bioRxiv (Cold Spring Harbor Laboratory),
Journal Year:
2024,
Volume and Issue:
unknown
Published: July 29, 2024
Abstract
Textile
fabrics
have
unique
mechanical
properties,
which
make
them
ideal
candidates
for
many
engineering
and
medical
applications:
They
are
initially
flexible,
nonlinearly
stiffening,
ultra-anisotropic.
Various
studies
characterized
the
response
of
textile
structures
to
loading;
yet,
our
understanding
their
exceptional
properties
functions
remains
incomplete.
Here
we
integrate
biaxial
testing
constitutive
neural
networks
automatically
discover
best
model
parameters
characterize
warp
knitted
polypropylene
fabrics.
We
use
experiments
from
different
mounting
orientations,
interpretable
anisotropic
models
that
perform
well
during
both
training
testing.
Our
study
shows
highly
sensitive
an
accurate
representation
microstructure,
with
three
microstructural
directions
outperform
classical
orthotropic
only
two
in-plane
directions.
Strikingly,
out
2
14
=16,384
possible
combinations
terms,
consistently
exponential
linear
fourth
invariant
terms
inherently
capture
initial
flexibility
virgin
mesh
pronounced
nonlinear
stiffening
as
loops
tighten.
anticipate
tools
developed
prototyped
here
will
generalize
naturally
other
fabrics–woven
or
knitted,
weft
knit
knit,
polymeric
metallic–and,
ultimately,
enable
robust
discovery
a
wide
variety
structures.
Beyond
discovering
models,
envision
exploit
automated
novel
strategy
generative
material
design
wearable
devices,
stretchable
electronics,
smart
fabrics,
programmable
metamaterials
tunable
functions.
source
code,
data,
examples
available
at
https://github.com/LivingMatterLab/CANN
.
Advanced Energy Materials,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Dec. 10, 2024
Abstract
This
review
highlights
recent
advances
in
machine
learning
(ML)‐assisted
design
of
energy
materials.
Initially,
ML
algorithms
were
successfully
applied
to
screen
materials
databases
by
establishing
complex
relationships
between
atomic
structures
and
their
resulting
properties,
thus
accelerating
the
identification
candidates
with
desirable
properties.
Recently,
development
highly
accurate
interatomic
potentials
generative
models
has
not
only
improved
robust
prediction
physical
but
also
significantly
accelerated
discovery
In
past
couple
years,
methods
have
enabled
high‐precision
first‐principles
predictions
electronic
optical
properties
for
large
systems,
providing
unprecedented
opportunities
science.
Furthermore,
ML‐assisted
microstructure
reconstruction
physics‐informed
solutions
partial
differential
equations
facilitated
understanding
microstructure–property
relationships.
Most
recently,
seamless
integration
various
platforms
led
emergence
autonomous
laboratories
that
combine
quantum
mechanical
calculations,
language
models,
experimental
validations,
fundamentally
transforming
traditional
approach
novel
synthesis.
While
highlighting
aforementioned
advances,
existing
challenges
are
discussed.
Ultimately,
is
expected
fully
integrate
atomic‐scale
simulations,
reverse
engineering,
process
optimization,
device
fabrication,
empowering
system
design.
will
drive
transformative
innovations
conversion,
storage,
harvesting
technologies.
Physical Chemistry Chemical Physics,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 1, 2025
Carbon
nitride
research
has
reached
a
promising
point
in
today's
endeavours
with
diverse
applications
including
photocatalysis,
energy
storage,
and
sensing
due
to
their
unique
electronic
structural
properties.
Recent
advances
machine
learning
(ML)
have
opened
new
avenues
for
exploring
optimizing
the
potential
of
these
materials.
This
study
presents
comprehensive
review
integration
ML
techniques
carbon
an
introduction
CN
classifications
recent
advancements.
We
discuss
methodologies
employed,
such
as
supervised
learning,
unsupervised
reinforcement
predicting
material
properties,
synthesis
conditions,
enhancing
performance
metrics.
Key
findings
indicate
that
algorithms
can
significantly
reduce
experimental
trial-and-error,
accelerate
discovery
processes,
provide
deeper
insights
into
structure-property
relationships
nitride.
The
synergistic
effect
combining
traditional
approaches
is
highlighted,
showcasing
studies
where
driven
models
successfully
predicted
novel
compositions
enhanced
functional
Future
directions
this
field
are
also
proposed,
emphasizing
need
high-quality
datasets,
advanced
models,
interdisciplinary
collaborations
fully
realize
materials
next-generation
technologies.
Research Square (Research Square),
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 7, 2025
Abstract
Rapid
progress
in
additive
manufacturing
of
alloys
opens
opportunities
controlling
compositions
and
microstructures
at
voxel-size
resolution
complex
geometries,
thus
unlocking
unprecedented
design
performance
various
critical
engineering
applications.
However,
to
fully
exploit
such
potential,
capable
yet
efficient
models
for
navigating
the
vast
spaces
alloy
compositions,
structures
properties
are
great
research
interest.
Here,
we
present
AlloyGPT,
an
autoregressive
alloy-specific
language
model,
that
learns
composition-structure-property
relationship
generates
novel
designs
additively
manufacturable
alloys.
Specifically,
develop
grammar
convert
physics-rich
datasets
into
readable
text
records
both
forward
prediction
inverse
tasks.
Then,
construct
a
customized
tokenizer
generative
pre-trained
transformer
(GPT)
model
master
this
through
training.
At
deployment,
our
can
accurately
predict
multiple
phase
based
on
given
achieving
R2
values
ranging
from
0.86
0.99
test
set.
When
tested
beyond
learned
composition
domain,
only
degrades
gradually
stable
manner.
Given
desired
structures,
same
suggest
meet
goals.
And
balance
between
diversity
accuracy
be
further
tuned
stably.
Our
AlloyGPT
presents
way
integrating
comprehensive
knowledge
terms
simultaneously
solve
tasks
with
accuracy,
robustness.
This
fundamental
will
open
new
avenues
accelerate
integration
material
pure
or
gradient
structural
manufactured
by
traditional
manufacturing.
Processes,
Journal Year:
2025,
Volume and Issue:
13(2), P. 566 - 566
Published: Feb. 17, 2025
Green
materials
are
emerging
as
sustainable
alternatives
in
water
and
wastewater
treatment.
Due
to
their
biodegradability,
renewable
origin
low
toxicity
characteristics,
green
an
alternative
conventional
synthetic
materials.
include
nanomaterials
of
natural
origin,
biopolymers
composites
that
optimize
the
adsorption
removal
contaminants.
The
applications
cellulose
nanofibers,
alginates,
chitosan
lignin
stand
out,
well
functionalized
hydrogels
aerogels
for
heavy
metals,
dyes
organic
analysis
mechanisms
processes
contaminant
modeling
optimization
techniques
included
key
tools
design
these
materials,
allowing
one
predict
properties,
simulate
interactions
customize
solutions.
Despite
sustainability
benefits
they
face
technical
economic
challenges,
such
scalability,
synthesis
costs
experimental
validation.
This
work
concluded
combined
with
tools,
essential
move
towards
more
sustainable,
efficient
environmentally
friendly
treatment
technologies,
aligned
global
objectives
development
climate
change
mitigation.
JACS Au,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 25, 2025
Foundation
models
are
an
emerging
paradigm
in
artificial
intelligence
(AI),
with
successful
examples
like
ChatGPT
transforming
daily
workflows.
Generally,
foundation
large-scale,
pretrained
capable
of
adapting
to
various
downstream
tasks
by
leveraging
extensive
data
and
model
scaling.
Their
success
has
inspired
researchers
develop
for
a
wide
range
chemical
challenges,
from
materials
discovery
understanding
structure-property
relationships,
areas
where
conventional
machine
learning
(ML)
often
face
limitations.
In
addition,
hold
promise
addressing
persistent
ML
challenges
chemistry,
such
as
scarcity
poor
generalization.
this
perspective,
we
review
recent
progress
the
development
chemistry
across
applications
varying
scope.
We
also
discuss
trends
provide
outlook
on
promising
approaches
advancing
chemistry.
Computational and Structural Biotechnology Journal,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 1, 2025
In
this
innovation
report,
we
present
the
vision
of
PINK
project
to
foster
Safe-and-Sustainable-by-Design
(SSbD)
advanced
materials
and
chemicals
(AdMas&Chems)
development
by
integrating
state-of-the-art
computational
modelling,
simulation
tools
data
resources.
proposes
a
novel
approach
for
use
SSbD
Framework,
whose
innovative
is
based
on
application
multi-objective
optimisation
procedure
criteria
functionality,
safety,
sustainability
cost
efficiency.
At
core
open
platform,
distributed
system
that
integrates
all
relevant
modelling
resources
enriched
with
visualisation
an
AI-driven
decision
support
system.
Data
from
the,
in
large
parts,
independently
developed
areas
functional
design,
safety
assessment,
life
cycle
assessment
&
costing
are
brought
together
newly
created
Interoperability
Framework.
The
Silico
Hub,
as
user
Interface
finally
guides
through
complete
AdMas&Chems
process
idea
creation
market
introduction.
Guided
two
Developmental
Case
Studies,
building
Platform
iterative,
ensuring
industry
readiness
implement
apply
it.
Additionally,
Industrial
Demonstrator
programme
will
be
introduced
part
final
phase,
which
allows
partners
especially
small
medium
enterprises
(SMEs)
become
consortium.
Feedback
Demonstrators
well
other
stakeholder-engagement
activities
collaborations
shape
platform's
look
feel
and,
even
more
important,
assure
long-term
technical
sustainability.