ACS Applied Materials & Interfaces,
Год журнала:
2022,
Номер
14(29), С. 33076 - 33084
Опубликована: Июль 8, 2022
Separation
of
Cs/Sr
is
one
many
coordination-chemistry-centered
processes
in
the
grand
scheme
spent
nuclear
fuel
reprocessing,
a
critical
link
for
sustainable
energy
industry.
To
deploy
crystallizing
separation
technology,
we
planned
to
systematically
screen
and
identify
candidate
ligands
that
can
efficiently
selectively
bind
Sr2+
form
coordination
polymers.
Therefore,
mined
Cambridge
Structural
Database
characteristic
structural
information
developed
machine-learning-guided
methodology
ligand
evaluation.
The
optimized
machine-learning
model,
correlating
molecular
structures
with
predicted
coordinative
properties,
generated
ranking
list
potential
compounds
selective
crystallization.
sequestration
capability
selectivity
over
Cs+
promising
identified
(squaric
acid
chloranilic
acid)
were
subsequently
confirmed
experimentally,
commendable
performances,
corroborating
artificial-intelligence-guided
strategy.
Nano-Micro Letters,
Год журнала:
2023,
Номер
15(1)
Опубликована: Окт. 13, 2023
Abstract
Efficient
electrocatalysts
are
crucial
for
hydrogen
generation
from
electrolyzing
water.
Nevertheless,
the
conventional
"trial
and
error"
method
producing
advanced
is
not
only
cost-ineffective
but
also
time-consuming
labor-intensive.
Fortunately,
advancement
of
machine
learning
brings
new
opportunities
discovery
design.
By
analyzing
experimental
theoretical
data,
can
effectively
predict
their
evolution
reaction
(HER)
performance.
This
review
summarizes
recent
developments
in
low-dimensional
electrocatalysts,
including
zero-dimension
nanoparticles
nanoclusters,
one-dimensional
nanotubes
nanowires,
two-dimensional
nanosheets,
as
well
other
electrocatalysts.
In
particular,
effects
descriptors
algorithms
on
screening
investigating
HER
performance
highlighted.
Finally,
future
directions
perspectives
electrocatalysis
discussed,
emphasizing
potential
to
accelerate
electrocatalyst
discovery,
optimize
performance,
provide
insights
into
electrocatalytic
mechanisms.
Overall,
this
work
offers
an
in-depth
understanding
current
state
its
research.
Energetic Materials Frontiers,
Год журнала:
2022,
Номер
3(3), С. 177 - 186
Опубликована: Авг. 18, 2022
Predicting
chemical
properties
is
one
of
the
most
important
applications
machine
learning.
In
recent
years,
prediction
energetic
materials
using
learning
has
been
receiving
more
attention.
This
review
summarized
advances
in
predicting
compounds'
(e.g.,
density,
detonation
velocity,
enthalpy
formation,
sensitivity,
heat
explosion,
and
decomposition
temperature)
Moreover,
it
presented
general
steps
for
applying
to
practical
from
aspects
data,
molecular
representation,
algorithms,
accuracy.
Additionally,
raised
some
controversies
specific
its
possible
development
directions.
Machine
expected
become
a
new
power
driving
soon.
Polymers,
Год журнала:
2023,
Номер
16(1), С. 115 - 115
Опубликована: Дек. 29, 2023
This
article
investigates
the
utility
of
machine
learning
(ML)
methods
for
predicting
and
analyzing
diverse
physical
characteristics
polymers.
Leveraging
a
rich
dataset
polymers'
characteristics,
study
encompasses
an
extensive
range
polymer
properties,
spanning
compressive
tensile
strength
to
thermal
electrical
behaviors.
Using
various
regression
like
Ensemble,
Tree-based,
Regularization,
Distance-based,
research
undergoes
thorough
evaluation
using
most
common
quality
metrics.
As
result
series
experimental
studies
on
selection
effective
model
parameters,
those
that
provide
high-quality
solution
stated
problem
were
found.
The
best
results
achieved
by
Random
Forest
with
highest
R2
scores
0.71,
0.73,
0.88
glass
transition,
decomposition,
melting
temperatures,
respectively.
outcomes
are
intricately
compared,
providing
valuable
insights
into
efficiency
distinct
ML
approaches
in
properties.
Unknown
values
each
characteristic
predicted,
method
validation
was
performed
training
predicted
values,
comparing
specified
variance
characteristic.
not
only
advances
our
comprehension
physics
but
also
contributes
informed
optimization
materials
science
applications.
Organic
chemistry
has
seen
colossal
progress
due
to
machine
learning
(ML).
However,
the
translation
of
artificial
intelligence
(AI)
into
materials
science
is
challenging,
where
biological
behavior
prediction
becomes
even
more
complicated.
Nanotoxicity
a
critical
parameter
that
describes
their
interaction
with
living
organisms
screened
in
every
bio-related
research.
To
prevent
excessive
experiments,
such
properties
have
be
pre-evaluated.
Several
existing
ML
models
partially
fulfill
gap
by
predicting
whether
nanomaterial
toxic
or
not.
Yet,
this
binary
categorization
neglects
concentration
dependencies
crucial
for
experimental
scientists.
Here,
an
ML-based
approach
proposed
quantitative
inorganic
cytotoxicity
achieving
precision
expressed
10-fold
cross-validation
(CV)
Q2
=
0.86
root
mean
squared
error
(RMSE)
12.2%
obtained
correlation-based
feature
selection
and
grid
search-based
model
hyperparameters
optimization.
provide
further
flexibility,
atom
property-based
descriptors
are
introduced
allowing
extrapolate
on
unseen
samples.
Feature
importance
calculated
find
interpretable
optimal
decision-making.
These
findings
allow
scientists
perform
primary
silico
candidate
screening
minimize
number
excessive,
labor-intensive
experiments
enabling
rapid
development
nanomaterials
medicinal
purposes.
Journal of Chemical Information and Modeling,
Год журнала:
2022,
Номер
62(22), С. 5435 - 5445
Опубликована: Окт. 31, 2022
Accurately
predicting
new
polymers'
properties
with
machine
learning
models
apriori
to
synthesis
has
potential
significantly
accelerate
discovery
and
development.
However,
accurately
efficiently
capturing
complex,
periodic
structures
in
remains
a
grand
challenge
for
the
polymer
cheminformatics
community.
Specifically,
there
yet
be
an
ideal
solution
problems
of
how
capture
periodicity
polymers,
as
well
optimally
develop
descriptors
without
requiring
human-based
feature
design.
In
this
work,
we
tackle
these
by
utilizing
graph
representation
that
accounts
coupling
it
message-passing
neural
network
leverages
power
deep
automatically
learn
chemically
relevant
descriptors.
Remarkably,
approach
achieves
state-of-the-art
performance
on
8
out
10
distinct
property
prediction
tasks.
These
results
highlight
advancement
predictive
capability
is
possible
through
are
specifically
optimized
unique
chemical
structure
polymers.
Chemistry of Materials,
Год журнала:
2022,
Номер
34(17), С. 7650 - 7665
Опубликована: Сен. 1, 2022
The
exponential
growth
and
success
of
machine
learning
(ML)
has
resulted
in
its
application
all
scientific
domains
including
material
science.
Advancement
experimental
techniques
led
to
an
increase
the
volume
science
data
encouraging
scientists
investigate
data-driven
solutions
problems.
While
resources
available
get
started
with
ML
are
ever
increasing,
there
is
little
literature
on
traversing
through
space
decisions
that
need
be
made
implement
a
robust
trustworthy
solution.
A
lack
such
leads
researchers
wading
articles
papers
trying
determine
best
approach
for
their
problem
sometimes
also
falling
prey
pitfalls
real-world
scenario.
This
paper
aims
act
as
guide
who
want
strategically
solution
use
domain
knowledge
systematic
evaluation
major
aspects
pipeline.
We
focus
four
pipeline:
(1)
formulation,
(2)
curation,
(3)
feature
representation
model
selection,
(4)
generalizability
performance.
In
each
case,
we
discuss
decisions,
provide
examples
from
literature,
illustrate
how
different
choices
can
affect
outcome
case
study
predicting
compressive
strength
uniaxially
pressed
molecular
solid,
2,4,6-triamino-1,3,5-trinitrobenzene
(TATB)
samples.
Using
similar
critical
thinking
along
rigorous
diagnostics,
assured
reliability
predictions
models.
Journal of Chemical Information and Modeling,
Год журнала:
2022,
Номер
62(22), С. 5397 - 5410
Опубликована: Окт. 14, 2022
For
many
experimentally
measured
chemical
properties
that
cannot
be
directly
computed
from
first-principles,
the
existing
physics-based
models
do
not
extrapolate
well
to
out-of-sample
molecules,
and
experimental
datasets
themselves
are
too
small
for
traditional
machine
learning
(ML)
approaches.
To
overcome
these
limitations,
we
apply
a
transfer
approach,
whereby
simultaneously
train
multi-target
regression
model
on
number
of
molecules
with
values
large
related
properties.
We
demonstrate
this
methodology
predicting
impact
sensitivity
energetic
crystals,
finding
both
characteristics
dataset
architecture
important
prediction
accuracy
dataset.
Our
directed-message
passing
neural
network
(D-MPNN)
ML
using
outperforms
direct-ML
diverse
test
set,
new
methods
described
here
widely
applicable
modeling
other
structure–property
relationships.
Journal of Materials Chemistry A,
Год журнала:
2023,
Номер
11(45), С. 25031 - 25044
Опубликована: Янв. 1, 2023
High-throughput
design
of
energetic
molecules
implemented
by
molecular
docking,
AI-aided
design,
an
automated
computation
workflow,
a
structure−property
database,
deep
learning
QSPRs
and
easy-to-use
platform.
Physical Chemistry Chemical Physics,
Год журнала:
2024,
Номер
26(8), С. 7029 - 7041
Опубликована: Янв. 1, 2024
Different
ML
models
are
used
to
map
the
enthalpy
of
formation
from
molecular
structure,
and
impact
different
feature
representation
methods
on
results
is
explored.
Among
them,
GNN
achieve
impressive
results.
Energetic Materials Frontiers,
Год журнала:
2024,
Номер
unknown
Опубликована: Июнь 1, 2024
Recent
years
have
witnessed
significant
advancements
in
methodologies
and
techniques
for
the
synthesis
of
energetic
materials,
which
are
expected
to
shape
future
manufacturing
applications.
Techniques
including
continuous
flow
chemistry,
electrochemical
synthesis,
microwave-assisted
biosynthesis
been
extensively
employed
pharmaceutical
fine
chemical
industries
and,
gratifyingly,
found
broader
This
review
comprehensively
introduces
recent
utilization
these
emerging
techniques,
aiming
provide
a
catalyst
development
novel
green
methods
synthesizing
materials.