Applied Computational Intelligence and Soft Computing,
Journal Year:
2024,
Volume and Issue:
2024(1)
Published: Jan. 1, 2024
The
nonlinear
sine‐Gordon
equation
is
a
prevalent
feature
in
numerous
scientific
and
engineering
problems.
In
this
paper,
we
propose
machine
learning‐based
approach,
physics‐informed
neural
networks
(PINNs),
to
investigate
explore
the
solution
of
generalized
non‐linear
equation,
encompassing
Dirichlet
Neumann
boundary
conditions.
To
incorporate
physical
information
for
multiobjective
loss
function
has
been
defined
consisting
residual
governing
partial
differential
(PDE),
initial
conditions,
various
Using
multiple
densely
connected
independent
artificial
(ANNs),
called
feedforward
deep
designed
handle
equations,
PINNs
have
trained
through
automatic
differentiation
minimize
that
incorporates
given
PDE
governs
laws
phenomena.
illustrate
effectiveness,
validity,
practical
implications
our
proposed
two
computational
examples
from
are
presented.
We
developed
PINN
algorithm
implemented
it
using
Python
software.
Various
experiments
were
conducted
determine
an
optimal
architecture.
network
training
was
employed
by
current
state‐of‐the‐art
optimization
methods
learning
known
as
Adam
L‐BFGS‐B
minimization
techniques.
Additionally,
solutions
method
compared
with
established
analytical
found
literature.
findings
show
approach
accurate
efficient
solving
equations
variety
conditions
well
any
complex
problems
across
disciplines.
Engineering Applications of Artificial Intelligence,
Journal Year:
2023,
Volume and Issue:
127, P. 107302 - 107302
Published: Nov. 8, 2023
Glacio-hydrological
modeling
is
a
key
task
for
assessing
the
influence
of
snow
and
glaciers
on
water
resources,
essential
resources
management.
The
present
study
aims
to
enhance
conceptual
hydrological
model
(namely
Glacial
Snow
Melt
(GSM))
by
data-driven
swarm
computing
enhancing
accuracy
rainfall
runoff
prediction.
proposed
framework
combines
(i.e.
GSM)
with
time
series
predictor
(SVR)
optimization-driven
parameter
tuning
firefly
algorithm
(SVR-FFA).
This
integration
uniquely
captures
complex
interplay
between
meteorological
variables,
glacier
processes,
responses.
Applying
hybrid
proved
better
results
than
standalone
GSM
ordinary
SVR
in
simulating
series.
performance
integrated
metaheuristic-based
(W-SG-SVR-FFA)
demonstrated
several
enhancements
over
model.
During
calibration
(validation)
period,
evaluation
metric
coefficient
determination
(R2)
was
0.77
(0.77)
0.98
(0.91)
W-SG-SVR-FFA
Kling-Gupta
Efficiency
(KGE)
values
were
0.81
0.97
(0.87),
respectively.
method
glacierized
catchments
underscores
its
importance
areas
undergoing
swift
climate
change
glacial
melting.
approach
enables
readers
witness
intricate
equilibrium
model's
complexity
simulation
outcomes.
npj Computational Materials,
Journal Year:
2023,
Volume and Issue:
9(1)
Published: Dec. 13, 2023
Abstract
The
design
of
materials
and
identification
optimal
processing
parameters
constitute
a
complex
challenging
task,
necessitating
efficient
utilization
available
data.
Bayesian
Optimization
(BO)
has
gained
popularity
in
due
to
its
ability
work
with
minimal
However,
many
BO-based
frameworks
predominantly
rely
on
statistical
information,
the
form
input-output
data,
assume
black-box
objective
functions.
In
practice,
designers
often
possess
knowledge
underlying
physical
laws
governing
material
system,
rendering
function
not
entirely
black-box,
as
some
information
is
partially
observable.
this
study,
we
propose
physics-informed
BO
approach
that
integrates
physics-infused
kernels
effectively
leverage
both
decision-making
process.
We
demonstrate
method
significantly
improves
efficiency
enables
more
data-efficient
BO.
applicability
showcased
through
NiTi
shape
memory
alloys,
where
are
identified
maximize
transformation
temperature.
Industrial & Engineering Chemistry Research,
Journal Year:
2023,
Volume and Issue:
62(44), P. 18178 - 18204
Published: Oct. 26, 2023
Physics-Informed
Machine
Learning
(PIML)
is
an
emerging
computing
paradigm
that
offers
a
new
approach
to
tackle
multiphysics
modeling
problems
prevalent
in
the
field
of
chemical
engineering.
These
often
involve
complex
transport
processes,
nonlinear
reaction
kinetics,
and
coupling.
This
Review
provides
detailed
account
main
contributions
PIML
with
specific
emphasis
on
momentum
transfer,
heat
mass
reactions.
The
progress
method
development
(e.g.,
algorithm
architecture),
software
libraries,
applications
coupling
surrogate
modeling)
are
detailed.
On
this
basis,
future
challenges
highlight
importance
developing
more
practical
solutions
strategies
for
PIML,
including
turbulence
models,
domain
decomposition,
training
acceleration,
modeling,
hybrid
geometry
module
creation.