Journal of Materials Chemistry A,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Jan. 1, 2024
Through
material-driven
inverse
analysis,
the
acid-tolerant
high-entropy
catalyst,
composed
of
Al,
Au,
Ir,
Nb,
Pt,
Rh,
Ru,
and
Ta,
exhibited
superior
catalytic
activity
stability
in
acidic
environments,
outperforming
Pt
IrO
2
catalysts.
Energy Technology,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 13, 2025
The
unique
morphology
achieved
through
the
co‐precipitation
method
represents
a
rare
and
notable
accomplishment
in
current
research
landscape.
In
this
work,
an
exclusive
sphere‐like
of
NiO/Mn
2
O
3
layered
Ni–Mn–LDH
(layered
double
hydroxide)
is
synthesized
successfully
by
conventional
coprecipitation
method.
are
coated
on
stainless‐steel
substrates
demonstrate
remarkable
charge–discharge
performance
with
significantly
enhanced
specific
capacitance.
measured
capacitance
retention
956
F
g
−1
98.4%
beyond
5000
repetitions
under
A
.
Sphere
enhances
charge/discharge
rates
ion
diffusion
reduction
distance.
Such
supports
long‐term
stability
electrode.
nickel–manganese‐based
LDH
electrode
exhibits
905
1
94.8%
at
cycles
,
respectively.
Furthermore,
asymmetric
supercapacitor
(SC)
device,
fabricated
using
achieves
impressive
171
95.83%
for
10
000
cycles.
Due
to
excellent
supercapacitive
performance,
these
materials
highly
promising
candidates
next‐generation
energy
storage
applications.
over
prolonged
cycling
underscores
their
durability,
paving
way
potential
use
commercial
SC
devices.
Journal of Measurements in Engineering,
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 24, 2025
CoCrFeMoNi
high
entropy
alloy
coating
was
prepared
on
Q235
substrate
by
plasma
cladding
method.
The
phase
structure,
morphology
characteristics,
element
distribution,
microhardness,
and
wear
resistance
for
this
without
with
Si
doping
were
investigated
XRD,
OM,
SEM,
EDS,
microhardness
tester,
friction-wear
respectively.
results
show
that
is
composed
of
a
single
FCC
phase,
while
Si-containing
main
HCP
phase.
Both
alloys
have
typical
dendritic
structure.
There
layer
isotropic
fine-grained
region
near
the
fusion
line,
columnar
crystal
away
from
line.
After
adding
element,
enrichment
Mo
in
interdendrite
Co
dendrite
significantly
decreased,
which
related
to
can
provide
liquid
environment
longer
duration,
lower
viscosity,
greater
fluidity.
change
Cr
result
comprehensive
competition
mixing
enthalpy,
atomic
radius
difference,
electronegativity,
density,
melt
flowability
between
alloying
elements.
friction
coefficients
two
rapid
increase
first
then
gradually
stabilize
time.
hardness
are
greatly
improved,
mainly
lattice
distortion
formation
high-strength
reduction
internal
defects.
Engineering Reports,
Journal Year:
2025,
Volume and Issue:
7(4)
Published: April 1, 2025
ABSTRACT
Multi‐principal
element
alloys
(MPEAs)
have
emerged
as
a
transformative
class
of
materials
with
exceptional
mechanical,
thermal,
and
chemical
properties,
making
them
promising
candidates
for
energy
applications.
This
mini‐review
explores
the
role
MPEAs
in
systems,
focusing
on
their
potential
high‐temperature
applications,
hydrogen
storage,
fuel
cells,
thermoelectric
conversion,
advanced
battery
technologies.
The
unique
combination
configurational
entropy,
phase
stability,
corrosion
resistance
offers
significant
advantages
over
conventional
extreme
environments.
Despite
challenges
such
compositional
optimization,
processing
scalability,
cost
remain
key
areas
future
research.
short
communication
provides
insights
into
advancements,
opportunities,
directions
utilization
next‐generation
systems.
Small,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Oct. 10, 2024
Layered
double
hydroxides
(LDHs),
especially
high-entropy
LDHs
(HE-LDHs),
have
gained
increasing
attention.
However,
HE-LDHs
often
possess
poor
thermal
stability,
restricting
their
applications
in
thermo-catalysis.
Herein,
a
novel
complexing
nucleation
method
is
proposed
for
engineering
with
enhanced
stability.
This
approach
precisely
controls
the
of
metal
ions
different
solubility
products,
achieving
homogeneous
and
effectively
mitigating
phase
segregation
transformation
at
elevated
temperatures.
The
prepared
HE-LDH
sample
demonstrated
exceptional
stability
temperatures
up
to
300
°C,
outperforming
all
previously
reported
LDHs.
Importantly,
these
preserve
both
Lewis
Brønsted
acidic
sites,
enabling
100%
removal
aromatic
sulfides
alkaline
nitrogen
compounds
from
fuel
oils
thermo-catalytic
oxidation
reactions.
Experimental
characterization
findings
reveal
that
metal-hydroxide
bonds
are
strengthened
by
associated
hydroxyl
groups,
inducing
negative
expansion
augmenting
presence
thereby
ensuring
structural
enhancing
catalytic
activity.
study
not
only
proposes
strategy
remarkable
but
also
highlights
potential