Improving out-of-distribution generalization for online weld expulsion inspection using physics-informed neural networks使用物理信息神经网络改进在线焊缝飞溅检测的分布外泛化
Yu-Jun Xia,
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Qiang Song,
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B Yi
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et al.
Welding in the World,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 9, 2025
Language: Английский
Physics-Informed Machine Learning of Thermal Stress Evolution in Laser Metal Deposition
The minerals, metals & materials series,
Journal Year:
2025,
Volume and Issue:
unknown, P. 550 - 559
Published: Jan. 1, 2025
Language: Английский
Influence of Nozzle Diameter and Gas Flow on Spatter Removal in Laser Powder Bed Fusion: A CFD Approach
Results in Engineering,
Journal Year:
2024,
Volume and Issue:
unknown, P. 103759 - 103759
Published: Dec. 1, 2024
Language: Английский
Review of Recent Additive Manufacturing and Welding Research with Application of Physics-Informed Neural Networks
Taehwan Ko,
No information about this author
H. Kim,
No information about this author
Yeoungcheol Shin
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et al.
Journal of Welding and Joining,
Journal Year:
2024,
Volume and Issue:
42(4), P. 357 - 365
Published: Aug. 29, 2024
This
review
introduces
recent
research
on
applying
physics-informed
neural
networks
(PINNs)
to
additive
manufacturing
and
welding.
PINNs,
which
are
artificial
intelligence
models,
integrate
governing
equations
containing
physical
information
with
networks,
enabling
the
modeling
of
complex
phenomena
at
a
lower
computational
cost
than
traditional
numerical
models.
Although
PINNs
have
been
employed
in
limited
number
studies
welding
processes,
they
extensively
used
various
within
field
manufacturing.
study
reviews
theoretical
background
explore
their
effective
application
examining
12
cases
two
processes.
The
analysis
included
structure
PINN,
equations,
prediction
results
each
study.
Results
indicate
that
provide
faster
computation
speeds
higher
accuracies
Moreover,
could
perform
analyses
without
additional
training
even
when
process
parameters
materials
changed.
Additionally,
effectively
applied
predict
mechanical
properties
molten
zone.
Consequently,
anticipated
be
actively
future
property
prediction.
Language: Английский
Prospective on applying machine learning in computational fluid dynamics (CFD) simulation of metallurgical reactors
Ironmaking & Steelmaking Processes Products and Applications,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Sept. 10, 2024
Metallurgical
reactors,
especially
in
ironmaking/steelmaking
process,
characterise
with
high-temperature
turbulence,
multiphase
flow,
mass/heat
transfer
and
reactions.
Computational
fluid
dynamics
(CFD)
simulation-based
design
optimisation
are
of
significance
for
efficient
metallurgical
performance.
However,
the
difficulty
cost
to
numerically
solve
nonlinear
controlling
equations
combined
data
pre/post-processing
make
whole
CFD
simulation
process
time-consuming,
which
makes
it
challenging
provide
in-time
feedback
industrial
practices.
The
popularisation
prosperous
development
machine
learning
bring
new
opportunities
promoting
Discussion
has
been
made
on
current
research
progress
applying
workflow
including
pre-processing,
solving,
post-processing.
Among
them,
time
consumed
by
manual
pre-processing
exceeds
50%
tasks
general.
or
parametric
modelling
methods
can
reduce
three
orders
estimate.
solving
step
is
expected
be
accelerated
5
1000
times
using
learning.
A
brief
review
coupled
provided,
as
a
prospective
its
development.
presented
main
functions,
challenges,
typical
techniques
future
directions
purpose
making
faster,
more
accurate,
better
visualised
based
Language: Английский