Environmental Data Science,
Journal Year:
2025,
Volume and Issue:
4
Published: Jan. 1, 2025
Abstract
Prediction
of
dynamic
environmental
variables
in
unmonitored
sites
remains
a
long-standing
challenge
for
water
resources
science.
The
majority
the
world’s
freshwater
have
inadequate
monitoring
critical
needed
management.
Yet,
need
to
widespread
predictions
hydrological
such
as
river
flow
and
quality
has
become
increasingly
urgent
due
climate
land
use
change
over
past
decades,
their
associated
impacts
on
resources.
Modern
machine
learning
methods
outperform
process-based
empirical
model
counterparts
hydrologic
time
series
prediction
with
ability
extract
information
from
large,
diverse
data
sets.
We
review
relevant
state-of-the
art
applications
streamflow,
quality,
other
discuss
opportunities
improve
emerging
incorporating
watershed
characteristics
process
knowledge
into
classical,
deep
learning,
transfer
methodologies.
analysis
here
suggests
most
prior
efforts
been
focused
frameworks
built
many
at
daily
scales
United
States,
but
that
comparisons
between
different
classes
are
few
inadequate.
identify
several
open
questions
include
inputs
site
characteristics,
mechanistic
understanding
spatial
context,
explainable
AI
techniques
modern
frameworks.
Machine Learning and Knowledge Extraction,
Journal Year:
2023,
Volume and Issue:
5(1), P. 78 - 108
Published: Jan. 11, 2023
Currently,
explainability
represents
a
major
barrier
that
Artificial
Intelligence
(AI)
is
facing
in
regard
to
its
practical
implementation
various
application
domains.
To
combat
the
lack
of
understanding
AI-based
systems,
Explainable
AI
(XAI)
aims
make
black-box
models
more
transparent
and
comprehensible
for
humans.
Fortunately,
plenty
XAI
methods
have
been
introduced
tackle
problem
from
different
perspectives.
However,
due
vast
search
space,
it
challenging
ML
practitioners
data
scientists
start
with
development
software
optimally
select
most
suitable
methods.
this
challenge,
we
introduce
XAIR,
novel
systematic
metareview
promising
tools.
XAIR
differentiates
itself
existing
reviews
by
aligning
results
five
steps
process,
including
requirement
analysis,
design,
implementation,
evaluation,
deployment.
Through
mapping,
aim
create
better
individual
developing
foster
creation
real-world
applications
incorporate
explainability.
Finally,
conclude
highlighting
new
directions
future
research.
The Innovation,
Journal Year:
2024,
Volume and Issue:
5(5), P. 100691 - 100691
Published: Aug. 23, 2024
Public
summary•What
does
AI
bring
to
geoscience?
has
been
accelerating
and
deepening
our
understanding
of
Earth
Systems
in
an
unprecedented
way,
including
the
atmosphere,
lithosphere,
hydrosphere,
cryosphere,
biosphere,
anthroposphere
interactions
between
spheres.•What
are
noteworthy
challenges
As
we
embrace
huge
potential
geoscience,
several
arise
reliability
interpretability,
ethical
issues,
data
security,
high
demand
cost.•What
is
future
The
synergy
traditional
principles
modern
AI-driven
techniques
holds
immense
promise
will
shape
trajectory
geoscience
upcoming
years.AbstractThis
paper
explores
evolution
geoscientific
inquiry,
tracing
progression
from
physics-based
models
data-driven
approaches
facilitated
by
significant
advancements
artificial
intelligence
(AI)
collection
techniques.
Traditional
models,
which
grounded
physical
numerical
frameworks,
provide
robust
explanations
explicitly
reconstructing
underlying
processes.
However,
their
limitations
comprehensively
capturing
Earth's
complexities
uncertainties
pose
optimization
real-world
applicability.
In
contrast,
contemporary
particularly
those
utilizing
machine
learning
(ML)
deep
(DL),
leverage
extensive
glean
insights
without
requiring
exhaustive
theoretical
knowledge.
ML
have
shown
addressing
science-related
questions.
Nevertheless,
such
as
scarcity,
computational
demands,
privacy
concerns,
"black-box"
nature
hinder
seamless
integration
into
geoscience.
methodologies
hybrid
presents
alternative
paradigm.
These
incorporate
domain
knowledge
guide
methodologies,
demonstrate
enhanced
efficiency
performance
with
reduced
training
requirements.
This
review
provides
a
comprehensive
overview
research
paradigms,
emphasizing
untapped
opportunities
at
intersection
advanced
It
examines
major
showcases
advances
large-scale
discusses
prospects
that
landscape
outlines
dynamic
field
ripe
possibilities,
poised
unlock
new
understandings
further
advance
exploration.Graphical
abstract
Earth s Future,
Journal Year:
2024,
Volume and Issue:
12(7)
Published: July 1, 2024
Abstract
Interpretable
Machine
Learning
(IML)
has
rapidly
advanced
in
recent
years,
offering
new
opportunities
to
improve
our
understanding
of
the
complex
Earth
system.
IML
goes
beyond
conventional
machine
learning
by
not
only
making
predictions
but
also
seeking
elucidate
reasoning
behind
those
predictions.
The
combination
predictive
power
and
enhanced
transparency
makes
a
promising
approach
for
uncovering
relationships
data
that
may
be
overlooked
traditional
analysis.
Despite
its
potential,
broader
implications
field
have
yet
fully
appreciated.
Meanwhile,
rapid
proliferation
IML,
still
early
stages,
been
accompanied
instances
careless
application.
In
response
these
challenges,
this
paper
focuses
on
how
can
effectively
appropriately
aid
geoscientists
advancing
process
understanding—areas
are
often
underexplored
more
technical
discussions
IML.
Specifically,
we
identify
pragmatic
application
scenarios
typical
geoscientific
studies,
such
as
quantifying
specific
contexts,
generating
hypotheses
about
potential
mechanisms,
evaluating
process‐based
models.
Moreover,
present
general
practical
workflow
using
address
research
questions.
particular,
several
critical
common
pitfalls
use
lead
misleading
conclusions,
propose
corresponding
good
practices.
Our
goal
is
facilitate
broader,
careful
thoughtful
integration
into
science
research,
positioning
it
valuable
tool
capable
enhancing
current
Scientific Reports,
Journal Year:
2024,
Volume and Issue:
14(1)
Published: March 29, 2024
Abstract
The
consumption
of
water
constitutes
the
physical
health
most
living
species
and
hence
management
its
purity
quality
is
extremely
essential
as
contaminated
has
to
potential
create
adverse
environmental
consequences.
This
creates
dire
necessity
measure,
control
monitor
water.
primary
contaminant
present
in
Total
Dissolved
Solids
(TDS),
which
hard
filter
out.
There
are
various
substances
apart
from
mere
solids
such
potassium,
sodium,
chlorides,
lead,
nitrate,
cadmium,
arsenic
other
pollutants.
proposed
work
aims
provide
automation
estimation
through
Artificial
Intelligence
uses
Explainable
(XAI)
for
explanation
significant
parameters
contributing
towards
potability
impurities.
XAI
transparency
justifiability
a
white-box
model
since
Machine
Learning
(ML)
black-box
unable
describe
reasoning
behind
ML
classification.
models
Logistic
Regression,
Support
Vector
(SVM),
Gaussian
Naive
Bayes,
Decision
Tree
(DT)
Random
Forest
(RF)
classify
whether
drinkable.
representations
force
plot,
test
patch,
summary
dependency
plot
decision
generated
SHAPELY
explainer
explain
features,
prediction
score,
feature
importance
justification
estimation.
RF
classifier
selected
yields
optimum
Accuracy
F1-Score
0.9999,
with
Precision
Re-call
0.9997
0.998
respectively.
Thus,
an
exploratory
analysis
indicators
associated
their
significance.
emerging
research
at
vision
addressing
future
well.
Water,
Journal Year:
2024,
Volume and Issue:
16(3), P. 472 - 472
Published: Jan. 31, 2024
Water
resource
modeling
is
an
important
means
of
studying
the
distribution,
change,
utilization,
and
management
water
resources.
By
establishing
various
models,
resources
can
be
quantitatively
described
predicted,
providing
a
scientific
basis
for
management,
protection,
planning.
Traditional
hydrological
observation
methods,
often
reliant
on
experience
statistical
are
time-consuming
labor-intensive,
frequently
resulting
in
predictions
limited
accuracy.
However,
machine
learning
technologies
enhance
efficiency
sustainability
by
analyzing
extensive
hydrogeological
data,
thereby
improving
optimizing
utilization
allocation.
This
review
investigates
application
predicting
aspects,
including
precipitation,
flood,
runoff,
soil
moisture,
evapotranspiration,
groundwater
level,
quality.
It
provides
detailed
summary
algorithms,
examines
their
technical
strengths
weaknesses,
discusses
potential
applications
modeling.
Finally,
this
paper
anticipates
future
development
trends
to
Hydrology,
Journal Year:
2022,
Volume and Issue:
9(12), P. 226 - 226
Published: Dec. 13, 2022
Streamflow
forecasting
in
mountainous
catchments
is
and
will
continue
to
be
one
of
the
important
hydrological
tasks.
In
recent
years
machine
learning
models
are
increasingly
used
for
such
forecasts.
A
direct
comparison
use
three
gradient
boosting
(XGBoost,
LightGBM
CatBoost)
forecast
daily
streamflow
catchment
our
main
contribution.
As
predictors
we
precipitation,
runoff
at
upstream
gauge
station
two-day
preceding
observations.
All
algorithms
simple
implement
Python,
fast
robust.
Compared
deep
(like
LSTM),
they
allow
easy
interpretation
significance
predictors.
tested
achieved
Nash-Sutcliffe
model
efficiency
(NSE)
range
0.85–0.89
RMSE
6.8–7.8
m3s−1.
minimum
12
training
data
series
required
a
result.
The
XGBoost
did
not
turn
out
best
forecast,
although
it
most
popular
model.
Using
default
parameters,
results
were
obtained
with
CatBoost.
By
optimizing
hyperparameters,
by
LightGBM.
differences
between
much
smaller
than
within
themselves
when
suboptimal
hyperparameters
used.
Artificial Intelligence in Agriculture,
Journal Year:
2022,
Volume and Issue:
6, P. 257 - 265
Published: Jan. 1, 2022
Artificial
intelligence
and
machine
learning
have
been
increasingly
applied
for
prediction
in
agricultural
science.
However,
many
models
are
typically
black
boxes,
meaning
we
cannot
explain
what
the
learned
from
data
reasons
behind
predictions.
To
address
this
issue,
I
introduce
an
emerging
subdomain
of
artificial
intelligence,
explainable
(XAI),
associated
toolkits,
interpretable
learning.
This
study
demonstrates
usefulness
several
methods
by
applying
them
to
openly
available
dataset.
The
dataset
includes
no-tillage
effect
on
crop
yield
relative
conventional
tillage
soil,
climate,
management
variables.
Data
analysis
discovered
that
can
increase
maize
where
is
<5000
kg/ha
maximum
temperature
higher
than
32°.
These
useful
answer
(i)
which
variables
important
regression/classification,
(ii)
variable
interactions
prediction,
(iii)
how
their
with
response
variable,
(iv)
underlying
a
predicted
value
certain
instance,
(v)
whether
different
algorithms
offer
same
these
questions.
argue
goodness
model
fit
overly
evaluated
performance
measures
current
practice,
while
questions
unanswered.
XAI
enhance
trust
explainability
AI.
Water,
Journal Year:
2023,
Volume and Issue:
15(9), P. 1750 - 1750
Published: May 2, 2023
Developing
precise
soft
computing
methods
for
groundwater
management,
which
includes
quality
and
quantity,
is
crucial
improving
water
resources
planning
management.
In
the
past
20
years,
significant
progress
has
been
made
in
management
using
hybrid
machine
learning
(ML)
models
as
artificial
intelligence
(AI).
Although
various
review
articles
have
reported
advances
this
field,
existing
literature
must
cover
ML.
This
article
aims
to
understand
current
state-of-the-art
ML
used
achievements
domain.
It
most
cited
employed
from
2009
2022.
summarises
reviewed
papers,
highlighting
their
strengths
weaknesses,
performance
criteria
employed,
highly
identified.
worth
noting
that
accuracy
was
significantly
enhanced,
resulting
a
substantial
improvement
demonstrating
robust
outcome.
Additionally,
outlines
recommendations
future
research
directions
enhance
of
including
prediction
related
knowledge.