ABFML: A problem-oriented package for rapidly creating, screening, and optimizing new machine learning force fields
Xingze Geng,
No information about this author
Jianing Gu,
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Gaowu Qin
No information about this author
et al.
The Journal of Chemical Physics,
Journal Year:
2025,
Volume and Issue:
162(5)
Published: Feb. 4, 2025
Machine
Learning
Force
Fields
(MLFFs)
require
ongoing
improvement
and
innovation
to
effectively
address
challenges
across
various
domains.
Developing
MLFF
models
typically
involves
extensive
screening,
tuning,
iterative
testing.
However,
existing
packages
based
on
a
single
mature
descriptor
or
model
are
unsuitable
for
this
process.
Therefore,
we
developed
package
named
ABFML,
PyTorch,
which
aims
promote
by
providing
developers
with
rapid,
efficient,
user-friendly
tool
constructing,
validating
new
force
field
models.
Moreover,
leveraging
standardized
module
operations
cutting-edge
machine
learning
frameworks,
can
swiftly
establish
In
addition,
the
platform
seamlessly
transition
graphics
processing
unit
environments,
enabling
accelerated
calculations
large-scale
parallel
simulations
of
molecular
dynamics.
contrast
traditional
from-scratch
approaches
development,
ABFML
significantly
lowers
barriers
developing
models,
thereby
expediting
application
within
development
Language: Английский
Applications of machine learning in surfaces and interfaces
Chemical Physics Reviews,
Journal Year:
2025,
Volume and Issue:
6(1)
Published: March 1, 2025
Surfaces
and
interfaces
play
key
roles
in
chemical
material
science.
Understanding
physical
processes
at
complex
surfaces
is
a
challenging
task.
Machine
learning
provides
powerful
tool
to
help
analyze
accelerate
simulations.
This
comprehensive
review
affords
an
overview
of
the
applications
machine
study
systems
materials.
We
categorize
into
following
broad
categories:
solid–solid
interface,
solid–liquid
liquid–liquid
surface
solid,
liquid,
three-phase
interfaces.
High-throughput
screening,
combined
first-principles
calculations,
force
field
accelerated
molecular
dynamics
simulations
are
used
rational
design
such
as
all-solid-state
batteries,
solar
cells,
heterogeneous
catalysis.
detailed
information
on
for
Language: Английский
Revisiting Machine Learning Potentials for Silicate Glasses: The Missing Role of Dispersion Interactions
Alfonso Pedone,
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Marco Bertani,
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Matilde Benassi
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et al.
Journal of Chemical Theory and Computation,
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 24, 2025
Machine
learning
interatomic
potentials
(MLIPs)
offer
a
promising
alternative
to
traditional
force
fields
and
ab
initio
methods
for
simulating
complex
materials
such
as
oxide
glasses.
In
this
work,
we
present
the
first
evaluation
of
pretrained
MACE
(Multi-ACE)
model
[D.P.
Kovács
et
al.,
J.
Chem.
Phys.
159(2023),
044118]
silicate
glasses,
using
sodium
silicates
test
case.
We
compare
its
performance
with
DeePMD-based
MLIP
specifically
trained
on
compositions
[M.
Bertani
Theory
Comput.
20(2024),
1358-1370]
assess
their
accuracy
in
reproducing
structural
dynamical
properties.
Additionally,
investigate
role
dispersion
interactions
by
incorporating
D3(BJ)
correction
both
models.
Our
results
show
that
while
accurately
reproduces
neutron
structure
factors,
pair
distribution
functions,
Si[Qn]
speciation,
it
performs
slightly
worst
elastic
properties
calculations.
However,
is
suitable
simulations
The
inclusion
significantly
improves
reproduction
density
MLIPs,
highlighting
critical
glass
modeling.
These
findings
provide
insight
into
transferability
general
MLIPs
disordered
systems
emphasize
need
dispersion-aware
training
data
sets
developing
accurate
Language: Английский
Development and Validation of Neural Network Potentials for Multicomponent Oxide Glasses
Ryuki Kayano,
No information about this author
Yaohiro Inagaki,
No information about this author
Ryuta Matsubara
No information about this author
et al.
The Journal of Physical Chemistry C,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Oct. 2, 2024
Language: Английский
Li diffusion in oxygen–chlorine mixed anion borosilicate glasses using a machine-learning simulation
Shingo Urata,
No information about this author
Noriyoshi Kayaba
No information about this author
The Journal of Chemical Physics,
Journal Year:
2024,
Volume and Issue:
161(13)
Published: Oct. 1, 2024
Lithium-ion
conducting
borate
glasses
are
suitable
for
solid-state
batteries
as
an
interfacial
material
between
a
crystalline
electrolyte
and
electrode,
thanks
to
their
superior
formability.
Chlorine
has
been
known
improve
the
electron
conductivity
of
secondary
anion.
To
examine
impact
chlorine
on
lithium
dynamics,
molecular
dynamics
(MD)
simulations
were
performed
with
machine-learning
interatomic
potential
(MLIP).
The
accuracy
MLIP
in
modeling
chlorine-doped
(LBCl)
borosilicate
(LBSCl)
was
verified
by
comparing
available
experimental
data
density,
neutron
diffraction
S(q),
glass
transition
temperatures
(Tg).
While
MLIP-MD
underestimated
density
when
isobaric–isothermal
(NPT)
ensemble
used,
models
relaxed
using
NPT
after
melt-quench
simulation
employing
canonical
(NVT)
possessed
reasonable
density.
LBCl
LBSCl
exhibited
increased
ion
diffusion,
ions
found
travel
longer
distances
increase
content.
According
structural
analyses,
it
observed
that
primarily
interacted
rather
than
network
formers.
Consequently,
higher
amount
showed
moderate
mobility.
In
summary,
demonstrated
chlorine-containing
enabled
investigation
effect
conductivity.
contrast,
first
sharp
peaks
S(q)
deviated
from
diffractions,
suggesting
additional
efforts
required
accurately
model
middle-range
structure
glasses.
Language: Английский
Effect of three-body interaction on structural features of phosphate glasses from molecular dynamics simulations
The Journal of Chemical Physics,
Journal Year:
2024,
Volume and Issue:
161(15)
Published: Oct. 16, 2024
Understanding
the
structures
of
phosphate
glasses
is
important
to
many
their
technological
applications.
Molecular
dynamics
simulations
are
commonly
used
generate
structure
models
sodium
glasses,
and
those
with
partial
charge
pairwise
potentials
have
been
successfully
applied
for
modeling
other
network
such
as
silicate
aluminosilicate
glasses.
In
this
work,
we
show
that
addition
a
three-body
term
essential
in
regulating
intertetrahedral
bond
angles,
well
Qn
speciation
comparison
experiments.
Simulation
results
without
terms
were
compared
validated
experimental
results,
including
neutron
factors.
Further
glass
fully
relaxed
first-principles
density
functional
theory
was
performed
evaluate
simulation
results.
The
vital
it
can
significantly
improve
description
short-
medium-range
properties.
Language: Английский