Innovative Infrastructure Solutions,
Journal Year:
2025,
Volume and Issue:
10(5)
Published: April 28, 2025
Abstract
Concrete
Compressive
Strength
(CCS)
is
a
critical
parameter
in
structural
engineering,
influencing
durability,
safety,
and
load-bearing
capacity.
This
study
explores
the
classification
of
CCS
using
hybrid
Machine
Learning
(ML)
techniques
an
interactive
Graphical
User
Interface
(GUI).
Advanced
ML
algorithms:
Random
Forest
(RF),
Adaptive-Boosting
(AdaBoost),
Extreme-Gradient-Boosting
(XGBoost),
Light-Gradient
Boosting
(LightGBM),
Categorical-Boosting
(CatBoost)
were
applied
to
categorize
strength
into
Low,
Normal,
High
classes.
The
dataset,
comprising
1298
samples,
was
split
80%
training
20%
testing
for
evaluation.
Hyperparameter
tuning
Bayesian
Optimization
with
fivefold
stratified
cross-validation,
resulting
greatly
improved
model’s
performance.
Results
showed
that
LightGBM
achieved
highest
accuracy,
scores
0.931
(Low),
0.865
(Normal),
0.935
(High),
corresponding
area
under
curve
values
0.967,
0.938,
0.981.
CatBoost
also
performed
well,
particularly
Normal
classes,
while
XGBoost
slight
overfitting
class.
RF
AdaBoost
had
acceptable
performance
but
struggled
boundary
cases.
To
interpret
model
predictions,
SHapley-Additive-exPlanations
(SHAP)
analysis
used.
Curing
duration
cement
content
most
influential
factors
across
all
water
superplasticizer
played
secondary
roles.
Coarse
aggregate
became
more
significant
High-Strength
(HSC).
A
GUI
developed
allow
practitioners
input
data
receive
real-time
classifications,
bridging
gap
between
machine
learning
practical
applications
concrete
design.
Deleted Journal,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 8, 2025
Abstract
Hydraulic
jumps
(HJs)
play
a
vital
role
in
energy
dissipation
hydraulic
systems
and
are
critical
for
the
effective
design
of
water
management
structures.
This
study
employed
Artificial
Neural
Network
(ANN)
Gene
Expression
Programming
(GEP)
models
to
predict
roller
length
ratio
(
L
*
)
HJs
over
rough
beds.
The
analysis
utilized
dataset
367
experimental
observations
with
70–30
training
testing
split.
Comprehensive
data
descriptions
were
conducted,
ensuring
detailed
understanding
inputs,
including
upstream
Froude
number
F
),
initial
sequent
HJ
depth
H
=
h
2
/
1
channel
bed
roughness
K
k
s
).
Descriptive
statistics
revealed
moderate
variability
mostly
symmetric
distributions,
making
suitable
predictive
modeling.
A
sensitivity
was
conducted
confirmed
that
had
highest
influence
on
,
followed
by
.
ANN
model
achieved
R
0.937
0.935,
RMSEs
1.737
1.719,
respectively.
GEP
demonstrated
0.941
0.930,
1.682
1.780.
Both
displayed
reliable
capabilities,
minimal
bias
consistent
performance
unseen
data,
supported
comprehensive
error
distribution
uncertainty
evaluations.
Moreover,
high
level
agreement
prior
research
results,
highlighting
importance
thorough
characterization
validation.
Thus,
have
been
recognized
as
techniques
predicting
jump
length.
Graphical
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: Feb. 20, 2025
Confined
columns,
such
as
round-ended
concrete-filled
steel
tubular
(CFST)
are
integral
to
modern
infrastructure
due
their
high
load-bearing
capacity
and
structural
efficiency.
The
primary
objective
of
this
study
is
develop
accurate,
data-driven
approaches
for
predicting
the
axial
load-carrying
(Pcc)
these
columns
benchmark
performance
against
existing
analytical
solutions.
Using
an
extensive
dataset
200
CFST
stub
column
tests,
research
evaluates
three
machine
learning
(ML)
models
-
LightGBM,
XGBoost,
CatBoost
deep
(DL)
Deep
Neural
Network
(DNN),
Convolutional
(CNN),
Long
Short-Term
Memory
(LSTM).
Key
input
features
include
concrete
strength,
length,
cross-sectional
dimensions,
tube
thickness,
yield
which
were
analysed
uncover
underlying
relationships.
results
indicate
that
delivers
highest
predictive
accuracy,
achieving
RMSE
396.50
kN
R2
0.932,
surpassing
XGBoost
(RMSE:
449.57
kN,
R2:
0.906)
LightGBM
0.916).
less
effective,
with
DNN
attaining
496.19
0.958,
while
LSTM
underperformed
substantially
2010.46
0.891).
SHapley
Additive
exPlanations
(SHAP)
identified
width
most
critical
feature,
contributing
positively
capacity,
length
a
significant
negative
influencer.
A
user-friendly,
Python-based
interface
was
also
developed,
enabling
real-time
predictions
practical
engineering
applications.
Comparison
10
demonstrates
traditional
methods,
though
deterministic,
struggle
capture
nonlinear
interactions
inherent
in
thus
yielding
lower
accuracy
higher
variability.
In
contrast,
presented
here
offer
robust,
adaptable,
interpretable
solutions,
underscoring
potential
transform
design
analysis
practices
ultimately
fostering
safer
more
efficient
systems.
AI in Civil Engineering,
Journal Year:
2025,
Volume and Issue:
4(1)
Published: March 3, 2025
Abstract
Piano
Key
Weir
(PKW)
is
an
advanced
hydraulic
structure
that
enhances
water
discharge
efficiency
and
flood
control
through
its
innovative
design,
which
allows
for
higher
flow
rates
at
lower
upstream
levels.
Accurate
prediction
crucial
PKW
performance
within
various
management
systems.
This
study
assesses
the
efficacy
of
Artificial-Neural-Network
(ANN)
Gene-Expression-Programming
(GEP)
models
in
improving
symmetrical
PKWs.
A
comprehensive
dataset
comprising
476
experimental
records
from
previously
published
studies
was
utilized,
considering
a
range
geometric
fluid
parameters
(PKW
key
widths,
height,
head).
In
training
stage,
ANN
model
demonstrated
superior
determination
coefficient
(R
2
)
0.9997
alongside
Mean
Absolute
Percentage
Error
(MAPE)
0.74%,
whereas
GEP
yielded
R
0.9971
MAPE
2.36%.
subsequent
testing
both
displayed
high
degree
accuracy
comparison
to
data,
attaining
value
0.9376.
Furthermore,
SHapley-Additive-exPlanations
Partial-Dependence-Plot
analyses
were
incorporated,
revealing
head
exerted
greatest
influence
on
prediction,
followed
by
height
width.
Therefore,
these
are
recommended
as
reliable,
robust,
efficient
tools
forecasting
Additionally,
mathematical
expressions
associated
script
codes
developed
this
made
accessible,
thus
providing
engineers
researchers
with
means
perform
rapid
accurate
predictions.
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: March 28, 2025
The
accurate
prediction
of
the
strength
enhancement
ratio
([Formula:
see
text])
and
strain
(εcc/εco)
in
FRP-wrapped
elliptical
concrete
columns
is
crucial
for
optimizing
structural
performance.
This
study
employs
machine
learning
(ML)
techniques
to
enhance
accuracy
reliability.
A
dataset
181
samples,
derived
from
experimental
studies
finite
element
modeling,
was
utilized,
with
a
70:30
train-test
split
(127
training
samples
54
testing
samples).
Four
ML
models:
Decision
Tree
(DT),
Adaptive
Boosting
(ADB),
Stochastic
Gradient
(SGB),
Extreme
(XGB)
were
trained
optimized
using
Bayesian
Optimization
refine
their
hyperparameters
improve
performance.Results
demonstrate
that
SGB
achieved
best
performance
predicting
[Formula:
text],
an
R2
0.850,
lowest
RMSE
(0.190),
highest
generalization
capability,
making
it
most
reliable
model
predictions.
For
(εcc/εco),
XGB
outperformed
other
models,
achieving
0.779
(2.162),
indicating
better
balance
between
accuracy,
generalization,
minimal
overfitting.
DT
ADB
exhibited
lower
predictive
performance,
higher
residual
errors
capacity.
Furthermore,
Shapley
Additive
exPlanations
analysis
identified
FRP
thickness-elastic
modulus
product
(tf
×
Ef)
compressive
as
influential
features
impacting
both
ratios.
To
facilitate
real-world
applications,
interactive
graphical
user
interface
developed,
enabling
engineers
input
ten
parameters
obtain
real-time
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: April 15, 2025
The
current
study
investigates
the
application
of
artificial
intelligence
(AI)
techniques,
including
machine
learning
(ML)
and
deep
(DL),
in
predicting
ultimate
load-carrying
capacity
strain
ofboth
hollow
solid
hybrid
elliptical
fiber-reinforced
polymer
(FRP)-concrete-steel
double-skin
tubular
columns
(DSTCs)
under
axial
loading.
Implemented
AI
techniques
include
five
ML
models
-
Gene
Expression
Programming
(GEP),
Artificial
Neural
Network
(ANN),
Random
Forest
(RF),
Adaptive
Boosting
(ADB),
eXtreme
Gradient
(XGBoost)
one
DL
model
Deep
(DNN).Due
to
scarcity
experimental
data
on
DSTCs,
an
accurate
finite
element
(FE)
was
developed
provide
additional
numerical
insights.
reliability
proposed
nonlinear
FE
validated
against
existing
results.
then
employed
a
parametric
generate
112
points.The
examined
impact
concrete
strength,
cross-sectional
size
inner
steel
tube,
FRP
thickness
both
DSTCs.The
effectiveness
assessed
by
comparing
models'
predictions
with
results.Among
models,
XGBoost
RF
achieved
best
performance
training
testing
respect
determination
coefficient
(R2),
Root
Mean
Square
Error
(RMSE),
Absolute
(MAE)
values.
provided
insights
into
contributions
individual
features
using
SHapley
Additive
exPlanations
(SHAP)
approach.
results
from
SHAP,
based
prediction
model,
indicate
that
area
core
has
most
significant
effect
followed
unconfined
strength
total
multiplied
its
elastic
modulus.
Additionally,
user
interface
platform
streamline
practical
DSTCs.