ACS Nano,
Journal Year:
2024,
Volume and Issue:
18(31), P. 19931 - 19949
Published: July 25, 2024
Capacitive
storage
devices
allow
for
fast
charge
and
discharge
cycles,
making
them
the
perfect
complements
to
batteries
high
power
applications.
Many
materials
display
interesting
capacitive
properties
when
they
are
put
in
contact
with
ionic
solutions
despite
their
very
different
structures
(surface)
reactivity.
Among
them,
nanocarbons
most
important
practical
applications,
but
many
nanomaterials
have
recently
emerged,
such
as
conductive
metal-organic
frameworks,
2D
materials,
a
wide
variety
of
metal
oxides.
These
heterogeneous
complex
electrode
difficult
model
conventional
approaches.
However,
development
computational
methods,
incorporation
machine
learning
techniques,
increasing
performance
computing
now
us
tackle
these
types
systems.
In
this
Review,
we
summarize
current
efforts
direction.
We
show
that
depending
on
nature
charging
mechanisms,
or
combinations
can
provide
desirable
atomic-scale
insight
interactions
at
play.
mainly
focus
two
aspects:
(i)
study
ion
adsorption
nanoporous
which
require
extension
constant
potential
molecular
dynamics
multicomponent
systems,
(ii)
characterization
Faradaic
processes
pseudocapacitors,
involves
use
electronic
structure-based
methods.
also
discuss
how
developed
simulation
methods
will
bridges
be
made
between
double-layer
capacitors
pseudocapacitors
future
electricity
devices.
Optical
sorting
combines
optical
tweezers
with
diverse
techniques,
including
spectrum,
artificial
intelligence
(AI)
and
immunoassay,
to
endow
unprecedented
capabilities
in
particle
sorting.
In
comparison
other
methods
such
as
microfluidics,
acoustics
electrophoresis,
offers
appreciable
advantages
nanoscale
precision,
high
resolution,
non-invasiveness,
is
becoming
increasingly
indispensable
fields
of
biophysics,
chemistry,
materials
science.
This
review
aims
offer
a
comprehensive
overview
the
history,
development,
perspectives
various
categorised
passive
active
methods.
To
begin,
we
elucidate
fundamental
physics
attributes
both
conventional
exotic
forces.
We
then
explore
sorting,
which
fuses
diversity
Raman
spectroscopy
machine
learning.
Afterwards,
reveal
essential
roles
played
by
deterministic
light
fields,
configured
lens
systems
or
metasurfaces,
particles
based
on
their
varying
sizes
shapes,
resolutions
speeds.
conclude
our
vision
most
promising
futuristic
directions,
AI-facilitated
ultrafast
bio-morphology-selective
It
can
be
envisioned
that
will
inevitably
become
revolutionary
tool
scientific
research
practical
biomedical
applications.
ACS Applied Materials & Interfaces,
Journal Year:
2021,
Volume and Issue:
13(51), P. 61004 - 61014
Published: Dec. 15, 2021
By
combining
metal
nodes
and
organic
linkers,
an
infinite
number
of
frameworks
(MOFs)
can
be
designed
in
silico.
Therefore,
when
making
new
databases
such
hypothetical
MOFs,
we
need
to
ensure
that
they
not
only
contribute
toward
the
growth
count
structures
but
also
add
different
chemistries
existing
databases.
In
this
study,
a
database
∼20,000
which
are
diverse
terms
their
chemical
design
space─metal
nodes,
functional
groups,
pore
geometries.
Using
machine
learning
techniques,
visualized
quantified
diversity
these
structures.
We
find
on
adding
our
database,
overall
metrics
improve,
especially
chemistry
nodes.
then
assessed
usefulness
by
evaluating
performance,
using
grand-canonical
Monte
Carlo
simulations,
two
important
environmental
applications─post-combustion
carbon
capture
hydrogen
storage.
many
perform
better
than
widely
used
benchmark
materials
as
Zeolite-13X
(for
post-combustion
capture)
MOF-5
storage).
All
developed
properties,
provided
Materials
Cloud
encourage
further
use
for
other
applications.
Science Advances,
Journal Year:
2022,
Volume and Issue:
8(18)
Published: May 6, 2022
Machine
learning
models
can
provide
fast
and
accurate
predictions
of
material
properties
but
often
lack
transparency.
Interpretability
techniques
be
used
with
black
box
solutions,
or
alternatively,
created
that
are
directly
interpretable.
We
revisit
datasets
in
several
works
demonstrate
simple
linear
combinations
nonlinear
basis
functions
created,
which
have
comparable
accuracy
to
the
kernel
neural
network
approaches
originally
used.
Linear
solutions
accurately
predict
bandgap
formation
energy
transparent
conducting
oxides,
spin
states
for
transition
metal
complexes,
elpasolite
structures.
how
interpretable
predictive
highlight
new
insights
found
when
a
model
understood
from
its
coefficients
functional
form.
Furthermore,
we
discuss
recognize
intrinsically
may
best
route
interpretability.
JACS Au,
Journal Year:
2022,
Volume and Issue:
2(5), P. 1200 - 1213
Published: April 27, 2022
Despite
decades
of
effort,
no
earth-abundant
homogeneous
catalysts
have
been
discovered
that
can
selectively
oxidize
methane
to
methanol.
We
exploit
active
learning
simultaneously
optimize
activation
and
methanol
release
calculated
with
machine
learning-accelerated
density
functional
theory
in
a
space
16
M
candidate
including
novel
macrocycles.
By
constructing
macrocycles
from
fragments
inspired
by
synthesized
compounds,
we
ensure
synthetic
realism
our
computational
search.
Our
large-scale
search
reveals
low-spin
Fe(II)
compounds
paired
strong-field
(e.g.,
P
or
S-coordinating)
ligands
among
the
best
energetic
tradeoffs
between
hydrogen
atom
transfer
(HAT)
release.
This
observation
contrasts
prior
efforts
focused
on
high-spin
weak-field
ligands.
decoupling
equatorial
axial
ligand
effects,
determine
negatively
charged
are
critical
for
more
rapid
higher-valency
metals
[i.e.,
M(III)
vs
M(II)]
likely
be
rate-limited
slow
With
full
characterization
barrier
heights,
confirm
optimizing
HAT
does
not
lead
large
oxo
formation
barriers.
Energetic
span
analysis
designs
an
intermediate-spin
Mn(II)
catalyst
predicted
good
turnover
frequencies.
approach
two
distinct
reaction
energies
efficient
global
optimization
is
expected
beneficial
spaces
where
identified
linear
scaling
relationships
barriers
may
limited
unknown.
Topics in Catalysis,
Journal Year:
2022,
Volume and Issue:
65(1-4), P. 6 - 39
Published: Jan. 13, 2022
Autonomous
computations
that
rely
on
automated
reaction
network
elucidation
algorithms
may
pave
the
way
to
make
computational
catalysis
a
par
with
experimental
research
in
field.
Several
advantages
of
this
approach
are
key
catalysis:
(i)
Automation
allows
one
consider
orders
magnitude
more
structures
systematic
and
open-ended
fashion
than
what
would
be
accessible
by
manual
inspection.
Eventually,
full
resolution
terms
structural
varieties
conformations
as
well
respect
type
number
potentially
important
elementary
steps
(including
decomposition
reactions
determine
turnover
numbers)
achieved.
(ii)
Fast
electronic
structure
methods
uncertainty
quantification
warrant
high
efficiency
reliability
order
not
only
deliver
results
quickly,
but
also
allow
for
predictive
work.
(iii)
A
degree
autonomy
reduces
amount
human
work,
processing
errors,
bias.
Although
being
inherently
unbiased,
it
is
still
steerable
specific
regions
an
emerging
addition
new
reactant
species.
This
fidelity
formalization
some
catalytic
process
surprising
silico
discoveries.
In
we
first
review
state
art
embed
autonomous
explorations
into
general
field
from
which
draws
its
ingredients.
We
then
elaborate
conceptual
issues
arise
context
procedures,
discuss
at
example
system.
Chemical Communications,
Journal Year:
2022,
Volume and Issue:
58(23), P. 3717 - 3730
Published: Jan. 1, 2022
Metal–organic
cages
are
macrocyclic
structures
that
can
possess
an
intrinsic
void
for
application
in
encapsulation,
sensing
and
catalysis.
In
this
article,
we
highlight
approaches
limitations
to
their
computational
design.
Journal of the American Chemical Society,
Journal Year:
2022,
Volume and Issue:
144(50), P. 22965 - 22975
Published: Dec. 9, 2022
The
study
of
how
spin
interacts
with
lattice
vibrations
and
relaxes
to
equilibrium
provides
unique
insights
into
its
chemical
environment
the
relation
between
electronic
structure
molecular
composition.
Despite
importance
for
several
disciplines,
ranging
from
magnetic
resonance
quantum
technologies,
a
convincing
interpretation
dynamics
in
crystals
molecules
is
still
lacking
due
challenging
experimental
determination
correct
relaxation
mechanism.
We
apply
ab
initio
series
12
coordination
complexes
Co2+
Dy3+
ions
selected
among
∼240
compounds
that
largely
cover
literature
on
single-molecule
magnets
well
represent
different
regimes
relaxation.
Simulations
reveal
Orbach
rate
known
mostly
depends
ions'
zero-field
splitting
little
details
vibrations.
Raman
instead
found
be
also
significantly
affected
by
features
low-energy
phonons.
These
results
provide
complete
understanding
factors
limiting
lifetime
revisit
years
investigations
making
it
possible
transparently
distinguish
mechanisms.
Advanced Materials,
Journal Year:
2023,
Volume and Issue:
36(6)
Published: Oct. 10, 2023
Abstract
Combining
materials
science,
artificial
intelligence
(AI),
physical
chemistry,
and
other
disciplines,
informatics
is
continuously
accelerating
the
vigorous
development
of
new
materials.
The
emergence
“GPT
(Generative
Pre‐trained
Transformer)
AI”
shows
that
scientific
research
field
has
entered
era
intelligent
civilization
with
“data”
as
basic
factor
“algorithm
+
computing
power”
core
productivity.
continuous
innovation
AI
will
impact
cognitive
laws
methods,
reconstruct
knowledge
wisdom
system.
This
leads
to
think
more
about
informatics.
Here,
a
comprehensive
discussion
models
infrastructures
provided,
advances
in
discovery
design
are
reviewed.
With
rise
paradigms
triggered
by
“AI
for
Science”,
vane
informatics:
“MatGPT”,
proposed
technical
path
planning
from
aspects
data,
descriptors,
generative
models,
pretraining
directed
collaborative
training,
experimental
robots,
well
efforts
preparations
needed
develop
generation
informatics,
carried
out.
Finally,
challenges
constraints
faced
discussed,
order
achieve
digital,
intelligent,
automated
construction
joint
interdisciplinary
scientists.