compensation
strategy
effectively
mitigated
impact
material
deployment.
not
only
enhances
but
also
enables
rapid
response
scenarios,
offering
broad
application
prospects,
particularly
urban
forest
disaster
rescue.
Drones,
Journal Year:
2024,
Volume and Issue:
8(7), P. 314 - 314
Published: July 10, 2024
In
the
maritime
environment,
particularly
within
tidal
flats,
frequent
occurrence
of
sea
fog
significantly
impairs
quality
images
captured
by
unmanned
aerial
vehicles
(UAVs).
This
degradation
manifests
as
a
loss
detail,
diminished
contrast,
and
altered
color
profiles,
which
directly
impact
accuracy
effectiveness
monitoring
data
result
in
delays
execution
response
speed
tasks.
Traditional
physics-based
dehazing
algorithms
have
limitations
terms
detail
recovery
restoration,
while
neural
network
are
limited
their
real-time
application
on
devices
with
constrained
resources
due
to
model
size.
To
address
above
challenges,
following
study,
an
advanced
algorithm
specifically
designed
for
UAVs
over
flats
is
introduced.
The
integrates
dense
convolutional
blocks
enhance
feature
propagation
reducing
number
parameters,
thereby
improving
timeliness
process.
Additionally,
attention
mechanism
introduced
assign
variable
weights
individual
channels
pixels,
enhancing
network’s
ability
perform
processing.
Furthermore,
inspired
contrastive
learning,
employs
hybrid
function
that
combines
mean
squared
error
regularization.
plays
crucial
role
contrast
saturation
dehazed
images.
Our
experimental
results
indicate
that,
compared
existing
methods,
proposed
has
parameter
size
only
0.005
M
latency
0.523
ms.
When
applied
real
flat
image
dataset,
achieved
peak
signal-to-noise
ratio
(PSNR)
improvement
2.75
(MSE)
reduction
9.72.
During
qualitative
analysis,
generated
high-quality
results,
characterized
natural
enhancement
contrast.
These
findings
confirm
performs
exceptionally
well
removal
from
UAV-captured
images,
enabling
effective
timely
these
environments.