Plant
diseases
pose
a
important
risk
to
agriculture
worldwide
because
they
lower
crop
yields
and
put
food
availability
at
risk.
Diagnosing
classifying
plant
must
occur
on
time
without
sacrificing
accuracy
for
disease
control
strategies
be
effective.
Deep
learning
models,
namely
Convolutional
Generative
Adversarial
Networks
(DCGANs),
have
shown
considerable
promise
in
automating
operations
related
diagnosing
disorders
recent
years.
Combining
(DCGANs)
with
Particle
Swarm
Optimization
(PSO)
algorithms
novel
strategy
that
is
both
predictable
To
increase
the
model's
ability
distinguish
disease-specific
features,
DCGAN
applied
training
dataset,
which
includes
synthetic
images
of
plants
infected
disease.
The
PSO
method
utilized
improve
hyperparameters
DCGAN,
ultimately
increases
generating
performance
convergence
time.
When
large
dataset
images,
recommended
beats
conventional
deep
models
terms
accuracy,
sensitivity,
specificity.
research
indicates
combining
DCGANs
can
potentially
automated
identification
classification,
would
help
contribute
sustainable
supply.
Information Fusion,
Journal Year:
2024,
Volume and Issue:
108, P. 102369 - 102369
Published: March 22, 2024
Wildfires
have
emerged
as
one
of
the
most
destructive
natural
disasters
worldwide,
causing
catastrophic
losses.
These
losses
underscored
urgent
need
to
improve
public
knowledge
and
advance
existing
techniques
in
wildfire
management.
Recently,
use
Artificial
Intelligence
(AI)
wildfires,
propelled
by
integration
Unmanned
Aerial
Vehicles
(UAVs)
deep
learning
models,
has
created
an
unprecedented
momentum
implement
develop
more
effective
Although
survey
papers
explored
learning-based
approaches
wildfire,
drone
disaster
management,
risk
assessment,
a
comprehensive
review
emphasizing
application
AI-enabled
UAV
systems
investigating
role
methods
throughout
overall
workflow
multi-stage
including
pre-fire
(e.g.,
vision-based
vegetation
fuel
measurement),
active-fire
fire
growth
modeling),
post-fire
tasks
evacuation
planning)
is
notably
lacking.
This
synthesizes
integrates
state-of-the-science
reviews
research
at
nexus
observations
modeling,
AI,
UAVs
-
topics
forefront
advances
elucidating
AI
performing
monitoring
actuation
from
pre-fire,
through
stage,
To
this
aim,
we
provide
extensive
analysis
remote
sensing
with
particular
focus
on
advancements,
device
specifications,
sensor
technologies
relevant
We
also
examine
management
approaches,
monitoring,
prevention
strategies,
well
planning,
damage
operation
strategies.
Additionally,
summarize
wide
range
computer
vision
emphasis
Machine
Learning
(ML),
Reinforcement
(RL),
Deep
(DL)
algorithms
for
classification,
segmentation,
detection,
tasks.
Ultimately,
underscore
substantial
advancement
modeling
cutting-edge
UAV-based
data,
providing
novel
insights
enhanced
predictive
capabilities
understand
dynamic
behavior.
Remote Sensing,
Journal Year:
2024,
Volume and Issue:
16(15), P. 2842 - 2842
Published: Aug. 2, 2024
Wildfire
susceptibility
maps
play
a
crucial
role
in
preemptively
identifying
regions
at
risk
of
future
fires
and
informing
decisions
related
to
wildfire
management,
thereby
aiding
mitigating
the
risks
potential
damage
posed
by
wildfires.
This
study
employs
eXplainable
Artificial
Intelligence
(XAI)
techniques,
particularly
SHapley
Additive
exPlanations
(SHAP),
map
Izmir
Province,
Türkiye.
Incorporating
fifteen
conditioning
factors
spanning
topography,
climate,
anthropogenic
influences,
vegetation
characteristics,
machine
learning
(ML)
models
(Random
Forest,
XGBoost,
LightGBM)
were
used
predict
wildfire-prone
areas
using
freely
available
active
fire
pixel
data
(MODIS
Active
Fire
Collection
6
MCD14ML
product).
The
evaluation
trained
ML
showed
that
Random
Forest
(RF)
model
outperformed
XGBoost
LightGBM,
achieving
highest
test
accuracy
(95.6%).
All
classifiers
demonstrated
strong
predictive
performance,
but
RF
excelled
sensitivity,
specificity,
precision,
F-1
score,
making
it
preferred
for
generating
conducting
SHAP
analysis.
Unlike
prevailing
approaches
focusing
solely
on
global
feature
importance,
this
fills
critical
gap
employing
summary
dependence
plots
comprehensively
assess
each
factor’s
contribution,
enhancing
explainability
reliability
results.
analysis
reveals
clear
associations
between
such
as
wind
speed,
temperature,
NDVI,
slope,
distance
villages
with
increased
susceptibility,
while
rainfall
streams
exhibit
nuanced
effects.
spatial
distribution
classes
highlights
areas,
flat
coastal
near
settlements
agricultural
lands,
emphasizing
need
enhanced
awareness
preventive
measures.
These
insights
inform
targeted
management
strategies,
highlighting
importance
tailored
interventions
like
firebreaks
management.
However,
challenges
remain,
including
ensuring
selected
factors’
adequacy
across
diverse
regions,
addressing
biases
from
resampling
spatially
varied
data,
refining
broader
applicability.
Brazilian Archives of Biology and Technology,
Journal Year:
2025,
Volume and Issue:
68
Published: Jan. 1, 2025
Abstract
Glioma
brain
tumors
have
similar
textural
patterns
to
other
tumors,
making
their
detection
and
segmentation
a
challenging
process.
The
approach
of
the
Modified
Tumor
Detection
System
(MTDS)
is
presented
in
this
study
identify
categorize
images
gliomas
from
healthy
brains.
Spatial
Gabor
Transform
(SGT),
feature
calculations,
deep
learning
structure
comprise
training
work
flow
suggested
MTDS
technique.
features
are
computed
glioma
image
dataset
normal
these
fed
into
classification
architecture.
In
paper,
proposed
IVGG
architecture
derived
existing
Visual
Geometry
Group
(VGG)
improve
rate
system
decrease
computational
time
complexity.
testing
also
consist
SGT,
computation
produce
result
source
either
or
glioma.
Furthermore,
Morphological
Segmentation
technique
has
been
used
find
tumor
locations
image.
Two
separate
imaging
datasets
evaluate
validate
MTDS's
performance
efficiency.
BRATS
Imaging
2020
(BI20)
Kaggle
Brain
(KBI)
datasets.
Analysis
efficiency
done
relation
Jaccard
index,
recall,
precision,
rate.
Sensors,
Journal Year:
2025,
Volume and Issue:
25(7), P. 2012 - 2012
Published: March 23, 2025
Climate
change
exacerbates
wildfire
risks
in
regions
like
the
Mediterranean,
where
rising
temperatures
and
prolonged
droughts
create
ideal
fire
conditions.
Adapting
to
this
scenario
requires
implementing
advanced
risk
management
strategies
that
leverage
cutting-edge
technologies.
Wildfire
early
warning
systems
are
crucial
tools
for
detecting
fires
at
an
stage,
helping
prevent
potential
future
damage.
This
paper
proposes
a
smart
CO2
sensor
network-based
system,
relying
on
platform
enables
connection,
management,
processing
of
data
from
devices
through
cloud.
The
system
was
tested
real
controlled
experiment,
which
44
sensors
were
deployed
strategically
selected
locations
varying
distances
fire.
To
enhance
detection,
three
Artificial
Intelligence
(AI)
models
developed
using
AutoEncoders
(AEs)
Long-Short-Term
Memory
(LSTM),
these
compared
simple
threshold-based
(NO-AI)
model.
All
AI
models,
especially
LSTM-based
model,
able
extract
more
valuable
information
records,
activating
up
56%
than
NO-AI
model
less
time
tracking
front
propagation
based
wind
patterns.
Therefore,
not
only
improves
detection
but
also
effectively
supports
firefighting
operations.
Wildfires
pose
a
great
threat
to
human
safety
and
property
arising
from
both
natural
causes.
According
technical
assessment
by
the
Forest
Survey
of
India
more
than
95%
fires
are
anthropogenic
origin.
erupt
due
burning
fossils
local
communities
for
crop
rotation,
camp
without
proper
supervision
etc.
Climate
change
further
elevates
risk
fostering
dry
conditions.
Traditionally,
wildfire
prediction
relied
on
statistical
models
expert
judgment.
However,
emergence
Machine
Learning
(ML)
Deep
(DL)
techniques
has
significantly
improved
accuracy
forest
fire
prediction.
The
objective
this
work
is
prevent
wildfires
save
ecosystem.
In
work,
LightGBM(Light
Gradient
Boosting
Machine)
LSTM(Long
Short-Term
Memory)
machine
learning
utilized
predict
fire.
Both
exhibit
high
F1
scores
97%
in
prediction,
enabling
development
reliable
systems.
results
these
ML-based
may
aid
identifying
highrisk
areas,
optimizing
prevention
measures,
refining
evacuation
plans,
guiding
firefighting
efforts.
IEEE Access,
Journal Year:
2024,
Volume and Issue:
12, P. 52378 - 52389
Published: Jan. 1, 2024
Recent
analyses
by
leading
national
wildfire
and
emergency
monitoring
agencies
have
highlighted
an
alarming
trend:
the
impact
of
devastation
has
escalated
to
nearly
three
times
that
a
decade
ago.
To
address
this
challenge,
we
propose
FireDetXplainer
(FDX),
robust
deep-learning
model
enhances
interpretability
often
lacking
in
current
solutions.
FDX
employs
innovative
approach,
combining
transfer
learning
fine-tuning
methodologies
with
Learning
without
Forgetting
(LwF)
framework.
A
key
aspect
our
methodology
is
utilization
pre-trained
MobileNetV3
model,
renowned
for
its
efficiency
image
classification
tasks.
Through
strategic
adaptation
augmentation,
achieved
exceptional
accuracy
99.91%.
The
further
refined
convolutional
blocks
advanced
pre-processing
techniques,
contributing
high
level
precision.
Leveraging
diverse
datasets
from
Kaggle
Mendeley,
incorporates
Explainable
AI
(XAI)
tools
such
as
Gradient
Weighted
Class
Activation
Map
(Grad-CAM)
Local
Interpretable
Model-Agnostic
Explanations
(LIME)
comprehensive
result
interpretation.
Our
extensive
experimental
results
demonstrate
not
only
outperforms
existing
state-of-the-art
models
but
does
so
remarkable
accuracy,
making
it
highly
effective
solution
interpretable
management.
International Journal of Advanced Computer Science and Applications,
Journal Year:
2024,
Volume and Issue:
15(6)
Published: Jan. 1, 2024
Among
all
kinds
of
disasters,
fire
is
one
the
most
frequent
and
common
major
disasters
that
threaten
public
safety
social
development.
At
present,
widely
used
smoke
sensor
method
to
detect
susceptible
factors
such
as
distance,
resulting
in
untimely
detection.
With
development
computer
vision
technology,
image
detection
technology
based
on
machine
learning
has
been
superior
traditional
methods
terms
accuracy
speed,
gradually
become
emerging
mainstream
field
this
stage,
proposed
related
studies
are
high-performance
hardware
devices,
which
limits
practical
application
relevant
results.
This
paper
proposes
an
improved
algorithm
YOLOv5
model
address
issues
high
memory
usage,
slow
operating
costs
current
algorithms.
The
introduces
FasterNet
network
into
backbone
reduce
usage
improve
speed.
Using
Ghost-Shuffle
Convolution
(GSConv)
neck
reduces
number
parameters
computational
costs.
Introducing
a
one-time
aggregation
cross-stage
partial
module
(VoV-GSCSP)
enhance
feature
extraction
capability
model.
experimental
results
show
compared
with
original
model,
achieves
better
recognition
performance,
average
98.3%,
31.4%
reduction
13%
increase
decreased
by
33%,
workload
35%.
can
achieve
fast
accurate
identification
fires,
lightweight
more
suitable
for
deployment
implementation
general
embedded
hardware.
2022 International Conference on Innovative Computing, Intelligent Communication and Smart Electrical Systems (ICSES),
Journal Year:
2023,
Volume and Issue:
unknown, P. 1 - 4
Published: Dec. 14, 2023
Resource
management
is
a
vital
process
in
the
cloud
for
satisfying
customer
requirement.
Resources
get
task
from
user
and
perform
necessary
action.
The
needs
data
which
are
collected
various
environments.
existing
systems
not
concentrating
on
but
it
maps
request
to
resources.
level
provides
service
response
user.
It
suffers
related
issues,
so
solved
by
incorporate
efficient
machine
learning
over
cloud.
proposed
model
classifies
dataset
based
workload
condition
namely
GPU
CPU
level.
also
developed
workload.
resources
provisioning
allocate
specific
region
with
parameters.
Dynamic
load
assignment
helps
keeping
cost
their
acceptable
Various
deep
models
have
been
analysed
achieves
high
resource
monitoring
order
handle
faulty
make
then
active