Materials Research Express,
Год журнала:
2024,
Номер
11(12), С. 122002 - 122002
Опубликована: Дек. 1, 2024
Abstract
Architected
structures
and
metamaterials
have
attracted
the
attention
of
scientists
engineers
due
to
contrast
in
behavior
compared
base
material
they
are
made
from.
This
interest
within
scientific
engineering
community
has
lead
use
computational
tools
accelerate
design,
optimization,
discovery
architected
metamaterials.
A
tool
that
gained
popularity
recent
years
is
artificial
intelligence
(AI).
There
several
AI
algorithms
as
many
been
used
field
for
different
objectives
with
degrees
success.
Then,
this
review
we
identify
study
metamaterials,
purpose
using
AI,
discuss
their
advantages
disadvantages.
Additionally,
trends
usage
particular
identified.
Finally,
perspectives
regarding
new
directions
areas
opportunity
presented.
Materials & Design,
Год журнала:
2023,
Номер
232, С. 112103 - 112103
Опубликована: Июль 4, 2023
This
paper
investigates
the
feasibility
of
data-driven
methods
in
automating
engineering
design
process,
specifically
studying
inverse
cellular
mechanical
metamaterials.
Traditional
designing
materials
typically
rely
on
trial
and
error
or
iterative
optimization,
which
often
leads
to
limited
productivity
high
computational
costs.
While
approaches
have
been
explored
for
materials,
many
these
lack
robustness
fail
consider
manufacturability
generated
structures.
study
aims
develop
an
efficient
methodology
that
accurately
generates
metamaterial
while
ensuring
predicted
To
achieve
this,
we
created
a
comprehensive
dataset
spans
broad
range
properties
by
applying
rotations
cubic
structures
synthesized
from
nine
symmetries
materials.
We
then
employ
physics-guided
neural
network
(PGNN)
consisting
dual
networks:
generator
network,
serves
as
tool,
forward
acts
simulator.
The
goal
is
match
desired
anisotropic
stiffness
components
with
unit-cell
parameters.
results
our
model
are
analyzed
using
three
distinct
datasets
demonstrate
efficiency
prediction
accuracy
compared
conventional
methods.
Journal of Applied Mechanics,
Год журнала:
2023,
Номер
91(3)
Опубликована: Окт. 5, 2023
Abstract
3D/4D
printing
offers
significant
flexibility
in
manufacturing
complex
structures
with
a
diverse
range
of
mechanical
responses,
while
also
posing
critical
needs
tackling
challenging
inverse
design
problems.
The
rapidly
developing
machine
learning
(ML)
approach
new
opportunities
and
has
attracted
interest
the
field.
In
this
perspective
paper,
we
highlight
recent
advancements
utilizing
ML
for
designing
printed
desired
responses.
First,
provide
an
overview
common
forward
problems,
relevant
types
structures,
space
responses
printing.
Second,
review
works
that
have
employed
variety
approaches
different
ranging
from
structural
properties
to
active
shape
changes.
Finally,
briefly
discuss
main
challenges,
summarize
existing
potential
approaches,
extend
discussion
broader
problems
field
This
paper
is
expected
foundational
guides
insights
into
application
design.
European Journal of Mechanics - A/Solids,
Год журнала:
2024,
Номер
105, С. 105242 - 105242
Опубликована: Янв. 18, 2024
During
the
last
few
decades,
industries
such
as
aerospace
and
wind
energy
(among
others)
have
been
remarkably
influenced
by
introduction
of
high-performance
composites.
One
challenge,
however,
for
modeling
designing
composites
is
lack
computational
efficiency
accurate
high-fidelity
models.
For
design
purposes,
using
conventional
optimization
approaches
typically
results
in
cumbersome
procedures
due
to
huge
dimensions
space
high
expense
full-field
simulations.
In
recent
years,
deep
learning
techniques
found
be
promising
methods
increase
robustness
a
variety
algorithms
multi-scale
this
perspective
paper,
short
overview
developments
micromechanics-based
machine
given.
More
importantly,
existing
challenges
further
model
enhancements
future
perspectives
field
development
are
elaborated.
Materials & Design,
Год журнала:
2024,
Номер
243, С. 113055 - 113055
Опубликована: Май 31, 2024
This
paper
introduces
a
novel
approach,
namely
Variable-Periodic
Voronoi
Tessellation
(VPVT),
for
the
bio-inspired
design
of
porous
structures.
The
method
utilizes
distributed
points
defined
by
variable-periodic
function
to
generate
tessellation
patterns,
aligning
with
wide
diversity
artificial
or
natural
cellular
In
this
VPVT
method,
truss-based
architecture
can
be
fully
characterized
variables,
such
as
frequency
factors,
thickness
factors.
approach
enables
optimal
structures
both
mechanical
performance
and
functionality.
varied,
anisotropic
cell
shapes
sizes
provide
significantly
greater
flexibility
compared
typical
isotropic
addition,
not
only
micro-macro
multiscale
materials,
but
is
also
applicable
meso-macro
scale
structures,
constructions,
biomedical
implants,
aircraft
frameworks.
work
employs
Surrogate-assisted
Differential
Evolution
(SaDE)
perform
optimization
process.
Numerical
examples
experiments
validate
that
proposed
achieves
about
51.1%
47.8%
improvement
in
compliance
damage
strength,
respectively,
than
existing
studies.
Computational Mechanics,
Год журнала:
2025,
Номер
unknown
Опубликована: Фев. 19, 2025
Abstract
Tailoring
materials
to
achieve
a
desired
behavior
in
specific
applications
is
of
significant
scientific
and
industrial
interest
as
design
key
driver
innovation.
Overcoming
the
rather
slow
expertise-bound
traditional
forward
approaches
trial
error,
inverse
attracting
substantial
attention.
Targeting
property,
model
proposes
candidate
structure
with
property.
This
concept
can
be
particularly
well
applied
field
architected
their
structures
directly
tuned.
The
bone-like
spinodoid
are
class
materials.
They
considerable
thanks
non-periodicity,
smoothness,
low-dimensional
statistical
description.
Previous
work
successfully
employed
machine
learning
(ML)
models
for
design.
amount
data
necessary
most
ML
poses
severe
obstacle
broader
application,
especially
context
inelasticity.
That
why
we
propose
an
inverse-design
approach
based
on
Bayesian
optimization
operate
small-data
regime.
Necessitating
substantially
less
data,
small
initial
set
iteratively
augmented
by
silico
generated
until
targeted
properties
found.
application
elastic
demonstrates
framework’s
potential
paving
way
advance
Advanced Intelligent Systems,
Год журнала:
2024,
Номер
6(6)
Опубликована: Апрель 10, 2024
Smooth
and
curved
microstructural
topologies
found
in
nature—from
soap
films
to
trabecular
bone—have
inspired
several
mimetic
design
spaces
for
architected
metamaterials
bio‐scaffolds.
However,
the
approaches
so
far
are
ad
hoc,
raising
challenge:
how
systematically
efficiently
inverse
such
artificial
microstructures
with
targeted
topological
features?
Herein,
surface
curvature
is
explored
as
a
modality
deep
learning
framework
presented
produce
as‐desired
profiles.
The
can
generalize
diverse
features
tubular,
membranous,
particulate
features.
Moreover,
successful
generalization
beyond
both
data
space
demonstrated
by
designing
that
mimic
profile
of
bone,
spinodoid
topologies,
periodic
nodal
surfaces
application
bio‐scaffolds
implants.
Lastly,
mechanics
bridged
showing
be
designed
promote
mechanically
beneficial
stretching‐dominated
deformation
over
bending‐dominated
deformation.