ACS Omega,
Journal Year:
2023,
Volume and Issue:
8(33), P. 30335 - 30348
Published: Aug. 7, 2023
This
paper
details
the
use
of
computational
and
informatics
methods
to
design
metal
nanocluster
catalysts
for
efficient
ammonia
synthesis.
Three
main
problems
are
tackled:
defining
a
measure
catalytic
activity,
choosing
best
candidate
from
large
number
possibilities,
identifying
thermodynamically
stable
cluster
catalyst
structure.
First-principles
calculations,
Bayesian
optimization,
particle
swarm
optimization
used
obtain
Ti8
as
candidate.
The
N2
adsorption
structure
on
indicates
substantial
activation
molecule,
while
NH3
suggests
that
is
likely
undergo
easy
desorption.
study
also
reveals
several
candidates
break
general
trade-off
surfaces
strongly
adsorb
reactants
products.
Chemical Society Reviews,
Journal Year:
2024,
Volume and Issue:
53(14), P. 7392 - 7425
Published: Jan. 1, 2024
Descriptors
play
a
crucial
role
in
electrocatalysis
as
they
can
provide
valuable
insights
into
the
electrochemical
performance
of
energy
conversion
and
storage
processes.
They
allow
for
understanding
different
catalytic
activities
enable
prediction
better
catalysts
without
relying
on
time-consuming
trial-and-error
approaches.
Hence,
this
comprehensive
review
focuses
highlighting
significant
advancements
commonly
used
descriptors
critical
electrocatalytic
reactions.
First,
fundamental
reaction
processes
key
intermediates
involved
several
reactions
are
summarized.
Subsequently,
three
types
classified
introduced
based
catalysts.
These
include
d-band
center
descriptors,
readily
accessible
intrinsic
property
spin-related
all
which
contribute
to
profound
behavior.
Furthermore,
multi-type
that
collectively
determine
also
Finally,
we
discuss
future
envisioning
their
potential
integrate
multiple
factors,
broaden
application
scopes,
synergize
with
artificial
intelligence
more
efficient
catalyst
design
discovery.
Communications Chemistry,
Journal Year:
2024,
Volume and Issue:
7(1)
Published: Jan. 12, 2024
The
empirical
aspect
of
descriptor
design
in
catalyst
informatics,
particularly
when
confronted
with
limited
data,
necessitates
adequate
prior
knowledge
for
delving
into
unknown
territories,
thus
presenting
a
logical
contradiction.
This
study
introduces
technique
automatic
feature
engineering
(AFE)
that
works
on
small
datasets,
without
reliance
specific
assumptions
or
pre-existing
about
the
target
catalysis
designing
descriptors
and
building
machine-learning
models.
generates
numerous
features
through
mathematical
operations
general
physicochemical
catalytic
components
extracts
relevant
desired
catalysis,
essentially
screening
hypotheses
machine.
AFE
yields
reasonable
regression
results
three
types
heterogeneous
catalysis:
oxidative
coupling
methane
(OCM),
conversion
ethanol
to
butadiene,
three-way
where
only
training
set
is
swapped.
Moreover,
application
active
learning
combines
high-throughput
experimentation
OCM,
we
successfully
visualize
machine's
process
acquiring
precise
recognition
design.
Thus,
versatile
data-driven
research
key
step
towards
fully
automated
discoveries.
Applied Catalysis B Environment and Energy,
Journal Year:
2023,
Volume and Issue:
343, P. 123454 - 123454
Published: Nov. 9, 2023
Conventional
methods
for
developing
heterogeneous
catalysts
are
inefficient
in
time
and
cost,
often
relying
on
trial-and-error.
The
integration
of
machine-learning
(ML)
catalysis
research
using
data
can
reduce
computational
costs
provide
valuable
insights.
However,
the
lack
interpretability
black-box
models
hinders
their
acceptance
among
researchers.
We
propose
an
interpretable
ML
framework
that
enables
a
comprehensive
understanding
complex
relationships
between
variables.
Our
incorporates
tools
such
as
Shapley
additive
explanations
partial
dependence
values
effective
preprocessing
result
analysis.
This
increases
prediction
accuracy
model
with
improved
R2
value
0.96,
while
simultaneously
expanding
catalyst
component
variety.
Furthermore,
case
dry
reforming
methane,
we
tested
validity
recommendation
through
dedicated
experimental
tests.
outstanding
performance
has
potential
to
expedite
rational
design
catalysts.
Abstract
The
design
and
discovery
of
new
improved
catalysts
are
driving
forces
for
accelerating
scientific
technological
innovations
in
the
fields
energy
conversion,
environmental
remediation,
chemical
industry.
Recently,
use
machine
learning
(ML)
combination
with
experimental
and/or
theoretical
data
has
emerged
as
a
powerful
tool
identifying
optimal
various
applications.
This
review
focuses
on
how
ML
algorithms
can
be
used
computational
catalysis
materials
science
to
gain
deeper
understanding
relationships
between
properties
their
stability,
activity,
selectivity.
development
repositories,
mining
techniques,
tools
that
navigate
structural
optimization
problems
highlighted,
leading
highly
efficient
sustainable
future.
Several
data‐driven
models
commonly
research
diverse
applications
reaction
prediction
discussed.
key
challenges
limitations
using
presented,
which
arise
from
catalyst's
intrinsic
complex
nature.
Finally,
we
conclude
by
summarizing
potential
future
directions
area
ML‐guided
catalyst
development.
article
is
categorized
under:
Structure
Mechanism
>
Reaction
Mechanisms
Catalysis
Data
Science
Artificial
Intelligence/Machine
Learning
Electronic
Theory
Density
Functional
Angewandte Chemie International Edition,
Journal Year:
2023,
Volume and Issue:
62(30)
Published: May 31, 2023
Heterogeneous
catalysis
is
an
important
area
of
research
that
generates
data
as
intricate
the
phenomenon
itself.
Complexity
inherently
coupled
to
function
catalyst
and
advance
in
knowledge
can
only
be
achieved
if
this
complexity
adequately
captured
accounted
for.
This
requires
integration
experiment
theory,
high
quality
control,
close
interdisciplinary
collaboration,
sharing
metadata,
which
facilitated
by
application
joint
management
strategies.
Viewpoint
Article
first
discusses
potential
a
digital
transition
research.
Then,
summary
current
status
terms
infrastructure
heterogeneous
presented,
defining
various
types
(meta-)
data,
from
synthesis
functional
analysis.
Finally,
already
implemented
working
concept
for
local
acquisition
storage
introduced
benefits
further
development
directions
use
are
discussed.
Tenside Surfactants Detergents,
Journal Year:
2024,
Volume and Issue:
61(4), P. 285 - 296
Published: April 29, 2024
Abstract
This
review
critically
analyzes
the
incorporation
of
artificial
intelligence
(AI)
in
surface
chemistry
and
catalysis
to
emphasize
revolutionary
impact
AI
techniques
this
field.
The
current
examines
various
studies
that
using
techniques,
including
machine
learning
(ML),
deep
(DL),
neural
networks
(NNs),
catalysis.
It
reviews
literature
on
application
models
predicting
adsorption
behaviours,
analyzing
spectroscopic
data,
improving
catalyst
screening
processes.
combines
both
theoretical
empirical
provide
a
comprehensive
synthesis
findings.
demonstrates
applications
have
made
remarkable
progress
properties
nanostructured
catalysts,
discovering
new
materials
for
energy
conversion,
developing
efficient
bimetallic
catalysts
CO
2
reduction.
AI-based
analyses,
particularly
advanced
NNs,
provided
significant
insights
into
mechanisms
dynamics
catalytic
reactions.
will
be
shown
plays
crucial
role
by
significantly
accelerating
discovery
enhancing
process
optimization,
resulting
enhanced
efficiency
selectivity.
mini-review
highlights
challenges
data
quality,
model
interpretability,
scalability,
ethical,
environmental
concerns
AI-driven
research.
importance
continued
methodological
advancements
responsible
implementation
ACS Sustainable Chemistry & Engineering,
Journal Year:
2024,
Volume and Issue:
12(10), P. 4121 - 4131
Published: Feb. 23, 2024
Machine
learning
(ML),
which
has
been
increasingly
applied
to
complex
problems
such
as
catalyst
development,
encounters
challenges
in
data
collection
and
structuring.
Quantum
neural
networks
(QNNs)
outperform
classical
ML
models,
artificial
(ANNs),
prediction
accuracy,
even
with
limited
data.
However,
QNNs
have
available
qubits.
To
address
this
issue,
we
introduce
a
hybrid
QNN
model,
combining
parametrized
quantum
circuit
an
ANN
structure.
We
used
the
sets
of
dry
reforming
methane
reaction
from
literature
in-house
experimental
results
compare
models.
The
exhibited
superior
accuracy
faster
convergence
rate,
achieving
R2
0.942
at
2478
epochs,
whereas
achieved
0.935
3175
epochs.
For
224
points
previously
unreported
literature,
enhanced
generalization
performance.
It
showed
mean
absolute
error
(MAE)
13.42,
compared
MAE
27.40
for
under
similar
training
conditions.
This
study
highlights
potential
powerful
tool
solving
catalysis
chemistry,
demonstrating
its
advantages
over