Nature Electronics,
Год журнала:
2023,
Номер
6(10), С. 746 - 754
Опубликована: Сен. 25, 2023
Abstract
Computer
simulations
can
play
a
central
role
in
the
understanding
of
phase-change
materials
and
development
advanced
memory
technologies.
However,
direct
quantum-mechanical
are
limited
to
simplified
models
containing
few
hundred
or
thousand
atoms.
Here
we
report
machine-learning-based
potential
model
that
is
trained
using
data
be
used
simulate
range
germanium–antimony–tellurium
compositions—typical
materials—under
realistic
device
conditions.
The
speed
our
enables
atomistic
multiple
thermal
cycles
delicate
operations
for
neuro-inspired
computing,
specifically
cumulative
SET
iterative
RESET.
A
device-scale
(40
×
20
nm
3
)
over
half
million
atoms
shows
machine-learning
approach
directly
describe
technologically
relevant
processes
devices
based
on
materials.
Chemical Reviews,
Год журнала:
2021,
Номер
121(16), С. 9759 - 9815
Опубликована: Июль 26, 2021
The
first
step
in
the
construction
of
a
regression
model
or
data-driven
analysis,
aiming
to
predict
elucidate
relationship
between
atomic-scale
structure
matter
and
its
properties,
involves
transforming
Cartesian
coordinates
atoms
into
suitable
representation.
development
representations
has
played,
continues
play,
central
role
success
machine-learning
methods
for
chemistry
materials
science.
This
review
summarizes
current
understanding
nature
characteristics
most
commonly
used
structural
chemical
descriptions
atomistic
structures,
highlighting
deep
underlying
connections
different
frameworks
ideas
that
lead
computationally
efficient
universally
applicable
models.
It
emphasizes
link
their
physical
chemistry,
mathematical
description,
provides
examples
recent
applications
diverse
set
science
problems,
outlines
open
questions
promising
research
directions
field.
Chemical Reviews,
Год журнала:
2022,
Номер
122(12), С. 10970 - 11021
Опубликована: Май 16, 2022
Rechargeable
batteries
have
become
indispensable
implements
in
our
daily
life
and
are
considered
a
promising
technology
to
construct
sustainable
energy
systems
the
future.
The
liquid
electrolyte
is
one
of
most
important
parts
battery
extremely
critical
stabilizing
electrode–electrolyte
interfaces
constructing
safe
long-life-span
batteries.
Tremendous
efforts
been
devoted
developing
new
solvents,
salts,
additives,
recipes,
where
molecular
dynamics
(MD)
simulations
play
an
increasingly
role
exploring
structures,
physicochemical
properties
such
as
ionic
conductivity,
interfacial
reaction
mechanisms.
This
review
affords
overview
applying
MD
study
electrolytes
for
rechargeable
First,
fundamentals
recent
theoretical
progress
three-class
summarized,
including
classical,
ab
initio,
machine-learning
(section
2).
Next,
application
exploration
electrolytes,
probing
bulk
structures
3),
deriving
macroscopic
conductivity
dielectric
constant
4),
revealing
mechanisms
5),
sequentially
presented.
Finally,
general
conclusion
insightful
perspective
on
current
challenges
future
directions
provided.
Machine-learning
technologies
highlighted
figure
out
these
challenging
issues
facing
research
promote
rational
design
advanced
next-generation
npj Computational Materials,
Год журнала:
2023,
Номер
9(1)
Опубликована: Март 25, 2023
Abstract
This
review
discussed
the
dilemma
of
small
data
faced
by
materials
machine
learning.
First,
we
analyzed
limitations
brought
data.
Then,
workflow
learning
has
been
introduced.
Next,
methods
dealing
with
were
introduced,
including
extraction
from
publications,
database
construction,
high-throughput
computations
and
experiments
source
level;
modeling
algorithms
for
imbalanced
algorithm
active
transfer
strategy
level.
Finally,
future
directions
in
science
proposed.
Chemical Reviews,
Год журнала:
2021,
Номер
122(12), С. 10777 - 10820
Опубликована: Дек. 20, 2021
Implicit
solvation
is
an
effective,
highly
coarse-grained
approach
in
atomic-scale
simulations
to
account
for
a
surrounding
liquid
electrolyte
on
the
level
of
continuous
polarizable
medium.
Originating
molecular
chemistry
with
finite
solutes,
implicit
techniques
are
now
increasingly
used
context
first-principles
modeling
electrochemistry
and
electrocatalysis
at
extended
(often
metallic)
electrodes.
The
prevalent
ansatz
model
latter
electrodes
reactive
surface
them
through
slabs
periodic
boundary
condition
supercells
brings
its
specific
challenges.
Foremost
this
concerns
difficulty
describing
entire
double
layer
forming
electrified
solid-liquid
interface
(SLI)
within
supercell
sizes
tractable
by
commonly
employed
density
functional
theory
(DFT).
We
review
methodology
from
application
angle,
highlighting
particular
use
widespread
ab
initio
thermodynamics
catalysis.
Notably,
can
be
mimic
polarization
electrode's
electronic
under
applied
potential
concomitant
capacitive
charging
beyond
limitations
DFT
supercell.
Most
critical
continuing
advances
effective
SLI
lack
pertinent
(experimental
or
high-level
theoretical)
reference
data
needed
parametrization.
Machine Learning Science and Technology,
Год журнала:
2022,
Номер
3(4), С. 045017 - 045017
Опубликована: Ноя. 3, 2022
Accurate
simulations
of
atomistic
systems
from
first
principles
are
limited
by
computational
cost.
In
high-throughput
settings,
machine
learning
can
reduce
these
costs
significantly
accurately
interpolating
between
reference
calculations.
For
this,
kernel
approaches
crucially
require
a
representation
that
accommodates
arbitrary
systems.
We
introduce
many-body
tensor
is
invariant
to
translations,
rotations,
and
nuclear
permutations
same
elements,
unique,
differentiable,
represent
molecules
crystals,
fast
compute.
Empirical
evidence
for
competitive
energy
force
prediction
errors
presented
changes
in
molecular
structure,
crystal
chemistry,
dynamics
using
regression
symmetric
gradient-domain
as
models.
Applicability
demonstrated
phase
diagrams
Pt-group/transition-metal
binary
Patterns,
Год журнала:
2022,
Номер
3(10), С. 100588 - 100588
Опубликована: Окт. 1, 2022
Artificial
intelligence
(AI)
and
machine
learning
(ML)
are
expanding
in
popularity
for
broad
applications
to
challenging
tasks
chemistry
materials
science.
Examples
include
the
prediction
of
properties,
discovery
new
reaction
pathways,
or
design
molecules.
The
needs
read
write
fluently
a
chemical
language
each
these
tasks.
Strings
common
tool
represent
molecular
graphs,
most
popular
string
representation,
Smiles,
has
powered
cheminformatics
since
late
1980s.
However,
context
AI
ML
chemistry,
Smiles
several
shortcomings—most
pertinently,
combinations
symbols
lead
invalid
results
with
no
valid
interpretation.
To
overcome
this
issue,
molecules
was
introduced
2020
that
guarantees
100%
robustness:
SELF-referencing
embedded
(Selfies).
Selfies
simplified
enabled
numerous
chemistry.
In
perspective,
we
look
future
discuss
representations,
along
their
respective
opportunities
challenges.
We
propose
16
concrete
projects
robust
representations.
These
involve
extension
toward
domains,
exciting
questions
at
interface
languages,
interpretability
both
humans
machines.
hope
proposals
will
inspire
follow-up
works
exploiting
full
potential
representations
Materials Futures,
Год журнала:
2022,
Номер
1(2), С. 022601 - 022601
Опубликована: Апрель 19, 2022
Abstract
To
fill
the
gap
between
accurate
(and
expensive)
ab
initio
calculations
and
efficient
atomistic
simulations
based
on
empirical
interatomic
potentials,
a
new
class
of
descriptions
atomic
interactions
has
emerged
been
widely
applied;
i.e.
machine
learning
potentials
(MLPs).
One
recently
developed
type
MLP
is
deep
potential
(DP)
method.
In
this
review,
we
provide
an
introduction
to
DP
methods
in
computational
materials
science.
The
theory
underlying
method
presented
along
with
step-by-step
their
development
use.
We
also
review
applications
DPs
wide
range
systems.
Library
provides
platform
for
database
extant
DPs.
discuss
accuracy
efficiency
compared
potentials.
Advanced Materials,
Год журнала:
2022,
Номер
34(36)
Опубликована: Апрель 22, 2022
Abstract
Owing
to
the
rapid
developments
improve
accuracy
and
efficiency
of
both
experimental
computational
investigative
methodologies,
massive
amounts
data
generated
have
led
field
materials
science
into
fourth
paradigm
data‐driven
scientific
research.
This
transition
requires
development
authoritative
up‐to‐date
frameworks
for
approaches
material
innovation.
A
critical
discussion
on
current
advances
in
discovery
with
a
focus
frameworks,
machine‐learning
algorithms,
material‐specific
databases,
descriptors,
targeted
applications
inorganic
is
presented.
Frameworks
rationalizing
innovation
are
described,
review
essential
subdisciplines
presented,
including:
i)
advanced
data‐intensive
strategies
algorithms;
ii)
databases
related
tools
platforms
generation
management;
iii)
commonly
used
molecular
descriptors
processes.
Furthermore,
an
in‐depth
broad
innovation,
such
as
energy
conversion
storage,
environmental
decontamination,
flexible
electronics,
optoelectronics,
superconductors,
metallic
glasses,
magnetic
materials,
provided.
Finally,
how
these
(with
insights
synergy
science,
tools,
mathematics)
support
paradigms
outlined,
opportunities
challenges
highlighted.
Chemical Society Reviews,
Год журнала:
2022,
Номер
51(15), С. 6475 - 6573
Опубликована: Янв. 1, 2022
Machine
learning
(ML)
has
emerged
into
formidable
force
for
identifying
hidden
but
pertinent
patterns
within
a
given
data
set
with
the
objective
of
subsequent
generation
automated
predictive
behavior.
In
recent
years,
it
is
safe
to
conclude
that
ML
and
its
close
cousin
deep
(DL)
have
ushered
unprecedented
developments
in
all
areas
physical
sciences
especially
chemistry.
Not
only
classical
variants
,
even
those
trainable
on
near-term
quantum
hardwares
been
developed
promising
outcomes.
Such
algorithms
revolutionzed
material
design
performance
photo-voltaics,
electronic
structure
calculations
ground
excited
states
correlated
matter,
computation
force-fields
potential
energy
surfaces
informing
chemical
reaction
dynamics,
reactivity
inspired
rational
strategies
drug
designing
classification
phases
matter
accurate
identification
emergent
criticality.
this
review
we
shall
explicate
subset
such
topics
delineate
contributions
made
by
both
computing
enhanced
machine
over
past
few
years.
We
not
present
brief
overview
well-known
techniques
also
highlight
their
using
statistical
insight.
The
foster
exposition
aforesaid
empower
promote
cross-pollination
among
future-research
chemistry
which
can
benefit
from
turn
potentially
accelerate
growth
algorithms.