Nanoscale,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 1, 2025
By
training
the
overpotential
dataset
of
Ag–Pd–Ir
nanocatalysts
using
machine
learning
models,
untrained
formate
oxidation
reaction
catalyst
is
predicted
K-nearest
neighbors
model,
screening
best
candidate
catalysts.
Advanced Energy Materials,
Journal Year:
2024,
Volume and Issue:
14(30)
Published: May 22, 2024
Abstract
Ferrous
sulfides
with
the
high
theoretic
capacity
are
promising
anode
for
sodium
ion
batteries.
However,
fading
and
inferior
rate
capability
still
hinder
their
practical
application.
In
this
work,
Na‐doped
Fe
7
S
8
microrods
cationic
vacancies
weakened
Fe─S
bond
constructed
through
a
facile
scalable
sulfurized
route.
The
experimental
results
combined
theoretical
analysis
thoroughly
reveal
generation
of
strength
induced
by
doping,
which
modulates
energy
band
structure
,
provides
more
active
sites,
accelerates
sodiation/desodiation
reaction
kinetics,
simultaneously.
Moreover,
pre‐doping
delivers
strong
guiding
effect
on
formation
thin
stable
solid
electrolyte
interface
films.
As
result,
optimal
sample
exhibits
excellent
storage
performance,
including
reversible
(674
mAh
g
−1
after
200
cycles
at
0.5
A
503
1500
10
),
superior
capability,
increased
initial
coulombic
efficiency.
Furthermore,
full
cell
paired
commercial
Na
3
V
2
(PO
4
)
also
displays
outstanding
cyclic
stability
95.9%
retention
100
cycles.
Advanced Energy Materials,
Journal Year:
2024,
Volume and Issue:
14(20)
Published: Feb. 14, 2024
Abstract
Machine
learning
(ML)
exhibits
substantial
potential
for
predicting
the
properties
of
solid‐state
electrolytes
(SSEs).
By
integrating
experimental
or/and
simulation
data
within
ML
frameworks,
discovery
and
development
advanced
SSEs
can
be
accelerated,
ultimately
facilitating
their
application
in
high‐end
energy
storage
systems.
This
review
commences
with
an
introduction
to
background
SSEs,
including
explicit
definition,
comprehensive
classification,
intrinsic
physical/chemical
properties,
underlying
mechanisms
governing
conductivity,
challenges,
future
developments.
An
in‐depth
explanation
methodology
is
also
elucidated.
Subsequently,
key
factors
that
influence
performance
are
summarized,
thermal
expansion,
modulus,
diffusivity,
ionic
reaction
energy,
migration
barrier,
band
gap,
activation
energy.
Finally,
it
offered
perspectives
on
design
prerequisites
upcoming
generations
focusing
real‐time
property
prediction,
multi‐property
optimization,
multiscale
modeling,
transfer
learning,
automation
high‐throughput
experimentation,
synergistic
optimization
full
battery,
all
which
crucial
accelerating
progress
SSEs.
aims
guide
novel
SSE
materials
practical
realization
efficient
reliable
technologies.
Advanced Energy Materials,
Journal Year:
2024,
Volume and Issue:
14(30)
Published: May 27, 2024
Abstract
Electrochemical
water
splitting
is
a
promising
technique
for
the
production
of
high‐purity
hydrogen.
Substituting
slow
anodic
oxygen
evolution
reaction
with
an
oxidation
that
thermodynamically
more
favorable
enables
energy‐efficient
Moreover,
this
approach
facilitates
degradation
environmental
pollutants
and
synthesis
value‐added
chemicals
through
rational
selection
small
molecules
as
substrates.
Strategies
small‐molecule
electrocatalyst
design
are
critical
to
electrocatalytic
performance,
focus
on
achieving
high
current
density,
selectivity,
Faradaic
efficiency,
operational
durability.
This
perspective
discusses
key
factors
required
further
advancement,
including
technoeconomic
analysis,
new
reactor
system
design,
meeting
requirements
industrial
applications,
bridging
gap
between
fundamental
research
practical
product
detection
separation.
aims
advance
development
hybrid
electrolysis
applications.
Advanced Functional Materials,
Journal Year:
2024,
Volume and Issue:
34(21)
Published: Jan. 6, 2024
Abstract
Transition
metal
sulfides
(TMSs)
still
confront
the
challenges
of
capacity
fading
and
inferior
fast‐charging
capability
for
sodium
storage.
The
rational
design
heterostructures
enables
a
new
approach
to
conquer
these
drawbacks.
In
this
work,
hierarchical
structure
consisting
SnS
2
nanosheets
FeS
microrods
with
triphasic
is
proposed
by
facile
secondary
growth
sulfidation
process.
introduction
tin
sources
regulates
proportion
pyrite
marcasite
phases,
thereby
achieving
comprising
pyrite,
2,
.
When
served
as
anode
material
sodium‐ion
batteries,
optimized
sample
exhibits
high
reversible
(901
mAh
g
−1
)
durable
cycling
performances
(827
after
200
cycles
at
1
A
742
700
5
).
Paring
commercial
Na
3
V
(PO
cathodes,
full‐cell
also
delivers
extraordinary
cyclic
stability
618
(based
on
weight
material)
(98.7%
retention).
adjustably
heterogeneous
interfaces
alleviates
volumetric
expansion
interfacial
passivation
active
material,
while
modulating
energy
band
inducing
build‐in
electric
fields
boost
+
/electrons
transport
rate.
ACS Nano,
Journal Year:
2024,
Volume and Issue:
unknown
Published: July 1, 2024
Global
warming
is
a
crisis
that
humanity
must
face
together.
With
greenhouse
gases
(GHGs)
as
the
main
factor
causing
global
warming,
adoption
of
relevant
processes
to
eliminate
them
essential.
advantages
high
specific
surface
area,
large
pore
volume,
and
tunable
synthesis,
metal–organic
frameworks
(MOFs)
have
attracted
much
attention
in
GHG
storage,
adsorption,
separation,
catalysis.
However,
pool
MOFs
expands
rapidly
with
new
syntheses
discoveries,
finding
suitable
MOF
for
particular
application
highly
challenging.
In
this
regard,
high-throughput
computational
screening
considered
most
effective
research
method
number
materials
discover
high-performance
target
MOFs.
Typically,
generates
voluminous
multidimensional
data,
which
well
suited
machine
learning
(ML)
training
improve
efficiency
explore
relationships
between
data
depth.
This
Review
summarizes
general
process
common
methods
using
ML
screen
field
removal.
It
also
addresses
challenges
faced
by
exploring
space
potential
directions
future
development
screening.
aims
enhance
understanding
integration
various
fields
broaden
ideas
Small Methods,
Journal Year:
2024,
Volume and Issue:
unknown
Published: May 15, 2024
Abstract
Water
electrolysis,
a
key
enabler
of
hydrogen
energy
production,
presents
significant
potential
as
strategy
for
achieving
net‐zero
emissions.
However,
the
widespread
deployment
water
electrolysis
is
currently
limited
by
high‐cost
and
scarce
noble
metal
electrocatalysts
in
evolution
reaction
(HER).
Given
this
challenge,
design
synthesis
cost‐effective
high‐performance
alternative
catalysts
have
become
research
focus,
which
necessitates
insightful
understandings
HER
fundamentals
material
engineering
strategies.
Distinct
from
typical
reviews
that
concentrate
only
on
summary
recent
catalyst
materials,
review
article
shifts
focus
to
strategies
developing
efficient
catalysts.
In‐depth
analysis
approaches
catalysts,
such
doping,
vacancy
defect
creation,
phase
engineering,
metal‐support
are
illustrated
along
with
cases.
A
special
emphasis
placed
designing
metal‐free
brief
discussion
advancements
electrocatalytic
water‐splitting
technology.
The
also
delves
into
important
descriptors,
reliable
evaluation
parameters
characterization
techniques,
aiming
link
fundamental
mechanisms
its
catalytic
performance.
In
conclusion,
it
explores
future
trends
integrating
theoretical,
experimental
industrial
perspectives,
while
acknowledging
challenges
remain.