Advanced Materials,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Dec. 27, 2024
Abstract
Bamboo
culm
has
been
widely
used
in
engineering
for
its
high
strength,
lightweight,
and
low
cost.
Its
outermost
epidermis
is
a
smooth
dense
layer
that
contains
cellulose,
silica
particles,
stomata
acts
as
water
mechanical
barrier.
Recent
experimental
studies
have
shown
the
higher
strength
than
other
inside
regions.
Still,
mechanism
unclear,
especially
how
concentration
(<10%)
can
effectively
reinforce
prevent
inner
fibers
from
splitting.
Here,
theoretical
analysis
combined
with
imaging
3D
printing
to
investigate
effect
of
distribution
particles
on
composite
mechanics.
The
anisotropic
partial
function
bamboo
skin
yields
toughness
(>10%)
randomly
distributed
particles.
A
generative
artificial
intelligence
(AI)
model
inspired
by
developed
generate
particle‐reinforced
composites.
Besides
visual
similarity,
it
found
samples
show
failure
processes
fracture
identical
actual
epidermis.
This
work
reveals
micromechanics
It
illustrates
AI
help
design
bio‐inspired
composites
complex
structure
cannot
be
uniformly
represented
simple
building
block
or
optimized
around
local
boundaries.
expands
space
enhanced
modulus,
offering
advantages
industries
where
reliability
critical.
Proceedings of the National Academy of Sciences,
Journal Year:
2025,
Volume and Issue:
122(4)
Published: Jan. 24, 2025
The
design
of
new
alloys
is
a
multiscale
problem
that
requires
holistic
approach
involves
retrieving
relevant
knowledge,
applying
advanced
computational
methods,
conducting
experimental
validations,
and
analyzing
the
results,
process
typically
slow
reserved
for
human
experts.
Machine
learning
can
help
accelerate
this
process,
instance,
through
use
deep
surrogate
models
connect
structural
chemical
features
to
material
properties,
or
vice
versa.
However,
existing
data-driven
often
target
specific
objectives,
offering
limited
flexibility
integrate
out-of-domain
knowledge
cannot
adapt
new,
unforeseen
challenges.
Here,
we
overcome
these
limitations
by
leveraging
distinct
capabilities
multiple
AI
agents
collaborate
autonomously
within
dynamic
environment
solve
complex
materials
tasks.
proposed
physics-aware
generative
platform,
AtomAgents,
synergizes
intelligence
large
language
(LLMs)
collaboration
among
with
expertise
in
various
domains,
including
retrieval,
multimodal
data
integration,
physics-based
simulations,
comprehensive
results
analysis
across
modalities.
concerted
effort
multiagent
system
allows
addressing
problems,
as
demonstrated
examples
include
designing
metallic
enhanced
properties
compared
their
pure
counterparts.
Our
enable
accurate
prediction
key
characteristics
highlight
crucial
role
solid
solution
alloying
steer
development
alloys.
framework
enhances
efficiency
multiobjective
tasks
opens
avenues
fields
such
biomedical
engineering,
renewable
energy,
environmental
sustainability.
Physics of Fluids,
Journal Year:
2025,
Volume and Issue:
37(3)
Published: March 1, 2025
This
work
presents
a
large
language
model
(LLM)-based
agent
OpenFOAMGPT
tailored
for
OpenFOAM-centric
computational
fluid
dynamics
(CFD)
simulations,
leveraging
two
foundation
models
from
OpenAI:
the
GPT-4o
(GPT
means
Generative
Pre-trained
Transformer)
and
chain-of-thought–enabled
o1
preview
model.
Both
agents
demonstrate
success
across
multiple
tasks.
While
price
of
token
with
is
six
times
as
that
GPT-4o,
it
consistently
exhibits
superior
performance
in
handling
complex
tasks,
zero-shot/few-shot
case
setup
to
boundary
condition
modifications,
zero-shot
turbulence
adjustments,
code
translation.
Through
an
iterative
correction
loop,
efficiently
addressed
single-phase
multiphase
flow,
heat
transfer,
Reynolds-averaged
Navier–Stokes
modeling,
eddy
simulation,
other
engineering
scenarios,
often
converging
limited
number
iterations
at
low
costs.
To
embed
domain-specific
knowledge,
we
employed
retrieval-augmented
generation
pipeline,
demonstrating
how
preexisting
simulation
setups
can
further
specialize
subdomains
such
energy
aerospace.
Despite
great
agent,
human
oversight
remains
crucial
ensuring
accuracy
adapting
shifting
contexts.
Fluctuations
over
time
suggest
need
monitoring
mission-critical
applications.
Although
our
demonstrations
focus
on
OpenFOAM,
adaptable
nature
this
framework
opens
door
developing
LLM-driven
into
wide
range
solvers
codes.
By
streamlining
CFD
approach
has
potential
accelerate
both
fundamental
research
industrial
advancements.
Machine Learning Science and Technology,
Journal Year:
2024,
Volume and Issue:
5(3), P. 035083 - 035083
Published: Aug. 21, 2024
Abstract
Leveraging
generative
Artificial
Intelligence
(AI),
we
have
transformed
a
dataset
comprising
1000
scientific
papers
focused
on
biological
materials
into
comprehensive
ontological
knowledge
graph.
Through
an
in-depth
structural
analysis
of
this
graph,
calculated
node
degrees,
identified
communities
along
with
their
connectivities,
and
evaluated
clustering
coefficients
betweenness
centrality
pivotal
nodes,
uncovering
fascinating
architectures.
We
find
that
the
graph
has
inherently
scale-free
nature,
shows
high
level
connectedness,
can
be
used
as
rich
source
for
downstream
reasoning
by
taking
advantage
transitive
isomorphic
properties
to
reveal
insights
unprecedented
interdisciplinary
relationships
answer
queries,
identify
gaps
in
knowledge,
propose
never-before-seen
material
designs,
predict
behaviors.
Using
large
language
embedding
model
compute
deep
representations
use
combinatorial
similarity
ranking
develop
path
sampling
strategy
allows
us
link
dissimilar
concepts
previously
not
been
related.
One
comparison
revealed
detailed
parallels
between
Beethoven’s
9th
Symphony,
highlighting
shared
patterns
complexity
through
mapping.
In
another
example,
algorithm
proposed
innovative
hierarchical
mycelium-based
composite
based
integrating
principles
extracted
from
Kandinsky’s
‘Composition
VII’
painting.
The
resulting
integrates
set
include
balance
chaos
order,
adjustable
porosity,
mechanical
strength,
complex
patterned
chemical
functionalization.
uncover
other
isomorphisms
across
science,
technology
art,
revealing
nuanced
ontology
immanence
context-dependent
heterarchical
interplay
constituents.
Because
our
method
transcends
established
disciplinary
boundaries
diverse
data
modalities
(graphs,
images,
text,
numerical
data,
etc),
graph-based
AI
achieves
far
higher
degree
novelty,
explorative
capacity,
technical
detail,
than
conventional
approaches
establishes
widely
useful
framework
innovation
hidden
connections.
Science Advances,
Journal Year:
2025,
Volume and Issue:
11(13)
Published: March 26, 2025
Peptides
are
ubiquitous
and
important
biomolecules
that
self-assemble
into
diverse
structures.
Although
extensive
research
has
explored
the
effects
of
chemical
composition
exterior
conditions
on
self-assembly,
a
systematic
study
consolidating
these
data
to
uncover
global
rules
is
lacking.
In
this
work,
we
curate
peptide
assembly
database
through
combination
manual
processing
by
human
experts
large
language
model–assisted
literature
mining.
As
result,
collect
over
1000
experimental
entries
with
information
about
sequence,
conditions,
corresponding
self-assembly
phases.
Using
data,
machine
learning
models
developed,
demonstrating
excellent
accuracy
(>80%)
in
phase
classification.
Moreover,
fine-tune
GPT
model
for
mining
developed
dataset,
which
markedly
outperforms
pretrained
extracting
from
academic
publications.
This
workflow
can
improve
efficiency
when
exploring
potential
self-assembling
candidates,
guiding
while
also
deepening
our
understanding
governing
mechanisms.
APL Machine Learning,
Journal Year:
2025,
Volume and Issue:
3(2)
Published: April 22, 2025
We
present
an
approach
for
modifying
transformer
architectures
by
integrating
graph-aware
relational
reasoning
into
the
attention
mechanism,
merging
concepts
from
graph
neural
networks
and
language
modeling.
Building
on
inherent
connection
between
theory,
we
reformulate
transformer’s
mechanism
as
a
operation
propose
isomorphic
attention.
This
method
leverages
advanced
modeling
strategies,
including
Graph
Isomorphism
Networks
(GINs),
to
enrich
representation
of
structures.
Our
improves
model’s
ability
capture
complex
dependencies
generalize
across
tasks,
evidenced
reduced
generalization
gap
improved
learning
performance.
expand
concept
introduce
sparse-GIN-attention,
fine-tuning
that
enhances
adaptability
pre-trained
foundational
models
with
minimal
computational
overhead,
endowing
them
capabilities.
show
sparse-GIN-attention
framework
compositional
principles
category
theory
align
sparsified
structures
while
hierarchical
bridges
local
interactions
global
task
objectives
diverse
domains.
results
demonstrate
mechanisms
outperform
traditional
in
both
training
efficiency
validation
These
insights
bridge
uncover
latent
graph-like
within
mechanisms,
offering
new
lens
through
which
transformers
can
be
optimized.
By
evolving
GIN
models,
reveal
their
implicit
capacity
graph-level
profound
implications
model
development
applications
bioinformatics,
materials
science,
modeling,
beyond,
setting
stage
interpretable
generalizable
strategies.
Advanced Science,
Journal Year:
2025,
Volume and Issue:
unknown
Published: May 8, 2025
Abstract
In
contemporary
biomedical
research,
the
efficiency
of
data‐driven
methodologies
is
constrained
by
large
data
volumes,
complexity
tool
selection,
and
limited
human
resources.
To
address
these
challenges,
a
Data‐dRiven
self‐Evolving
Autonomous
systeM
(DREAM)
developed
as
first
fully
autonomous
research
system
capable
independently
conducting
scientific
investigations
without
intervention.
DREAM
autonomously
formulates
evolves
questions,
configures
computational
environments,
performs
result
evaluation
validation.
Unlike
existing
semi‐autonomous
systems,
operates
manual
intervention
validated
in
real‐world
scenarios.
It
exceeds
average
performance
top
scientists
question
generation,
achieves
higher
success
rate
environment
configuration
than
experienced
researchers,
uncovers
novel
findings.
context
Framingham
Heart
Study,
it
demonstrated
an
that
over
10
000
times
greater
scientists.
As
autonomous,
self‐evolving
system,
offers
robust
efficient
solution
for
accelerating
discovery
advancing
other
disciplines.