Molecules,
Journal Year:
2024,
Volume and Issue:
29(16), P. 3848 - 3848
Published: Aug. 14, 2024
Aqueous
zinc
ion
batteries
(AZIBs)
have
received
a
lot
of
attention
in
electrochemical
energy
storage
systems
for
their
low
cost,
environmental
compatibility,
and
good
safety.
However,
cathode
materials
still
face
poor
material
stability
conductivity,
which
cause
reversibility
rate
performance
AZIBs.
Herein,
heterogeneous
structure
combined
with
cation
pre-intercalation
strategies
was
used
to
prepare
novel
CaV6O16·[email protected]·nH2O
(CaNiVO)
high-performance
Zn
storage.
Excellent
achieved
via
the
wide
interlayer
conductive
network
originating
from
interlayer-embedded
metal
ions
heterointerfaces
two-phase
CaNiVO.
Furthermore,
this
unique
further
showed
excellent
structural
led
fast
electron/ion
transport
dynamics.
Benefiting
strategies,
CaNiVO
electrodes
an
impressive
specific
capacity
334.7
mAh
g−1
at
0.1
A
110.3
2
g−1.
Therefore,
paper
provides
feasible
strategy
designing
optimizing
superior
performance.
Advanced Energy Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 21, 2025
Abstract
Developing
sustainable
energy
storage
systems
is
crucial
for
integrating
renewable
sources
into
the
power
grid.
Aqueous
zinc‐ion
batteries
(ZIBs)
are
becoming
increasingly
popular
due
to
their
safety,
eco‐friendliness,
and
cost‐effectiveness.
However,
challenges
remain
in
achieving
realistic
time
per
charge,
long
cycling
life,
high
capacity
practical
conditions.
Despite
advancements
cathode
materials,
issues
such
as
dissolution
side
reactions
limit
performance.
Optimizing
architecture
electrolyte
composition
essential
address
these
challenges.
Tailored
formulations
can
stabilize
electrode‐electrolyte
interface
(EEI
enhance
stability.
This
perspective
reviews
cathodes
from
past
decades
compares
performance
under
different
current
densities.
Emphasizing
low
density
extended
stability
widespread
adoption
of
ZIBs
grid‐scale
applications.
By
focusing
on
aspects,
this
aims
bridge
gap
between
research
applications,
offering
insights
optimizing
material
structure
selecting
matching
electrolytes
storage.
work
guides
future
developments
ZIB
technology,
facilitating
transition
lab
real‐world
deployment.
Dalton Transactions,
Journal Year:
2024,
Volume and Issue:
53(34), P. 14182 - 14192
Published: Jan. 1, 2024
Cation-embedding
and
oxygen-vacancy
co-modified
VO
x
thin-sheet-microspheres
assembled
with
nanoparticles
were
designed
for
zinc-ion
batteries
a
high
rate
capacity.
New Journal of Chemistry,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 1, 2025
Aqueous
zinc-ion
batteries
(AZIBs)
have
received
considerable
attention
due
to
their
advantages
of
being
safe,
environmentally
friendly,
and
cost-effective.
Carbon Energy,
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 25, 2025
ABSTRACT
Zinc‐ion
batteries
(ZIBs)
have
significant
potential
for
advancements
in
energy
storage
systems
owing
to
their
high
level
of
safety
and
theoretical
capacity.
However,
ZIBs
face
several
challenges,
such
as
cathode
capacity
degradation
short
cycle
life.
Ordinary
metal–organic
frameworks
(MOFs)
are
characterized
by
specific
surface
areas,
large
pore
channels,
controllable
structures
functions,
making
them
suitable
use
ZIB
cathodes
with
good
performance.
the
insulating
properties
MOFs
hinder
further
development.
In
contrast,
electronic
conductive
(EC‐MOFs)
show
conductivity,
which
facilitates
rapid
electron
transport
ameliorates
charging
discharging
efficiency
ZIBs.
This
paper
introduces
unique
conduction
mechanism
EC‐MOFs
elaborates
various
strategies
constructing
conductivity
stability.
Additionally,
synthesis
methods
EC‐MOF‐based
materials
elucidated.
Finally,
this
presents
a
summary
outlook
on
cathodes.
review
provides
guidance
designing
applying
other
devices.
Molecules,
Journal Year:
2025,
Volume and Issue:
30(9), P. 2074 - 2074
Published: May 7, 2025
In
this
work,
novel
sodium-intercalated
vanadium
oxide
nanowire
electrode
materials
(NaXV@CC)
were
successfully
designed
as
cathode
for
Aqueous
Zinc-Ion
Batteries
(AZIBs)
through
a
two-step
electrochemical
process.
The
optimized
material,
Na30V@CC,
exhibited
superior
capacity,
excellent
rate
capability,
and
outstanding
stability.
intercalation
of
sodium
ions
into
the
lattice
induced
significant
transformation
in
overall
nanostructure,
leading
to
altered
morphology.
This
unique
structural
design
provided
abundant
active
sites
efficient
ion
transport
pathways,
thereby
enhancing
performance.
charging
discharging
capacities
343.3
330.4
mAh·g−1
at
0.2
A·g−1,
respectively,
capacity
was
maintained
90
8
A·g−1.
battery
demonstrated
exceptional
retention
over
3000
cycles
5
highlighting
its
long-term
Moreover,
reaction
governed
by
combination
diffusion
surface
processes.
Na30V@CC
system
reduced
impedance
improved
zinc
rates.
study
offers
valuable
insights
performance
vanadium-based
cathodes
AZIBs.
