Journal of Multiscale Materials Informatics,
Journal Year:
2024,
Volume and Issue:
1(1), P. 44 - 48
Published: April 29, 2024
This
study
investigates
machine
learning-based
quantitative
structure-property
relationship
(QSPR)
models
for
predicting
the
thermal
stability
of
zinc
metal-organic
frameworks
(Zn-MOF).
Utilizing
a
dataset
comprising
151
Zn-MOF
compounds
with
relevant
molecular
descriptors,
ridge
(R)
and
kernel
(KR)
regression
were
developed
evaluated.
The
results
demonstrate
that
R
model
outperforms
KR
in
terms
prediction
accuracy,
exhibiting
exceptional
performance
(R²
=
0.999,
RMSE
0.0022).
While
achieving
high
opportunities
further
improvement
exist
through
hyperparameter
optimization
exploration
polynomial
functions.
research
underscores
potential
ML-based
QSPR
highlights
avenues
future
investigation
to
enhance
accuracy
applicability
materials
science.
Journal of Multiscale Materials Informatics,
Journal Year:
2024,
Volume and Issue:
1(1), P. 1 - 9
Published: April 29, 2024
Corrosion
in
materials
is
a
significant
concern
for
the
industrial
and
academic
fields
because
corrosion
causes
enormous
losses
various
such
as
economy,
environment,
society,
industry,
security,
safety,
others.
Currently,
material
damage
control
using
organic
compounds
has
become
popular
field
of
study.
Pyridine
quinoline
stand
out
inhibitors
among
myriad
they
are
non-toxic,
inexpensive,
effective
variety
corrosive
environments.
Experimental
investigations
developing
candidate
potential
inhibitor
time
resource-intensive.
In
this
work,
we
use
quantitative
structure-property
relationship
(QSPR)-based
machine
learning
(ML)
approach
to
investigate
support
vector
(SVR),
random
forest
(RF),
k-nearest
neighbors
(KNN)
algorithms
predictive
models
inhibition
performance.
(Inhibition
efficiency)
pyridine-quinoline
derivative
on
iron.
We
found
that
RF
model
showed
best
ability
based
coefficient
determination
(R2)
root
mean
squared
error
(RMSE)
metrics.
Overall,
our
study
provides
new
insights
regarding
ML
predicting
iron
surfaces.
Journal of Multiscale Materials Informatics,
Journal Year:
2024,
Volume and Issue:
1(1), P. 44 - 48
Published: April 29, 2024
This
study
investigates
machine
learning-based
quantitative
structure-property
relationship
(QSPR)
models
for
predicting
the
thermal
stability
of
zinc
metal-organic
frameworks
(Zn-MOF).
Utilizing
a
dataset
comprising
151
Zn-MOF
compounds
with
relevant
molecular
descriptors,
ridge
(R)
and
kernel
(KR)
regression
were
developed
evaluated.
The
results
demonstrate
that
R
model
outperforms
KR
in
terms
prediction
accuracy,
exhibiting
exceptional
performance
(R²
=
0.999,
RMSE
0.0022).
While
achieving
high
opportunities
further
improvement
exist
through
hyperparameter
optimization
exploration
polynomial
functions.
research
underscores
potential
ML-based
QSPR
highlights
avenues
future
investigation
to
enhance
accuracy
applicability
materials
science.