Physics-informed modeling of splitting tensile strength of recycled aggregate concrete using advanced machine learning
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: Feb. 28, 2025
Physics-informed
modeling
(PIM)
using
advanced
machine
learning
(ML)
represents
a
paradigm
shift
in
the
field
of
concrete
technology,
offering
potent
blend
scientific
rigor
and
computational
efficiency.
By
harnessing
synergies
between
physics-based
principles
data-driven
algorithms,
PIM-ML
not
only
streamlines
design
process
but
also
enhances
reliability
sustainability
structures.
As
research
continues
to
refine
these
models
validate
their
performance,
adoption
promises
revolutionize
how
materials
are
engineered,
tested,
utilized
construction
projects
worldwide.
In
this
work,
an
extensive
literature
review,
which
produced
global
representative
database
for
splitting
tensile
strength
(Fsp)
recycled
aggregate
concrete,
was
indulged.
The
studied
components
such
as
C,
W,
NCAg,
PL,
RCAg_D,
RCAg_P,
RCAg_wa,
Vf,
F_type
were
measured
tabulated.
collected
257
records
partitioned
into
training
set
200
(80%)
validation
57
(20%)
line
with
more
reliable
partitioning
database.
Five
techniques
created
"Weka
Data
Mining"
software
version
3.8.6
applied
predict
Fsp
Hoffman
&
Gardener
method
performance
metrics
used
evaluate
sensitivity
variables
ML
models,
respectively.
results
show
Kstar
model
demonstrates
highest
level
among
achieving
exceptional
accuracy
R2
0.96
Accuracy
94%.
Its
RMSE
MAE
both
low
at
0.15
MPa,
indicating
minimal
deviations
predicted
actual
values.
Additional
WI
(0.99),
NSE
(0.96),
KGE
(0.96)
further
confirm
model's
superior
efficiency
consistent
making
it
most
dependable
tool
practical
applications.
Also
analysis
shows
that
Water
content
(W)
exerts
significant
impact
40%,
demonstrating
amount
water
mix
is
critical
factor
optimal
strength.
This
underscores
need
careful
management
balance
workability
sustainable
production.
Coarse
natural
(NCAg)
has
substantial
38%,
its
essential
role
maintaining
structural
integrity
mix.
Language: Английский
Machine Learning Prediction Model Integrating Experimental Study for Compressive Strength of Carbon-Nanotubes Composites
Journal of Engineering Research,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Sept. 1, 2024
Language: Английский
Machine Learning Prediction of Recycled Concrete Powder with Experimental validation and Life Cycle Assessment study
Case Studies in Construction Materials,
Journal Year:
2024,
Volume and Issue:
21, P. e04053 - e04053
Published: Nov. 28, 2024
Language: Английский
Multi-targeted strength properties of recycled aggregate concrete through a machine learning approach
Engineering Computations,
Journal Year:
2024,
Volume and Issue:
42(1), P. 388 - 430
Published: Nov. 22, 2024
Purpose
Rapid
industrialization
and
construction
generate
substantial
concrete
waste,
leading
to
significant
environmental
issues.
Nearly
10
billion
metric
tonnes
of
waste
are
produced
globally
per
year.
In
addition,
also
accelerates
the
consumption
natural
resources,
depletion
these
resources.
Therefore,
this
study
uses
artificial
intelligence
(AI)
examine
utilization
recycled
aggregate
(RCA)
in
concrete.
Design/methodology/approach
An
extensive
database
583
data
points
collected
from
literature
for
predictive
modeling.
Four
machine
learning
algorithms,
namely
neural
network
(ANN),
random
forest
(RF),
ridge
regression
(RR)
least
adjacent
shrinkage
selection
operator
(LASSO)
(LR),
predicting
simultaneously
compressive
tensile
strength
were
evaluated.
The
dataset
contains
independent
variables
two
dependent
variables.
Statistical
parameters,
including
coefficient
determination
(R
2
),
mean
square
error
(MSE),
absolute
(MAE)
root
(RMSE),
employed
assess
accuracy
algorithms.
K-fold
cross-validation
was
validate
obtained
results,
SHapley
Additive
exPlanations
(SHAP)
analysis
applied
identify
most
sensitive
parameters
out
input
parameters.
Findings
results
indicate
that
RF
prediction
model
performance
is
better
more
satisfactory
than
other
Furthermore,
ANN
algorithm
ranks
as
second
accurate
algorithm.
However,
RR
LR
exhibit
poor
findings
with
low
accuracy.
successfully
SHAP
indicates
cement
content
percentages
effective
parameter.
special
attention
should
be
given
enhance
performance.
Originality/value
This
uniquely
applies
AI
optimize
use
RCA
production.
By
evaluating
four
ANN,
RF,
on
a
comprehensive
dataset,
identities
models
strength.
determine
key
result
validation
adds
robustness.
highlight
superior
provide
actionable
insights
into
enhancing
RCA,
contributing
sustainable
practice.
Language: Английский
AI-based constitutive model simulator for predicting the axial load-deflection behavior of recycled concrete powder and steel fiber reinforced concrete column
Construction and Building Materials,
Journal Year:
2025,
Volume and Issue:
470, P. 140628 - 140628
Published: March 3, 2025
Language: Английский
Predicting the strengths of basalt fiber reinforced concrete mixed with fly ash using AML and Hoffman and Gardener techniques
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: April 9, 2025
Basalt
fiber-reinforced
concrete
(BFRC)
mixed
with
fly
ash,
combined
advanced
machine
learning
techniques,
offers
a
practical,
cost-effective,
and
less
time-consuming
alternative
to
traditional
experimental
methods.
Conventional
approaches
evaluating
mechanical
properties,
such
as
compressive
splitting
tensile
strengths,
typically
require
sophisticated
equipment,
meticulous
sample
preparation,
extended
testing
periods.
These
methods
demand
substantial
financial
resources,
specialized
labor,
considerable
time
for
data
collection
analysis.
The
integration
of
provides
transformative
solution
by
enabling
accurate
prediction
properties
minimal
data.
from
literature
analysis
were
used
121
records
collected
experimentally
tested
basalt
fiber
reinforced
samples
measuring
the
strengths
concrete.
Eleven
(11)
critical
factors
have
been
considered
constituents
studied
predict
Fc-Compressive
strength
(MPa)
Fsp-Splitting
(MPa),
which
are
output
parameters.
divided
into
training
set
(96
=
80%)
validation
(25
20%)
following
requirements
partitioning
sustainable
application.
Seven
(7)
selected
techniques
applied
in
prediction.
Further,
performance
evaluation
indices
compare
models'
abilities
lastly,
Hoffman
Gardener's
technique
was
evaluate
sensitivity
parameters
on
strengths.
At
end
exercise,
results
collated.
In
predicting
(Fc),
AdaBoost
similarly
excels,
matching
XGBoosting's
R2
0.98
same
MAE
values.
This
shows
effectiveness
boosting
predictive
modeling
estimation.
For
(Fsp),
also
outperforms
most
models,
achieving
an
0.96
phases.
Its
exceptionally
low
0.124
MPa
underscores
its
excellent
generalization
capabilities.
Overall,
XGBoosting
consistently
demonstrate
superior
both
predictions,
followed
closely
KNN.
models
benefit
ensemble
that
efficiently
handle
non-linear
patterns
noise.
SVR
performs
admirably,
whereas
GEP
GMDHNN
exhibit
weaker
capabilities
due
limitations
handling
complex
dynamics.
analysis,
method
proves
instrumental
identifying
key
drivers
concrete,
guiding
informed
decision-making
material
optimization
construction
practices.
Language: Английский
Mechanical properties of self compacting concrete reinforced with hybrid fibers and industrial wastes under elevated heat treatment
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: April 13, 2025
Machine
learning
prediction
of
the
mechanical
properties
self-compacting
concrete
(SCC)
reinforced
with
hybrid
fibers,
incorporating
industrial
wastes
like
fly
ash
and
blast
furnace
slag,
cured
under
elevated
heat
provides
a
reliable
efficient
alternative
to
traditional
laboratory
experiments.
In
this
work,
extensive
literature
review
leading
collection,
sorting
curation
global
database
representative
fiber
mixed
for
sustainable
construction
was
conducted.
The
collected
constituted
components
admixtures
such
as
Cement
(C),
Fly
(FA),
Slag
(BFS),
Fine
Aggregate
(FAg),
Coarse
(CAg),
Water
(W),
Superplasticizer
(PL),
Fiber
(Fi),
Temperature
(Temp.)
studied
Compressive
Strength
(Fc),
Tensile
(Fsp),
Flexural
(Ff).
114
records
were
divided
into
training
set
(90
=
80%)
validation
(24
20%)
following
guidelines
data
partitioning
optimal
performance
in
machine
predictions.
Different
advanced
methods
created
using
"Weka
Data
Mining"
software
version
3.8.6
applied
"Semi-supervised
classifier
(Kstar)",
"M5
(M5Rules),
"Elastic
net
(ElasticNet),
"Correlated
Nystrom
Views
(XNV)",
"Decision
Table
(DT)"
predict
output.
Hoffman/Gardener
SHAP
techniques
are
used
estimate
sensitivity
input
parameter
on
Finally,
various
metrics
evaluate
reliability
models.
results
show
that
models
varying
degrees
predictive
accuracy,
Kstar
XNV
consistently
outperforming
others
across
all
properties.
However,
accuracies
96.5%,
96.0%,
97.0%
Fc,
Fsp,
Ff
predictions,
respectively
proposed
most
decisive
model.
Also,
Hoffman
Gardener
method
highlights
role
binders,
chemical
additives,
curing,
whereas
attributes
greater
importance
aggregates
binder
interactions.
Language: Английский
An empirical review of sustainable alternatives in concrete using sugarcane bagasse ash, copper slag, and eggshell powder
Sagar W. Dhengare,
No information about this author
U. P. Waghe
No information about this author
Multiscale and Multidisciplinary Modeling Experiments and Design,
Journal Year:
2025,
Volume and Issue:
8(6)
Published: April 18, 2025
Language: Английский
Optimizing superelastic shape-memory alloy fibers for enhancing the pullout performance in engineered cementitious composites
Science and Engineering of Composite Materials,
Journal Year:
2024,
Volume and Issue:
31(1)
Published: Jan. 1, 2024
Abstract
This
study
explores
the
effect
of
integrated
superelastic
shape-memory
alloy
fibers
(SMAFs)
on
mechanical
performance
engineered
cementitious
composites
(ECCs).
Various
SMAF
configurations
–
linear-shaped
SMAFs
(LS-SMAFs),
hook-shaped
(HS-SMAFs),
and
indented-shaped
(IS-SMAFs)
with
diameters
0.8
1.0
mm
were
incorporated
into
ECC
matrices,
surface
texturization
was
achieved
through
abrasive
paper
treatment.
Their
properties
assessed
single
fiber
pullout
tests
mixtures
containing
1.5
2.0%
polyvinyl
alcohol
(PVA),
subjected
to
both
monotonic
cyclic
loading
conditions.
Qualitative
analysis,
employing
scanning
electron
microscopy,
demonstrated
that
IS-SMAF
configuration
provided
superior
interlocking
fiber–matrix
adhesion,
a
distinct
flag
shape
observed
during
tensile
testing.
Quantitative
data
indicated
IS-SMAFs
significantly
improved
strength
resistance,
slip
distances
≥5
average
loads
ranging
from
263
403
N.
LS-SMAFs
better
compared
HS-SMAFs
in
terms
characteristics.
Additionally,
ECCs
increased
PVA
content
exhibited
enhanced
withdrawal
performance.
Thermogravimetry
analysis
X-ray
diffraction
insights
high-temperature
stability
crystalline
structure
composites.
These
results
underscore
effectiveness
enhancing
properties,
offering
significant
implications
for
development
optimization
high-performance
composite
materials
civil
engineering
applications.
Language: Английский