Chemical Society Reviews,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Jan. 1, 2024
This
review
provides
a
comprehensive
insight
into
the
electrodegradation
processes
of
nitrogenous
pollutants
in
sewage,
highlighting
reaction
mechanisms,
theoretical
descriptors,
catalyst
design,
and
energy
valorization
strategies.
Nano-Micro Letters,
Journal Year:
2024,
Volume and Issue:
16(1)
Published: July 5, 2024
Green
hydrogen
from
electrolysis
of
water
has
attracted
widespread
attention
as
a
renewable
power
source.
Among
several
production
methods,
it
become
the
most
promising
technology.
However,
there
is
no
large-scale
system
currently
that
can
compete
with
conventional
fossil
fuel
production.
Renewable
energy
electrocatalytic
splitting
an
ideal
technology
environmental
cleanliness
protection
and
good
purity,
which
meet
requirements
future
development.
This
review
summarizes
introduces
current
status
by
three
aspects:
electricity,
catalyst
electrolyte.
In
particular,
present
situation
latest
progress
key
sources
power,
catalytic
materials
electrolyzers
for
are
introduced.
Finally,
problems
generation
electrolytic
directions
next-generation
green
in
discussed
outlooked.
It
expected
this
will
have
important
impact
on
field
water.
Small,
Journal Year:
2024,
Volume and Issue:
20(29)
Published: April 11, 2024
This
research
adopts
a
new
method
combining
calcination
and
pulsed
laser
irradiation
in
liquids
to
induce
controlled
phase
transformation
of
Fe,
Co,
Ni,
Cu,
Mn
transition-metal-based
high-entropy
Prussian
blue
analogs
into
single-phase
spinel
oxide
face-centered
cubic
alloy
(HEA).
The
synthesized
HEA,
characterized
by
its
highly
conductive
nature
reactive
surface,
demonstrates
exceptional
performance
capturing
low-level
nitrite
(NO
Advanced Energy Materials,
Journal Year:
2024,
Volume and Issue:
14(42)
Published: Aug. 5, 2024
Abstract
The
utilization
of
hydrazine
in
aiding
water
electrolysis
presents
a
promising
avenue
for
achieving
highly
efficient
hydrogen
production
through
energy
conversion.
Herein,
bifunctional
electrocatalyst
urchin‐like
iron,
nickle‐codoped
cobalt
phosphide
supported
on
Ni
foam
(FeNi‐CoP/NF)
is
reported.
Benefitting
from
the
combined
electronic
structure
and
lattice
strain
engineering
by
Fe
Ni‐
codoping,
hydrazine‐assisted
seawater
assembled
with
FeNi‐CoP/NF
as
both
electrodes
can
achieve
an
industrial‐level
current
density
1.5
A
cm
−2
at
record‐setting
voltage
163
mV
70
°C
sustain
stable
operation
hundreds
hours
environment.
existence
potential
coincidence
region
lends
credibility
to
feasibility
implementing
self‐activated
electrolysis.
Based
theoretical
calculations,
separate
synergistic
effects
are
investigated
integrated
illustration
these
two
strategies
enhancing
evolution
oxidation
activity
provided.
Moreover,
innovative
multi‐powered
generation
system
featuring
direct
fuel
cell,
rechargeable
Zn‐hydrazine
battery,
proposed,
underscoring
unique
advantages
reaction
its
prospective
contribution
electrochemical
conversion
technologies
powered
sustainable
sources.
Nano Letters,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 17, 2025
The
90-year-old
Hume–Rothery
rule
was
adapted
to
design
an
outstanding
bifunctional
tetra-metallic
alloy
electrocatalyst
for
water
electrolysis.
Following
the
radius
mismatch
principles,
Fe
(131
pm)
and
Ni
(124
are
selectively
incorporated
at
Pd
(139
site
of
Mo0.30Pd0.70
nanosheets.
Analogously,
Cu
(132
alloys
with
only
Pd,
while
Ag
(145
both
Mo
(154
pm).
face-centered
cubic
Mo0.30Pd0.35Ni0.23Fe0.12
nanosheets
10–12
atomic
layers,
featuring
in-plane
compressive
strain
along
{111}
basal
plane,
show
1/3
(422)
reflection
from
local
hexagonal
symmetry.
more
electronegative
attracts
electron
density
Ni/Fe
in
Mo0.30Pd0.35Ni0.23Fe0.12,
synergistically
boosting
mass
activities
hydrogen
oxygen
evolution
reactions
89
±
5
38.6
3.1
A
g–1
±400
mV
versus
RHE,
respectively.
Full
electrolysis
continues
≥550
h,
requiring
cell
voltages
1.51
1.63
V
10
100
mA
cm–2,
delivering
45
mL
h–1
green
H2.
The Chemical Record,
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 7, 2025
Abstract
Water
electrolysis,
a
traditional
and
highly
technology,
is
gaining
significant
attention
due
to
the
growing
demand
for
renewable
energy
resources.
It
stands
as
promising
solution
conversion,
offer
substantial
benefits
in
environmental
protection
sustainable
development
efforts.
The
aim
of
this
research
provide
concise
review
current
state‐of‐the‐art
field
water
focusing
on
principles
splitting
fundamental,
recent
advancements
catalytic
materials,
various
advanced
characterization
methods
emerging
electrolysis
technology
improvements.
Moreover,
paper
delves
into
trends
catalysts
engineering
providing
insight
how
enhance
performance.
With
advancement
reduction
costs,
hydrogen
production
through
expected
assume
more
role
future
ecosystem.
This
not
only
synthesizes
existing
knowledge
but
also
highlights
opportunities
potential
field,
offering
clear
roadmap
further
innovation.