The
structural,
thermodynamics,
electronics
and
mechanical
properties
of
Rhodium
andapproximately
1.6%
for
Ru
1.9%
Rh.
bulk
moduli
agree
with
other
reported
resultsRuthenium
transition
metals
are
analyzed
using
the
first
principle
calculations
in
this
research.depending
on
direction
its
covalent
bonding
while
Rh
withstand
breaking
during
band
three
fold,
two
fold
degenerate.
And
non
degenerate
levels
represented
by
compared
to
terms
elastic
characteristics
more
prone
modify
GGA
treat
exchange
–
correlation
function
PBE
functional
mechanically
stable
as
they
agreed
excellently
results
discussed
literature.
experimental
development
because
anisotropy’s
greater
deviation
from
parameters
respectively
C44
is
2.0
221,
C11
C12
0.19
238,
2C11–
2C12
is8.74
1376.
also
indicate
that
exhibits
anisotropic
tendencies
package
where
elemental
structures
were
obtained
PAW
pseudo
potentials
andreported
outcome
investigation
shows
examined
elementsThe
lattice
deviated
theoretical
withWe
adopted
DFT
solution
pf
Kohn
Sham
equation
given
Xcrydenunity,
hence,
accurately
it’s
stiffer
tougher.
In
this
study,
we
developed
a
machine
learning
interatomic
potential
based
on
artificial
neural
networks
(ANN)
to
model
carbon-hydrogen
(C-H)
systems.
The
ANN
was
trained
dataset
of
C-H
clusters
obtained
through
density
functional
theory
(DFT)
calculations.
Through
comprehensive
evaluations
against
DFT
results,
including
predictions
geometries
and
formation
energies
across
0D-3D
systems
comprising
C
C-H,
as
well
modeling
various
chemical
processes,
the
demonstrated
exceptional
accuracy
transferability.
Its
capability
accurately
predict
lattice
dynamics,
crucial
for
stability
assessment
in
crystal
structure
prediction,
also
verified
phonon
dispersion
analysis.
Notably,
its
computational
efficiency
calculating
force
constants
facilitated
exploration
complex
energy
landscapes,
leading
discovery
novel
polymorph.
These
results
underscore
robustness
versatility
potential,
highlighting
efficacy
advancing
materials
science
by
conducting
precise
atomistic
simulations
wide
range
materials.
Crystals,
Год журнала:
2024,
Номер
14(11), С. 960 - 960
Опубликована: Ноя. 2, 2024
The
unique
properties
of
graphene
have
attracted
the
interest
researchers
from
various
fields,
and
discovery
has
sparked
a
revolution
in
materials
science,
specifically
field
two-dimensional
materials.
However,
synthesis’s
costly
complex
process
significantly
impairs
researchers’
endeavors
to
explore
its
structure
experimentally.
Molecular
dynamics
simulation
is
well-established
useful
tool
for
investigating
graphene’s
atomic
dynamic
behavior
at
nanoscale
without
requiring
expensive
experiments.
accuracy
molecular
depends
on
potential
functions.
This
work
assesses
performance
functions
available
mechanical
prediction.
following
two
cases
are
considered:
pristine
pre-cracked
graphene.
most
popular
fifteen
potentials
been
assessed.
Our
results
suggest
that
diverse
suitable
applications.
REBO
Tersoff
best
simulating
monolayer
graphene,
MEAM
AIREBO-m
recommended
those
with
crack
defects
because
their
respective
utilization
electron
density
inclusion
long-range
interaction.
We
recommend
general
case
classical
study.
might
help
guide
selection
simulations
development
further
advanced
interatomic
potentials.
Precision Chemistry,
Год журнала:
2024,
Номер
unknown
Опубликована: Дек. 4, 2024
Organic
semiconducting
nanomembranes
(OSNMs),
particularly
carbon-based
ones,
are
at
the
forefront
of
next-generation
two-dimensional
(2D)
semiconductor
research.
These
materials
offer
remarkable
promise
due
to
their
diverse
chemical
properties
and
unique
functionalities,
paving
way
for
innovative
applications
across
advanced
material
sectors.
Graphene
stands
out
its
extraordinary
mechanical
strength,
thermal
conductivity,
superior
charge
transport
capabilities,
inspiring
extensive
research
into
other
2D
carbon
allotropes
like
graphyne
graphdiyne.
With
high
electron
mobility
tunable
bandgap,
graphdiyne
is
attractive
power-efficient
electronic
devices.
However,
synthesizing
presents
significant
challenges,
primarily
difficulty
in
achieving
precise
deterministic
control
over
coupling
monomers.
This
precision
crucial
determining
material's
porosity,
periodicity,
overall
functionality.
Innovative
approaches
have
been
developed
address
these
such
as
strategic
assembly
molecular
building
blocks
heterogeneous
interfaces.
Furthermore,
data-driven
techniques,
machine
learning
artificial
intelligence
(AI),
proving
invaluable
this
field,
assisting
screening
precursors,
optimizing
structural
configurations,
predicting
novel
materials.
advancements
essential
producing
durable
monolayer
sheets
that
can
be
integrated
existing
components.
Despite
advancements,
integration
technology
remains
complex.
Achieving
long-range
coherence
bonding
configurations
enhancing
characteristics
hurdles.
Continued
robust
controllable
synthesis
techniques
unlocking
full
potential
materials,
leading
more
efficient,
faster,
mechanically
electronics.
Physica Scripta,
Год журнала:
2023,
Номер
98(12), С. 126001 - 126001
Опубликована: Окт. 20, 2023
Abstract
Machine
Learning
(ML),
a
subset
of
Artificial
Intelligence
has
been
widely
applied
in
various
domains,
but
it
only
just
begun
to
be
employed
the
field
engineering.
In
present
investigation,
ML
algorithms
and
artificial
neural
network
(ANN)
structures
are
used
for
first
time
predict
mechanical
properties
pristine,
boron-doped,
nitrogen-doped
graphene
while
also
taking
into
account
effects
types
vacancy
defects.
Fracture
strain,
Ultimate
Tensile
Strength
(UTS),
Young’s
modulus
all
predicted.
technique
reduces
computational
cost
required
find
out
these
materials.
The
training
dataset
models
is
developed
using
Molecular
Dynamics
(MD)
simulations.
It
was
shown
that
defects
doping
both
had
an
adverse
effect
on
characteristics.
While
ANN,
LASSO,
LASSO
Lars
have
performed
quite
well
at
predicting
features,
pipeline
polynomial
regression
best
across
datasets.
New
insights
research
characteristics
utilizing
cutting-edge
techniques
provided
by
discoveries
this
research.
AIAA SCITECH 2022 Forum,
Год журнала:
2024,
Номер
unknown
Опубликована: Янв. 4, 2024
Two
dimensional
materials
based
nanocomposite
have
gained
rapid
technological
and
scientific
importance
in
the
last
few
decades.
This
hybrid
material
system
is
a
combination
of
inorganic
2D
organic/inorganic
polymer
that
finds
its
application
diverse
set
domains
such
as
electronics,
aerospace,
photovoltaics,
ocean
technology,
healthcare
applications
etc.
The
interfaces
these
two
materials/polymers
nanocomposites
plays
an
important
role
determining
overall
properties
nanocomposites.
Thus,
behaviour
at
interface
needs
to
be
understood
evaluate
property
well
can
provide
insights
into
different
loading
conditions.
informed
design
help
development
new
with
enhanced
wide
variety
applications.
In
this
study,
we
are
characterizing
effects
crystallization
polyethylene,
most
abundant
used
on
our
planet,
surface
specifically
graphene
MoSe2
.
crystal
structure
known
guide
direction
polyethylene
which
creates
anisotropy
i.e.
directions
useful
flexible
skin
for
human-robot
interaction,
semiconductors
Therefore,
templating
agents
create
developed
nanocomposite.
study
investigates
(2D
semiconductor
material)
(one
stiffest
strongest
known)
polyethylene.
studied
fractional
material-polymer
progression
time.
We
also
investigated
orientations
lattice
parameters
crystallized
materials.
Our
results
indicates
starts
growth
rate
faster
graphene-polyethylene
compared
MoSe2-polyethylene
interface.
For
chains
prefer
align
along
armchair
tend
selenium
valleys.
Physical Chemistry Chemical Physics,
Год журнала:
2024,
Номер
26(34), С. 22346 - 22358
Опубликована: Янв. 1, 2024
In
this
study,
we
developed
a
machine
learning
interatomic
potential
based
on
artificial
neural
networks
(ANN)
to
model
carbon-hydrogen
(C-H)
systems.
The
ANN
was
trained
dataset
of
C-H
clusters
obtained
through
density
functional
theory
(DFT)
calculations.
Through
comprehensive
evaluations
against
DFT
results,
including
predictions
geometries
and
formation
energies
across
0D-3D
systems
comprising
C
C-H,
as
well
modeling
various
chemical
processes,
the
demonstrated
exceptional
accuracy
transferability.
Its
capability
accurately
predict
lattice
dynamics,
crucial
for
stability
assessment
in
crystal
structure
prediction,
also
verified
phonon
dispersion
analysis.
Notably,
its
computational
efficiency
calculating
force
constants
facilitated
exploration
complex
energy
landscapes,
leading
discovery
novel
polymorph.
These
results
underscore
robustness
versatility
potential,
highlighting
efficacy
advancing
materials
science
by
conducting
precise
atomistic
simulations
wide
range
materials.
The
structural,
thermodynamics,
electronics
and
mechanical
properties
of
Rhodium
andapproximately
1.6%
for
Ru
1.9%
Rh.
bulk
moduli
agree
with
other
reported
resultsRuthenium
transition
metals
are
analyzed
using
the
first
principle
calculations
in
this
research.depending
on
direction
its
covalent
bonding
while
Rh
withstand
breaking
during
band
three
fold,
two
fold
degenerate.
And
non
degenerate
levels
represented
by
compared
to
terms
elastic
characteristics
more
prone
modify
GGA
treat
exchange
–
correlation
function
PBE
functional
mechanically
stable
as
they
agreed
excellently
results
discussed
literature.
experimental
development
because
anisotropy’s
greater
deviation
from
parameters
respectively
C44
is
2.0
221,
C11
C12
0.19
238,
2C11–
2C12
is8.74
1376.
also
indicate
that
exhibits
anisotropic
tendencies
package
where
elemental
structures
were
obtained
PAW
pseudo
potentials
andreported
outcome
investigation
shows
examined
elementsThe
lattice
deviated
theoretical
withWe
adopted
DFT
solution
pf
Kohn
Sham
equation
given
Xcrydenunity,
hence,
accurately
it’s
stiffer
tougher.