ChemPlusChem,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Oct. 27, 2024
Lattice
strain
engineering
represents
a
cutting-edge
approach
capable
of
delivering
enhanced
performance
across
various
applications.
The
lattice
can
affect
the
electrochemical
catalysts
by
changing
binding
energy
between
surface-active
sites
and
intermediates.
In
this
work,
is
regulated
through
homo/heterogeneous
atomic
interface
merging.
strong
electronic
interactions
Ni
Mo
facilitated
reaction
kinetic
HER.
prepared
NiMo@SSM
exhibits
excellent
HER
catalytic
with
70
mV
overpotential
at
current
density
10
mA
cm
Current Opinion in Green and Sustainable Chemistry,
Journal Year:
2024,
Volume and Issue:
47, P. 100932 - 100932
Published: May 3, 2024
The
scientific
and
industrial
communities
worldwide
have
recently
achieved
impressive
technical
advances
in
developing
innovative
electrocatalysts
electrolysers
for
water
seawater
splitting.
viability
of
electrolysis
commercial
applications,
however,
remains
elusive,
the
key
barriers
are
durability,
cost,
performance,
materials,
manufacturing,
system
simplicity,
especially
with
regard
to
running
on
practical
sources
like
seawater.
This
paper,
therefore,
primarily
aims
provide
a
concise
overview
most
recent
disruptive
water-splitting
technologies
materials
that
could
reshape
future
green
hydrogen
production.
Starting
from
fundamentals,
durable
efficient
modern
types
electrolysers,
such
as
decoupled
unconventional
hybrid
been
represented
precisely
annotated
this
report.
Outlining
splitting,
paper
can
help
quick
guide
identifying
gap
knowledge
while
pointing
out
solutions
cost-effective
production
meet
zero-carbon
targets
short
near
term.
Industrial & Engineering Chemistry Research,
Journal Year:
2025,
Volume and Issue:
64(2), P. 1173 - 1180
Published: Jan. 6, 2025
Hydrogen
energy
as
a
new
type
of
clean
has
been
widely
used.
Electrolysis
is
highly
effective
method
producing
hydrogen
from
water.
Catalysts
with
low
development
costs
and
high
efficiency
are
the
focus
current
research.
A
novel
Ni–W–P/Mo
catalyst
for
evolution
reaction
(HER)
was
synthesized
by
electrodeposition
based
on
molybdenum
mesh.
The
experimental
results
show
that
when
density
10
mA/cm2,
best
overpotential
in
alkaline
medium
75
mV.
Not
only
that,
Tafel
slope
(77
mV/dec)
also
proves
its
excellent
dynamic
performance.
In
addition,
60
h
stability
test
at
mA/cm2
indicates
an
long-term
Compared
catalysts
reported
recent
years,
HER
performance
much
better
than
most
nonprecious
metal
catalysts.
uniform
regular
network
provides
large
area
support
catalyst,
which
conducive
to
synthesis
catalyst.
By
doping
W,
electronic
structure
regulated,
water
decomposition
promoted.
morphology
important
factor
improving
activity
amorphous
this
work
idea
research
catalytic
materials
production
electrolysis
significance
promoting
economy.
