Journal of Materials Chemistry A,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Jan. 1, 2024
Co
2
P/FeP
nanosheets
prepared
by
an
aerogel-assisted
method
showed
high
OER
activity
in
alkaline
media
thanks
to
their
2D
structure
and
Co–P/Fe–P
charge
bridges
enhancing
electronic
interactions.
Small Science,
Journal Year:
2024,
Volume and Issue:
4(8)
Published: June 11, 2024
Utilizing
renewable
electricity
for
the
electrocatalytic
conversion
of
CO
2
into
alcohols
represents
a
promising
avenue
generating
value‐added
fuels
and
achieving
carbon
neutrality.
Recently,
there
has
been
growing
scientific
interest
in
high‐efficiency
to
alcohols,
with
significant
advancements
made
mechanism
understanding,
reactor
design,
catalyst
development,
more.
Herein,
thorough
examination
latest
advances
reduction
reaction
(CO
RR)
is
provided.
General
mechanisms
pathways
‐to‐alcohols
are
systematically
illustrated.
Subsequently,
electrolyzer
configurations,
electrolytes,
electrocatalysts
employed
RR
summarized.
After
that,
critical
operating
parameters
(e.g.,
pressure,
temperature,
pH)
that
would
significantly
influence
process
also
analyzed.
Finally,
review
addresses
challenges
offers
perspectives
this
field
guide
future
studies
aimed
at
advancing
technologies.
New Journal of Chemistry,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Jan. 1, 2024
Ga
and
Ti
co-doped
CeO
2
nanorod
catalysts
with
enhanced
activity
for
dimethyl
carbonate
formation
from
methanol
CO
compared
to
Ga-doped
have
been
obtained
by
introducing
during
CeGa
synthesis.
Journal of Materials Chemistry C,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 1, 2025
Mn/Fe
co-doping
modulates
the
electronic
structure
of
transition
metal
phosphides
(Mn–Fe–Ni
2
P)
to
form
coupling,
which
enhances
performance
and
stability
electrocatalytic
overall
water
splitting.
Inorganic Chemistry,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 25, 2025
Pursuing
highly
active
and
stable
Ru-based
catalysts
for
the
oxygen
evolution
reaction
(OER)
under
acidic
conditions
is
important
in
advancing
proton
exchange
membrane
(PEM)
water
electrolyzers.
Unfortunately,
inadequate
stability,
especially
a
large
current
density
of
catalysts,
still
hinders
its
practical
application.
Herein,
we
report
La
doping
strategy
that
simultaneously
enhances
both
OER
activity
stability
RuO2
media.
The
introduction
into
induces
tensile
strain,
which
effectively
weakens
covalency
Ru–O
bonds.
This
structural
modification
significantly
inhibits
Ru
dissolution,
thereby
substantially
enhancing
RuO2.
Meanwhile,
modulates
electronic
structure
optimizes
adsorption
energy
intermediates,
electrocatalytic
activity.
Notably,
optimized
La0.05-RuO2
electrocatalyst
presents
an
excellent
performance
0.5
M
H2SO4
electrolyte,
delivers
low
overpotential
190
mV
at
10
mA
cm–2
sustains
150
h
without
obvious
decay
50
cm–2.
More
importantly,
PEM
electrolyzer
constructed
by
using
our
as
anode
catalyst,
acquires
200
1
A
cm–2,
highlighting
strong
potential
industrial
applications.
work
sheds
new
light
on
designing
high-performance
toward