Advances in computational intelligence and robotics book series,
Journal Year:
2025,
Volume and Issue:
unknown, P. 203 - 226
Published: Feb. 28, 2025
Predictive
techniques
are
increasingly
crucial
in
earthquakes
for
early
warning
and
risk
mitigation
due
to
the
increasing
frequency
impact
of
these
natural
disasters.
Artificial
Intelligence
(AI)
Machine
Learning
(ML)
transforming
earthquake
estimation
as
they
help
analyze
vast
amounts
data,
identify
patterns,
improve
accuracy
prediction.
This
chapter
deals
with
new
AI
ML
approaches
estimating
seismic
activity
that
include
deep
learning
models,
neural
networks,
support
vector
machines.
These
techniques,
contrast,
make
more
precise
predictions
terms
magnitude,
location,
intensity
using
real-time
data
from
sensors,
geological
surveys,
historical
records
earthquakes.
AI-driven
models
provide
faster
computation
adaptability
insights
may
not
be
possible
other
methods.
Data
scarcity
model
validation
uncertainty
challenges
also
discussed
along
future
directions
AI-enhanced
forecasting.
Remote
sensing
is
becoming
a
crucial
technology
in
current
agricultural
practices,
with
several
uses
and
benefits
for
farmers,
researchers
policymakers.
Crop
monitoring
management
are
the
principal
applications
of
remote
agriculture.
allows
rapid
precise
diagnosis
crop
health,
growth
yield
estimation
by
evaluating
data
received
from
satellites
or
airborne
platforms.
This
assists
farmers
optimising
irrigation,
fertilization,
pest
disease
control
measures,
resulting
better
resource
allocation,
enhanced
productivity
lower
environmental
consequences.
The
identification
mapping
diseases
pests
key
application.
may
detect
minute
differences
plant
physiology,
such
as
chlorophyll
content
changes,
which
signal
presence
infestations.
Initial
focused
treatments
precision
pesticide
application,
avoidance
loss
reduction.
Precision
agriculture
relies
heavily
on
sensing.
Farmers
produce
field
maps
that
delineate
soil
qualities,
nutrient
levels,
moisture
integrating
satellite
photography,
GPS
navigation
systems
computer
algorithms.
enables
site-specific
management,
allowing
to
deploy
resources
precisely
where
they
required,
inputs,
lowering
costs
minimising
makes
land-use
planning
easier.
It
can
assist
identifying
potential
sites,
assessing
land
degradation
tracking
changes
cover
use
trends
over
time.
Policymakers
this
make
informed
decisions
about
sustainable
practices
conservation
activities.
helps
water
management.
feasible
monitor
availability,
assess
irrigation
demands
identify
locations
vulnerable
drought
stress
studying
data.
information
more
efficient
distribution,
reducing
waste
improving
water-use
efficiency
has
numerous
agriculture,
revolutionizing
old
farming
practices.
Keywords:
Artificial
intelligence,
sensing,
satellites,
spectral
reflectance,
sustainability
Remote
sensing
is
becoming
a
crucial
technology
in
current
agricultural
practices,
with
several
uses
and
benefits
for
farmers,
researchers,
policymakers.
Crop
monitoring
management
are
the
principal
applications
of
remote
agriculture.
allows
rapid
precise
diagnosis
crop
health,
growth
yield
estimation
by
evaluating
data
received
from
satellites
or
airborne
platforms.
This
assists
farmers
optimising
irrigation,
fertilization,
pest
disease
control
measures,
resulting
better
resource
allocation,
enhanced
productivity
lower
environmental
consequences.
The
identification
mapping
diseases
pests
key
application.
may
detect
minute
differences
plant
physiology,
such
as
chlorophyll
content
changes,
which
signal
presence
infestations.
Initial
focused
treatments
precision
pesticide
application,
avoidance
loss
reduction.
Precision
agriculture
relies
heavily
on
sensing.
Farmers
produce
field
maps
that
delineate
soil
qualities,
nutrient
levels,
moisture
integrating
satellite
photography,
GPS
navigation
systems
computer
algorithms.
enables
site-specific
management,
allowing
to
deploy
resources
precisely
where
they
required,
inputs,
lowering
costs
minimising
makes
land-use
planning
easier.
It
can
assist
identifying
potential
sites,
assessing
land
degradation
tracking
changes
cover
use
trends
over
time.
Policymakers
this
make
informed
decisions
about
sustainable
practices
conservation
activities.
helps
water
management.
feasible
monitor
availability,
assess
irrigation
demands
identify
locations
vulnerable
drought
stress
studying
data.
information
more
efficient
distribution,
reducing
waste
improving
water-use
efficiency
has
numerous
agriculture,
revolutionizing
old
farming
practices.
Keywords:
Artificial
intelligence,
sensing,
Satellites,
Spectral
reflectance,
Sustainability
Scientific Journal of Astana IT University,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 30, 2025
This
study
investigates
the
effectiveness
of
machine
learning
methods
in
identifying
earthquake-prone
areas
Kazakhstan
and
its
neighboring
regions.
By
leveraging
a
comprehensive
dataset
encompassing
significant
earthquake
data
from
1900
to
2023,
various
algorithms
were
employed,
including
RandomForest,
GradientBoosting,
Logistic
Regression,
Support
Vector
Classification
(SVC),
K-Nearest
Neighbors
(KNeighbors),
Decision
Tree,
XGBoost,
LightGBM,
AdaBoost,
MLPClassifier.
The
primary
objective
was
analyze
compare
performance
these
models
predicting
magnitudes
frequencies.
results
reveal
that
certain
significantly
outperformed
others
terms
accuracy,
underscoring
potential
techniques
enhance
prediction
capabilities.
Notably,
XGBoost
RandomForest
demonstrated
highest
predictive
suggesting
their
suitability
for
application
seismic
risk
assessment.
These
findings
offer
valuable
insights
governmental
agencies
engaged
disaster
management
prevention
planning,
highlighting
practical
implications
integrating
advanced
analytical
strategies.
In
addition
model
analysis,
visual
heatmap
generated
illustrate
geographical
distribution
occurrences
across
studied
representation
effectively
identifies
high-risk
areas,
serving
as
crucial
tool
local
authorities
researchers
making
informed
decisions
regarding
safety
measures
emergency
preparedness.
research
contributes
expanding
body
knowledge
on
utilizing
learning,
emphasizing
necessity
continuous
improvement
by
incorporating
additional
environmental
geological
factors.
extend
beyond
academic
discourse,
holding
enhancing
public
regions
vulnerable
activity.
As
such,
this
advocates
integration
methodologies
frameworks
mitigate
risks
preparedness
Applied Sciences,
Journal Year:
2025,
Volume and Issue:
15(7), P. 4013 - 4013
Published: April 5, 2025
Early
warning
systems
(EWSs)
are
crucial
for
optimising
predictive
maintenance
strategies,
especially
in
the
industrial
sector,
where
machine
failures
often
cause
significant
downtime
and
economic
losses.
This
research
details
creation
evaluation
of
an
EWS
that
incorporates
deep
learning
methods,
particularly
using
Long
Short-Term
Memory
(LSTM)
networks
enhanced
with
attention
layers
to
predict
critical
faults.
The
proposed
system
is
designed
process
time-series
data
collected
from
printing
machine’s
embosser
component,
identifying
error
patterns
could
lead
operational
disruptions.
dataset
was
preprocessed
through
feature
selection,
normalisation,
transformation.
A
multi-model
classification
strategy
adopted,
each
LSTM-based
model
trained
detect
a
specific
class
frequent
errors.
Experimental
results
show
can
failure
events
up
10
time
units
advance,
best-performing
achieving
AUROC
0.93
recall
above
90%.
Results
indicate
approach
successfully
predicts
events,
demonstrating
potential
EWSs
powered
by
enhancing
strategies.
By
integrating
artificial
intelligence
real-time
monitoring,
this
study
highlights
how
intelligent
improve
efficiency,
reduce
unplanned
downtime,
optimise
operations.
Advances in computational intelligence and robotics book series,
Journal Year:
2025,
Volume and Issue:
unknown, P. 203 - 226
Published: Feb. 28, 2025
Predictive
techniques
are
increasingly
crucial
in
earthquakes
for
early
warning
and
risk
mitigation
due
to
the
increasing
frequency
impact
of
these
natural
disasters.
Artificial
Intelligence
(AI)
Machine
Learning
(ML)
transforming
earthquake
estimation
as
they
help
analyze
vast
amounts
data,
identify
patterns,
improve
accuracy
prediction.
This
chapter
deals
with
new
AI
ML
approaches
estimating
seismic
activity
that
include
deep
learning
models,
neural
networks,
support
vector
machines.
These
techniques,
contrast,
make
more
precise
predictions
terms
magnitude,
location,
intensity
using
real-time
data
from
sensors,
geological
surveys,
historical
records
earthquakes.
AI-driven
models
provide
faster
computation
adaptability
insights
may
not
be
possible
other
methods.
Data
scarcity
model
validation
uncertainty
challenges
also
discussed
along
future
directions
AI-enhanced
forecasting.